Two- and four-contact conductivity, current-voltage and van der Pauw measurements.
Every source method stays verbatim. Subtypes retain distinctions such as ATR versus transmission IR, powder versus single-crystal diffraction, and two- versus four-contact transport.
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1,789 measurements
2026 · 1D Conductive Metal-Organic Framework-Enabled Dual-Parameter MEMS Gas Sensor for Thermal Runaway Monitoring
In-situ grown CuBTA film on MEMS IDEs · Thin Film · Drop-cast and in-situ grown MBTA films on silicon wafer; numeric Table S4 values unavailable in provided SI text
2026 · 1D Conductive Metal-Organic Framework-Enabled Dual-Parameter MEMS Gas Sensor for Thermal Runaway Monitoring
CuBTA powder · Powder · Powder sample, 25 deg C
2026 · 1D Conductive Metal-Organic Framework-Enabled Dual-Parameter MEMS Gas Sensor for Thermal Runaway Monitoring
In-situ grown NiBTA film on MEMS IDEs · Thin Film · Drop-cast and in-situ grown MBTA films on silicon wafer; numeric Table S4 values unavailable in provided SI text
2026 · 1D Conductive Metal-Organic Framework-Enabled Dual-Parameter MEMS Gas Sensor for Thermal Runaway Monitoring
NiBTA powder · Powder · Powder sample, 25 deg C
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CH as-synthesised powder · Powder · Four-probe attempt on CH; resistance exceeded instrument range.
2026 · Bimetallic conductive MOF single crystals designed as high-performance anodes for lithium-ion batteries
CNH as-synthesised powder · Powder · Four-probe conductivity measurement on CNH; sample geometry not specified.
2026 · Construction of a high-performance electrochemical sensor based on intrinsically conductive Co-HHTQ-MOF for imidacloprid detection
Co-HHTQ-MOF powder · Powder · Experimental XRD spectrum compared with standard simulated spectra.
2026 · Electronically Conductive Metal−Organic Framework With Photoelectric and Photothermal Effect as a Stable Cathode for High-Temperature Photo-Assisted Zn/Sn-Air Battery
as-synthesised Ni2DDA black powder · Powder · Room-temperature electronic conductivity of Ni2DDA powder; geometry not specified in supplied text.
2026 · Facile Preparation of Polymorphic Metal–Organic Framework Nanostructures as Microwave Absorbers via One-Pot Hydrothermal Reaction
Cu-TCNQ powder · Powder · Conductivity sigma determined by LSV; Figure 3e.
2026 · Facile Preparation of Polymorphic Metal–Organic Framework Nanostructures as Microwave Absorbers via One-Pot Hydrothermal Reaction
Paraffin-based Cu-TCNQ composite · Pellet · Conductivity sigma determined by LSV; Figure 3e.
2026 · Facile Preparation of Polymorphic Metal–Organic Framework Nanostructures as Microwave Absorbers via One-Pot Hydrothermal Reaction
Fe-TCNQ powder · Powder · Conductivity sigma determined by LSV; Figure 3e.
2026 · Facile Preparation of Polymorphic Metal–Organic Framework Nanostructures as Microwave Absorbers via One-Pot Hydrothermal Reaction
Ni-TCNQ powder · Powder · Conductivity sigma determined by LSV; Figure 3e.
2026 · In-situ growth of high-crystallinity M3(hexaaminotriphenylene)2 (M = Co, Ni) thin film for field-effect transistor-based glucose biosensor
Co/Ni-HITP-GA-GOX-FET sensor · Electrode · Electrical properties of Co/Ni-HITP-GA-GOX-FET; liquid-gate transfer curve
2026 · Investigation of charge transport and Schottky properties in a 1D Cd(II) coordination polymer featuring 9-anthracenecarboxylic acid
ITO/CP1/Al Schottky diode · Thin Film · Series resistance, barrier height and ideality factor extracted from dV/d(lnI) vs I and H(I) vs I plots.
2026 · Investigation of charge transport and Schottky properties in a 1D Cd(II) coordination polymer featuring 9-anthracenecarboxylic acid
ITO/CP1/Al Schottky diode · Thin Film · Keithley 2635B source meter; voltage sweep from -1 V to +1 V at room temperature.
2026 · Investigation of charge transport and Schottky properties in a 1D Cd(II) coordination polymer featuring 9-anthracenecarboxylic acid
ITO/CP1/Al Schottky diode · Thin Film · ln(I) vs ln(V) plot under forward bias used to identify Ohmic and space-charge-limited-current regions; DC conductivity reported for the Ohmic region.
2026 · Isoreticular Modulation of Electrical Conduction and Magnetic Properties in Semiconducting Lanthanide-based Based Metal−Organic Frameworks
Eu-HHTP powder · Powder · temperature_range: variable temperature; geometry: pelletised powder
2026 · Isoreticular Modulation of Electrical Conduction and Magnetic Properties in Semiconducting Lanthanide-based Based Metal−Organic Frameworks
Gd-HHTP powder · Powder · temperature_range: variable temperature; geometry: pelletised powder
2026 · Isoreticular Modulation of Electrical Conduction and Magnetic Properties in Semiconducting Lanthanide-based Based Metal−Organic Frameworks
Sm-HHTP powder · Powder · temperature_range: variable temperature; geometry: pelletised powder
2026 · Isoreticular Modulation of Electrical Conduction and Magnetic Properties in Semiconducting Lanthanide-based Based Metal−Organic Frameworks
Tb-HHTP powder · Powder · temperature_range: variable temperature; geometry: pelletised powder
2026 · Microenvironment modulation in heterometallic MOFs for tailoring electron/proton transport and hydrophilicity toward photocatalytic hydrogen production
Ni-Ca pressed pellet · Pellet
2026 · Microenvironment modulation in heterometallic MOFs for tailoring electron/proton transport and hydrophilicity toward photocatalytic hydrogen production
Ni-Sr pressed pellet · Pellet
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Ca-HHTP pellet sample · Pellet · Conductivity measured over temperature range in PPMS; activation energy extracted using Arrhenius equation. Co-HHTP temperature dependence used AC high-resistance mode.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Ca-HHTP pellet sample · Pellet · 30 mg powder pressed in 8 mm die for 5 min at 10 MPa; four-point linear probe, 1.2 mm tip spacing; PPMS without liquid helium.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Co-HHTP pellet sample · Pellet · Conductivity measured over temperature range in PPMS; activation energy extracted using Arrhenius equation. Co-HHTP temperature dependence used AC high-resistance mode.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Co-HHTP pellet sample · Pellet · 30 mg powder pressed in 8 mm die for 5 min at 10 MPa; four-point linear probe, 1.2 mm tip spacing; PPMS without liquid helium.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Cu-HHTP pellet sample · Pellet · Conductivity measured over temperature range in PPMS; activation energy extracted using Arrhenius equation. Co-HHTP temperature dependence used AC high-resistance mode.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Cu-HHTP pellet sample · Pellet · 30 mg powder pressed in 8 mm die for 5 min at 10 MPa; four-point linear probe, 1.2 mm tip spacing; PPMS without liquid helium.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Mg-HHTP pellet sample · Pellet · Conductivity measured over temperature range in PPMS; activation energy extracted using Arrhenius equation. Co-HHTP temperature dependence used AC high-resistance mode.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Mg-HHTP pellet sample · Pellet · 30 mg powder pressed in 8 mm die for 5 min at 10 MPa; four-point linear probe, 1.2 mm tip spacing; PPMS without liquid helium.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Ni-HHTP pellet sample · Pellet · Conductivity measured over temperature range in PPMS; activation energy extracted using Arrhenius equation. Co-HHTP temperature dependence used AC high-resistance mode.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Ni-HHTP pellet sample · Pellet · 30 mg powder pressed in 8 mm die for 5 min at 10 MPa; four-point linear probe, 1.2 mm tip spacing; PPMS without liquid helium.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Zn-HHTP pellet sample · Pellet · Conductivity measured over temperature range in PPMS; activation energy extracted using Arrhenius equation. Co-HHTP temperature dependence used AC high-resistance mode.
2026 · Structure and Electrical Transport Properties of Metal Cate-Cholate Frameworks: The Metal Center Matters†
Zn-HHTP pellet sample · Pellet · 30 mg powder pressed in 8 mm die for 5 min at 10 MPa; four-point linear probe, 1.2 mm tip spacing; PPMS without liquid helium.
2026 · Structure–Property Engineering of Redox-Active Tetrathiafulvalene- and Bipyridine-Based Metal–Organic Frameworks for Battery Cathodes
Cd2(TTFTB) MOF powder/crystals · Powder · Previously reported intrinsic conductivity for Cd2(TTFTB) MOF; no new conductivity device described in this paper.
2026 · Sub-Femtomolar, Label-Free Small-Molecule Sensing with Nanoarchitectonic Metal-Organic Frameworks
isolated CuHITP film fragment converted on Cu foil · Thin Film · Isolated CuHITP film fragment delaminated from Cu foil after similar templated synthesis.
2026 · Tailoring Li-ion Storage and Transport in Two-Dimensional Conjugated Metal-Organic Frameworks via Precise Nitrogen Incorporation
Cu-N2-OHBA pressed pellet · Pellet
2026 · Tailoring Li-ion Storage and Transport in Two-Dimensional Conjugated Metal-Organic Frameworks via Precise Nitrogen Incorporation
Cu-N4-OHBA pressed pellet · Pellet
2026 · Tunable Charge Transport Properties Through Precise π-Stacking Modulation in Isostructural Porous Molecular Conductors
PMC-3-I/PMMA drop-cast FP-TRMC sample on quartz · Thin Film · Room-temperature N2 measurement; 355 nm Nd:YAG third-harmonic laser pulses, 10 Hz, ca. 5 ns, probe microwave around 9.1 GHz and 10 mW.
2026 · Tunable Charge Transport Properties Through Precise π-Stacking Modulation in Isostructural Porous Molecular Conductors
PMC-3-Br pressed pellets · Pellet · I-V measured at room temperature on 3 mm diameter pressed pellets in an N2-purged glovebox using Keithley 2450.
2026 · Tunable Charge Transport Properties Through Precise π-Stacking Modulation in Isostructural Porous Molecular Conductors
PMC-3-Cl pressed pellets · Pellet · I-V measured at room temperature on 3 mm diameter pressed pellets in an N2-purged glovebox using Keithley 2450.
2026 · Tunable Charge Transport Properties Through Precise π-Stacking Modulation in Isostructural Porous Molecular Conductors
PMC-3-I pressed pellets · Pellet · I-V measured at room temperature on 3 mm diameter pressed pellets in an N2-purged glovebox using Keithley 2450.
2026 · Tunable Charge Transport Properties Through Precise π-Stacking Modulation in Isostructural Porous Molecular Conductors
PMC-3-Br single crystals · Single Crystal · Variable-temperature conductivity measured along the pi-stacking crystallographic c axis in a liquid He PPMS cryostat using Keithley 2611.
2026 · Tunable Charge Transport Properties Through Precise π-Stacking Modulation in Isostructural Porous Molecular Conductors
PMC-3-Cl single crystals · Single Crystal · Variable-temperature conductivity measured along the pi-stacking crystallographic c axis in a liquid He PPMS cryostat using Keithley 2611.
2025 · 2D Tetrathiafulvalene-Based Metal–Organic Framework Linked by Hydrogen Bonding for Boosting Long-Cycle Stability of Lithium-Ion Batteries
Pressed-pellet m-TTFTB-Co-MOF conductivity sample · Pellet · Room-temperature resistance/I-V measurement with gold wires and conductive carbon adhesive paste on pressed m-TTFTB-Co-MOF pellet.
2025 · A Conductive Cu-Based Metal–Organic Framework Ribbon with High-Density Redox-Active Centers as Cathode for Stable High-Capacity Lithium-Ion Batteries
pressed DDA-Cu pellet · Pellet · 100 mg powder pressed in 10 mm die at 12-30 MPa; measured around 298 K
2025 · A Conductive Cu-Based Metal–Organic Framework Ribbon with High-Density Redox-Active Centers as Cathode for Stable High-Capacity Lithium-Ion Batteries
pressed DDA-Cu pellet · Pellet · DDA-Cu treated with 4 M LiTFSI in DOL/DME electrolyte for 2 days
2025 · A Conductive Cu-Based Metal–Organic Framework Ribbon with High-Density Redox-Active Centers as Cathode for Stable High-Capacity Lithium-Ion Batteries
pressed DDA ligand pellet · Pellet · DDA ligand pellet/control conductivity compared with DDA-Cu
2025 · A Cu-based electronically conducting metal–organic framework with π–d conjugation for cathode and anode modification in aqueous zinc-ion batteries
Zn@DDA-Cu composite anode · Electrode · DDA-Cu-coated zinc anode structural, wetting and conductivity characterisation.
2025 · A Low-Symmetry Copper Benzenehexathiol Coordination Polymer with In-Plane Electrical Anisotropy
Cu5BHT single-crystal six-electrode device · Single Crystal · Room-temperature I-V measured in N2; temperature-dependent 4pp measurements from 300 to 30 K under high vacuum (<10^-6 mbar) in a closed-cycle cryogenic probe station.
2025 · A Low-Symmetry Copper Benzenehexathiol Coordination Polymer with In-Plane Electrical Anisotropy
Cu5BHT two-probe single-crystal and polycrystal devices · Electrode · E-beam contacted devices; contact resistance included; plotted over approximately 30-300 K.
2025 · A Low-Symmetry Copper Benzenehexathiol Coordination Polymer with In-Plane Electrical Anisotropy
Cu5BHT van der Pauw thick film · Thin Film · Cu5BHT thick film measured from 310 to 5 K; sheet resistance converted to bulk resistivity using thickness.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Cu-BHT-o CVD thin film without NH3 · Thin Film · Room-temperature conductivity of Cu-BHT-o control thin films.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Cu-BHT-w NH3-assisted CVD thin film · Thin Film · Room-temperature conductivity of Cu-BHT-w thin films.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Cu-HHB-o CVD thin film without NH3 · Thin Film · Room-temperature conductivity of Cu-HHB-o control thin films.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Cu-HHB-w NH3-assisted CVD thin film · Thin Film · Room-temperature conductivity of Cu-HHB-w thin films.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Fe-HHB-o CVD thin film without NH3 · Thin Film · Room-temperature conductivity of Fe-HHB-o thin-film control grown without NH3.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Fe-HHB-w NH3-assisted CVD thin film · Thin Film · Room-temperature conductivity of as-grown NH3-assisted Fe-HHB-w thin films.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Fe-HHB-w-110/110 equal tube configuration · Thin Film · Conductivity comparison for equal 110/110 tube configuration.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Fe-HHB-w-65/160 reversed tube configuration · Thin Film · Conductivity comparison for reversed 65/160 tube configuration.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Fe-HHB-w-QB quartz-boat configuration · Thin Film · Conductivity comparison for quartz-boat growth configuration.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Fe-HHB-o CVD thin film without NH3 · Thin Film · Measured from 295 to 573 K; Fe-HHB-o follows variable range hopping plot.
2025 · Ammonia-Assisted Chemical Vapor Deposition Growth of Two-Dimensional Conjugated Coordination Polymer Thin Films
Fe-HHB-w NH3-assisted CVD thin film · Thin Film · Measured from 295 to 573 K; Fe-HHB-w data fitted with Arrhenius equation.
2025 · An optoelectronic synapse based on Cu-BHT MOF for multi-wavelength optical logic gates and neuromorphic vision system
Ag/Cu-BHT/Ag planar optoelectronic synaptic device · Electrode · Ag/Cu-BHT/Ag device measured with Keithley 2636B; I-V curves in dark and under 445 or 520 nm laser illumination.
2025 · Asymmetrical Substitution Manipulates Stacking Modes in 2D Conductive MOF Crystals
Cu3F2HHTP2 single-crystal device · Single Crystal · Single-crystal device; conductivity calculated from device resistance and cylindrical cross-section assumption.
2025 · Asymmetrical Substitution Manipulates Stacking Modes in 2D Conductive MOF Crystals
Cu3FHHTP2 single-crystal device · Single Crystal · Single-crystal device; conductivity calculated from device resistance and cylindrical cross-section assumption.
2025 · Asymmetrical Substitution Manipulates Stacking Modes in 2D Conductive MOF Crystals
Cu3HHTP2 single-crystal device · Single Crystal · Single-crystal device; conductivity calculated from device resistance and cylindrical cross-section assumption.
2025 · Asymmetrical Substitution Manipulates Stacking Modes in 2D Conductive MOF Crystals
Cu3F2HHTP2 single-crystal device · Single Crystal · Autocube attoDRY 2100; 295 to 150 K at 5 K/min; activation energy extracted from linear fit of ln(sigma) versus 1/T.
2025 · Catalysis-Assisted Synthesis of Two-Dimensional Conductive Metal–Organic Framework Films with Controllable Orientation
electrochemical and Pt-only controls · Electrode · 0.3 nm Pt layer on glass without MOF
2025 · Catalysis-Assisted Synthesis of Two-Dimensional Conductive Metal–Organic Framework Films with Controllable Orientation
220 nm edge-on Cu3(HHTP)2 four-probe film · Thin Film · Au contacts; I-V and sigma(T) under ~1e-5 mbar
2025 · Catalysis-Assisted Synthesis of Two-Dimensional Conductive Metal–Organic Framework Films with Controllable Orientation
260 nm face-on Cu3(HHTP)2 four-probe film · Thin Film · Au contacts; I-V and sigma(T) under ~1e-5 mbar
2025 · Conductive metal-organic framework synthesis from metal nanoparticle precursors
Cu3(HITP)2 on paper, 24 h, silver-dag contacts · Electrode · Contacts separated by 0.5 cm on paper sample after 24 h MOF synthesis.
2025 · Conductive metal-organic framework synthesis from metal nanoparticle precursors
Ni3(HITP)2 on paper, 24 h, silver-dag contacts · Electrode · Contacts separated by 0.5 cm on paper sample after 24 h MOF synthesis.
2025 · Conductive Metal–Organic Frameworks Anchoring on V3O7·H2O Nanobelts Toward High-Capacity and Long-Life Zinc-Ion Batteries
Cu-HHTP · Powder · Representative 2D Cu-HHTP conductivity cited from prior reports.
2025 · Conductive MOFs with tailored polarization loss for broadband absorption at ultrathin thickness
CuM-HHTP sample set · Powder · SI Table S2 reports electrical conductivity for CuZn-1, CuZn-2, CuZn-3, CuMn-4, CuCo-5, and CuNi-6.
2025 · Construction of 1D Molecular Conductive Wires Through a Polarized Gene Weaving Strategy for Efficient Electromagnetic Wave Absorption
Pristine CuTBTT-1D powder/ribbon network · Powder · Room-temperature conductivity tested for CuTBTT-1D at different filling densities.
2025 · Construction of 1D Molecular Conductive Wires Through a Polarized Gene Weaving Strategy for Efficient Electromagnetic Wave Absorption
Pristine CuTBTT-2D nanosheets · Powder · Room-temperature conductivity tested for CuTBTT-2D at different filling densities.
2025 · Continuous and reversible tuning of inter-layer spacings in two-dimensional conductive metal organic frameworks
Ga9HHTP4 multi-sample comparison series · Powder · Self-supported MOF pellets in custom-built Swagelok cells under ambient conditions; measurements under pressure capped at 2 MPa.
2025 · Continuous and reversible tuning of inter-layer spacings in two-dimensional conductive metal organic frameworks
Ni6HHTT3 multi-sample comparison series · Powder · Self-supported MOF pellets in custom-built Swagelok cells under ambient conditions.
2025 · Controlling the Spatiotemporal Self-Organization of Stimuli-Responsive Nanocrystals under Out-of-Equilibrium Conditions
2D RD Ni3(HITP)2 interface particles · Powder · 26-31 mg of each zone pressed in 6 mm die at approx. 1050 psi for 20 min; Signatone tungsten carbide four-point probe with 1.25 mm spacing.
2025 · Copper-Based Two-Dimensional Conductive Metal-Organic Framework Thin Films for Ultrasensitive Detection of Perfluoroalkyls in Drinking Water
Cu-HHTP thin-film device exposed to PFOA · Electrode · Keithley 2612 Source Meter; MOF film dipped in water with different levels of PFOA contamination.
2025 · Cu─X Bonds Regulated Conduction and Polarization Loss in Conductive Metal-Organic Framework Under Electromagnetic Field
Pressed-disc Cu3(HHTP)2 for four-probe conductivity · Pellet · RTS-8 four-point probe; powder pressed into discs.
2025 · Cu─X Bonds Regulated Conduction and Polarization Loss in Conductive Metal-Organic Framework Under Electromagnetic Field
Pressed-disc Cu3(HITP)2 for four-probe conductivity · Pellet · RTS-8 four-point probe; powder pressed into discs.
2025 · Cu─X Bonds Regulated Conduction and Polarization Loss in Conductive Metal-Organic Framework Under Electromagnetic Field
Pressed-disc Cu3(THT)2 for four-probe conductivity · Pellet · RTS-8 four-point probe; powder pressed into discs.
2025 · Dirac-cone induced metallic conductivity in Cu3(HHTP)2: high-quality MOF thin films fabricated via ML-driven robotic synthesis
Cu3(HHTP)2 SURMOF with 100 nm lithographic 4-terminal contacts · Thin Film · Linear I(V) at 100 K and 300 K
2025 · Dirac-cone induced metallic conductivity in Cu3(HHTP)2: high-quality MOF thin films fabricated via ML-driven robotic synthesis
Cu3(HHTP)2 SURMOF with 100 nm lithographic 4-terminal contacts · Thin Film · 100 nm contact separation, 40 um channel width, 1.5 nm Cr / 40 nm Au contacts, Keithley 2450; applied currents +/-10 uA
2025 · Dirac-cone induced metallic conductivity in Cu3(HHTP)2: high-quality MOF thin films fabricated via ML-driven robotic synthesis
Cu3(HHTP)2 SURMOF with 100 um shadow-mask Au contact spacing · Thin Film · 100 x 100 um2 Au pads, 100 um contact separation, room temperature, vacuum thermal evaporation contact preparation
2025 · Dirac-cone induced metallic conductivity in Cu3(HHTP)2: high-quality MOF thin films fabricated via ML-driven robotic synthesis
Cu3(HHTP)2 SURMOF with 100 um shadow-mask Au contact spacing · Thin Film · 100 um contact spacing, measured from 100 K to 300 K; activated decrease on cooling
2025 · Dirac-cone induced metallic conductivity in Cu3(HHTP)2: high-quality MOF thin films fabricated via ML-driven robotic synthesis
Cu3(HHTP)2 SURMOF with 15 um contact spacing · Thin Film · Reduced electrode spacing control compared with 100 um device
2025 · Discovery of Dual Ion-Electron Conductivity of Metal-Organic Frameworks via Machine Learning-Guided Experimentation
MOF 1 activated/vacuum-dried pellet · Pellet · Sample activated at 80 deg C for 15 h; conductivities reported at room temperature in Table 3 and at 353 K in text; I-V measured across 297-353 K.
2025 · Discovery of Dual Ion-Electron Conductivity of Metal-Organic Frameworks via Machine Learning-Guided Experimentation
MOF 1 as-synthesised crystals/pellet · Pellet · 40 mg MOF pellet compressed at 2.50 kPa for 4 min; 0.96 cm diameter, 0.10-0.20 cm thickness; Keithley digital multimeter; sigma = L/(RA).
2025 · Discovery of Dual Ion-Electron Conductivity of Metal-Organic Frameworks via Machine Learning-Guided Experimentation
MOF 1 100 mg humidity pellet · Pellet · Relative humidity varied from 30% to 98%; temperature-dependent proton conductivities measured to 353 K at 98% RH.
2025 · Discovery of Dual Ion-Electron Conductivity of Metal-Organic Frameworks via Machine Learning-Guided Experimentation
MOF 2 activated/vacuum-dried pellet · Pellet · Sample activated at 80 deg C for 15 h; conductivities reported at room temperature in Table 3 and at 353 K in text; I-V measured across 297-353 K.
2025 · Discovery of Dual Ion-Electron Conductivity of Metal-Organic Frameworks via Machine Learning-Guided Experimentation
MOF 2 as-synthesised crystals/pellet · Pellet · 40 mg MOF pellet compressed at 2.50 kPa for 4 min; 0.96 cm diameter, 0.10-0.20 cm thickness; Keithley digital multimeter; sigma = L/(RA).
2025 · Discovery of Dual Ion-Electron Conductivity of Metal-Organic Frameworks via Machine Learning-Guided Experimentation
MOF 2 100 mg humidity pellet · Pellet · Relative humidity varied from 30% to 98%; temperature-dependent proton conductivities measured to 353 K at 98% RH.
2025 · Dual-metal sites enable conductive metal-organic frameworks with extraordinary high capacitance for transparent energy storage devices
CuNi-HHTP nanorods · Powder · Pellets pressed at about 1 GPa; conductivity calculated from resistance and thickness.
2025 · Dual-metal sites enable conductive metal-organic frameworks with extraordinary high capacitance for transparent energy storage devices
CuNi-HHTP nanorods · Powder · Sheet resistance of c-MOF electrodes.
2025 · Electrically Conducting Redox-Complementary Dual-Ligand 2D Graphitic MOF with Orthogonal Charge Transport Pathways
CDL-MOF1 pressed pellet · Pellet · Same pellet setup immersed in temperature-controlled sand bath; devices held 30 min at each temperature; Figure S6 shows CDL-MOF1 I-V plots from 298-358 K.
2025 · Electrically Conducting Redox-Complementary Dual-Ligand 2D Graphitic MOF with Orthogonal Charge Transport Pathways
CDL-MOF1 pressed pellet · Pellet · Pressed pellets under ambient conditions; stainless-steel rods with flat round tips radius 0.135 cm; silver paint contacts; L approx 0.02 cm; area 0.057 cm2; 3-5 devices.
2025 · Electrically Conducting Redox-Complementary Dual-Ligand 2D Graphitic MOF with Orthogonal Charge Transport Pathways
Cu3(HHTP)2 pressed pellet · Pellet · Parent Cu3(HHTP)2 pellet measured under the same two-probe conditions as CDL-MOF1.
2025 · Electrically Conducting Redox-Complementary Dual-Ligand 2D Graphitic MOF with Orthogonal Charge Transport Pathways
Cu3(HHTQ)2 pressed pellet · Pellet · Parent Cu3(HHTQ)2 pellet measured under the same two-probe conditions as CDL-MOF1.
2025 · Enhanced conductivity and energy storing performances of 3D bimetallic conductive metal-organic frameworks based on linear π-conjugated thiazole for supercapacitors
NiCo-DPTTZ-MOF powder, ratio not defined · Powder · Pressed under 10 MPa; AC impedance amplitude 10 mV, frequency 100 kHz to 0.01 Hz; conductivity calculated as sigma = L/(R S).
2025 · Enhanced Electrical Conductivity by the Heavy Chalcogen Effect in Metal-Organic Frameworks
Cu-S-HHS pressed pellet · Pellet · 20 mg MOF powder pressed in 8 mm die for 5 min at 20 MPa; four-point linear probe spacing 1.2 mm; variable T 80-350 K.
2025 · Enhanced Electrical Conductivity by the Heavy Chalcogen Effect in Metal-Organic Frameworks
Cu-S-HHS plate device · Single Crystal · Drop-cast rods or Cu-S-HHS plates on Si/SiO2, PMMA/EBL patterning, Ti/Au contacts; resistance used when voltage drop unavailable.
2025 · Enhanced Electrical Conductivity by the Heavy Chalcogen Effect in Metal-Organic Frameworks
Cu-S-HHS rod device · Single Crystal · Drop-cast rods or Cu-S-HHS plates on Si/SiO2, PMMA/EBL patterning, Ti/Au contacts; resistance used when voltage drop unavailable.
2025 · Enhanced Electrical Conductivity by the Heavy Chalcogen Effect in Metal-Organic Frameworks
Cu-Se-HHS pressed pellet · Pellet · 20 mg MOF powder pressed in 8 mm die for 5 min at 20 MPa; four-point linear probe spacing 1.2 mm; variable T 80-350 K.
2025 · Enhanced Electrical Conductivity by the Heavy Chalcogen Effect in Metal-Organic Frameworks
Cu-Se-HHS rod device · Single Crystal · Drop-cast rods or Cu-S-HHS plates on Si/SiO2, PMMA/EBL patterning, Ti/Au contacts; resistance used when voltage drop unavailable.
2025 · Enhanced Electrical Conductivity by the Heavy Chalcogen Effect in Metal-Organic Frameworks
Cu-Te-HHS pressed pellet · Pellet · 20 mg MOF powder pressed in 8 mm die for 5 min at 20 MPa; four-point linear probe spacing 1.2 mm; variable T 80-350 K.
2025 · Enhanced Electrical Conductivity by the Heavy Chalcogen Effect in Metal-Organic Frameworks
Cu-Te-HHS rod device · Single Crystal · Drop-cast rods or Cu-S-HHS plates on Si/SiO2, PMMA/EBL patterning, Ti/Au contacts; resistance used when voltage drop unavailable.
2025 · Enhancing pancreatic cancer ablation efficiency: bipolar IRE with conductive MOF
Ni3(HITP)2@PDA nanoparticles · Powder · Conductivity of Ni3(HITP)2@PDA aqueous dispersions at increasing concentration, read from Fig. 2i.
2025 · Enhancing pancreatic cancer ablation efficiency: bipolar IRE with conductive MOF
Purchased Ni3(HITP)2 powder · Powder · Conductivity of aqueous dispersions of Ni3(HITP)2 and Ni3(HITP)2@PDA at 0-1000 ug/mL, read from SI Fig. S14.
2025 · Enhancing the Electrochemical Energy Storage of Metal-Organic Frameworks: Linker Engineering and Size Optimization
Ni-tdc-bpe pressed pellet · Pellet · ST2722-SD/ST2255; pellet pressure 2-30 MPa
2025 · Enhancing the Electrochemical Energy Storage of Metal-Organic Frameworks: Linker Engineering and Size Optimization
Ni-tdc-bpe(0.5) pressed pellet · Pellet · ST2722-SD/ST2255; pellet pressure 2-30 MPa
2025 · Enhancing the Electrochemical Energy Storage of Metal-Organic Frameworks: Linker Engineering and Size Optimization
Ni-tdc-bpy pressed pellet · Pellet · Electrical resistance measuring system ST2722-SD/ST2255; pellet pressure 2-30 MPa
2025 · Enhancing the Electrochemical Energy Storage of Metal-Organic Frameworks: Linker Engineering and Size Optimization
Ni-tdc-bpy(0.5) pressed pellet · Pellet · ST2722-SD/ST2255; pellet pressure 2-30 MPa
2025 · Fibrous Pb(II)-Based Coordination Polymer Operable as a Photocatalyst and Electrocatalyst for High-Rate, Selective CO2-to-Formate Conversion
MW_x KGF-9/KGF-17 comparison powder series · Powder · Sample on adhesive tape; 5-8 ns pulse, 10 Hz, I0 = 9.1e15 photons cm-2 pulse-1, microwave frequency ca. 9 GHz, power ca. 3 mW.
2025 · Flexible 8 V planar supercapacitors: Unleashing ionic liquid transport via Co/Ni/Mn-MOFs nanorod pore-channel modulation
[EMIM][BF4]/PVDF-HFP gel electrolyte · Unknown · Pure [EMIM][BF4] measured; gel electrolyte prepared with organic solvent reported to have decreased viscosity.
2025 · Flexible conductive metal-organic framework Cu3(HHTP)2 film with high thermoelectric performance for low-grade heat harvesting
Optimised Cu3(HHTP)2/Nylon bending-test film · Thin Film · Film strips bent around a 6 mm diameter rod; conductivity ratio sigma/sigma0 tracked with bending cycles.
2025 · Flexible conductive metal-organic framework Cu3(HHTP)2 film with high thermoelectric performance for low-grade heat harvesting
HP-1 Cu3(HHTP)2/Nylon hot-pressed film · Thin Film · Room-temperature thermoelectric test of HP-1 volume-series film.
2025 · Flexible conductive metal-organic framework Cu3(HHTP)2 film with high thermoelectric performance for low-grade heat harvesting
HP-2 Cu3(HHTP)2/Nylon hot-pressed film · Thin Film · Room-temperature thermoelectric test of HP-2 volume-series film.
2025 · Flexible conductive metal-organic framework Cu3(HHTP)2 film with high thermoelectric performance for low-grade heat harvesting
HP-3 Cu3(HHTP)2/Nylon hot-pressed film at 333 K · Thin Film · Room-temperature thermoelectric test of HP-3, 20 mL film hot pressed at 333 K.
2025 · Flexible conductive metal-organic framework Cu3(HHTP)2 film with high thermoelectric performance for low-grade heat harvesting
Optimised Cu3(HHTP)2/Nylon hot-pressed film at 353 K · Thin Film · Room-temperature thermoelectric test of optimised 20 mL film hot pressed at 353 K.
2025 · Flexible conductive metal-organic framework Cu3(HHTP)2 film with high thermoelectric performance for low-grade heat harvesting
Cu3(HHTP)2/Nylon hot-pressed film at 373 K · Thin Film · Room-temperature thermoelectric test of 20 mL film hot pressed at 373 K.
2025 · Flexible conductive metal-organic framework Cu3(HHTP)2 film with high thermoelectric performance for low-grade heat harvesting
HP-4 Cu3(HHTP)2/Nylon hot-pressed film · Thin Film · Room-temperature thermoelectric test of HP-4 volume-series film.
2025 · Flexible conductive metal-organic framework Cu3(HHTP)2 film with high thermoelectric performance for low-grade heat harvesting
Cu3(HHTP)2 pellet · Pellet · Temperature-dependent thermoelectric measurement of cold-isostatic Cu3(HHTP)2 pellet, with room-temperature PF reported in main text and plotted SI data read approximately from Fig. S3.
2025 · From 0D to 2D: Microwave-assisted synthesis of electrically conductive metal-organic frameworks with controlled morphologies
0D spherical Cu-HHTP powder · Powder · Pressed pellet prepared with approximately 5 mg material in a 5 mm diameter die under 1.5 tons pressure.
2025 · From 0D to 2D: Microwave-assisted synthesis of electrically conductive metal-organic frameworks with controlled morphologies
1D rod-like Cu-HHTP powder · Powder · Pressed pellet prepared with approximately 5 mg material in a 5 mm diameter die under 1.5 tons pressure.
2025 · From 0D to 2D: Microwave-assisted synthesis of electrically conductive metal-organic frameworks with controlled morphologies
2D sheet-like Cu-HHTP powder · Powder · Pressed pellet prepared with approximately 5 mg material in a 5 mm diameter die under 1.5 tons pressure.
2025 · From Rigid to Flexible: Ce-BTC-MOF-Enabled Self-Powered Photodetectors with Record-High Responsivity and Detectivity
Optimised 320 nm Ce-BTC thin film · Thin Film · Ag/Ce-BTC contact check in SI Figure S4.
2025 · From Rigid to Flexible: Ce-BTC-MOF-Enabled Self-Powered Photodetectors with Record-High Responsivity and Detectivity
Ce-BTC thin films on glass, thickness series · Thin Film · Sheet resistance, Hall mobility and carrier concentration measured at room temperature for Ce-BTC films of different thicknesses.
2025 · From Rigid to Flexible: Ce-BTC-MOF-Enabled Self-Powered Photodetectors with Record-High Responsivity and Detectivity
p-Ce-BTC/n-Si self-powered photodetector · Electrode · 0 V bias; monochromatic light 365-1000 nm at 1000 uW cm-2 for spectral response; 365 nm power-density series 100-1000 uW cm-2.
2025 · From Rigid to Flexible: Ce-BTC-MOF-Enabled Self-Powered Photodetectors with Record-High Responsivity and Detectivity
Flexible Ce-BTC/ZnO self-powered photodetector · Electrode · 0 V bias; 365-1000 nm illumination at 1000 uW cm-2; 365 nm power-density series 100-1000 uW cm-2.
2025 · High-resolution structure of Zn3(HOTP)2 (HOTP = hexaoxidotriphenylene), a three-dimensional conductive MOF
Zn3(HOTP)2 pellets pressed under 3, 6, and 9 tons for four-probe conductivity · Pellet · Pressed pellets measured as a function of applied pressing pressure at 3, 6, and 9 tons.
2025 · High-resolution structure of Zn3(HOTP)2 (HOTP = hexaoxidotriphenylene), a three-dimensional conductive MOF
Polycrystalline pressed pellet of Zn3(HOTP)2 for two-contact probe conductivity · Pellet · Home-built two-probe in situ press set-up; linear I-V sweep from -1 to +1 V; Keithley 2450 source meter and Keithley 8608 test leads; ambient atmosphere.
2025 · Highly Porous, Electrically Conductive Two-Dimensional Nickel–Hexaaminodehydrobenzoannulene Frameworks
Ni3(HI12)2 film on interdigitated Au electrodes · Thin Film · air at room temperature and 22% RH in dark; Keithley 236; film conductivities calculated from R, gap width 5 um, electrode length 6.76 mm and 499 gaps
2025 · Highly Porous, Electrically Conductive Two-Dimensional Nickel–Hexaaminodehydrobenzoannulene Frameworks
Ni3(HI18)2 film on interdigitated Au electrodes · Thin Film · air at room temperature and 22% RH in dark; Keithley 236; film conductivities calculated from R, gap width 5 um, electrode length 6.76 mm and 499 gaps
2025 · Highly Porous, Electrically Conductive Two-Dimensional Nickel–Hexaaminodehydrobenzoannulene Frameworks
Ni3(HITP)2 film on interdigitated Au electrodes · Thin Film · air at room temperature and 22% RH in dark; Keithley 236; film conductivities calculated from R, gap width 5 um, electrode length 6.76 mm and 499 gaps
2025 · Highly Porous, Electrically Conductive Two-Dimensional Nickel–Hexaaminodehydrobenzoannulene Frameworks
Ni3(HI12)2 pressed pellet · Pellet · air at room temperature and 30% RH; Keithley 2401; pellet cross-sectional area 0.385 cm2
2025 · Highly Porous, Electrically Conductive Two-Dimensional Nickel–Hexaaminodehydrobenzoannulene Frameworks
Ni3(HI18)2 pressed pellet · Pellet · air at room temperature and 30% RH; Keithley 2401; pellet cross-sectional area 0.385 cm2
2025 · Highly Porous, Electrically Conductive Two-Dimensional Nickel–Hexaaminodehydrobenzoannulene Frameworks
Ni3(HITP)2 pressed pellet · Pellet · air at room temperature and 30% RH; Keithley 2401; pellet cross-sectional area 0.385 cm2
2025 · Highly sensitive electrochemiluminescence glucose sensor under alkaline conditions based on glucose oxidase@conductive metal-organic framework nanocapsules
Zn-HHTP framework component in GOx@Zn-HHTP · Unknown · Paper identifies the carrier as a conductive MOF nanocapsule and cites prior conductive-MOF work; no conductivity value is reported for this sample.
2025 · Interconnected Lamellar 3D Semiconductive PCP for Rechargeable Aqueous Zinc Battery Cathodes
Pressed VO-HHTP pellet · Pellet · Pressed pellet measured at 25-80 C; equivalent circuit with parallel C1 and R1.
2025 · Interconnected Lamellar 3D Semiconductive PCP for Rechargeable Aqueous Zinc Battery Cathodes
Pressed VO-HHTP pellet · Pellet · I-V curves from -1 V to 1 V at 2 mV s-1; conductivity calculated by Ohm law and pellet geometry.
2025 · Ligand engineering of Co-MOF-74 with hexaaminotriphenylene for enhanced oxygen reduction reaction in zinc-air batteries
Co-MOF-74-HATP powder · Powder · No standalone conductivity measurement geometry or numeric conductivity is reported; authors infer improved conductivity from HATP electronic effects, graphitisation and lower electrochemical charge resistance.
2025 · Ligand-Insertion Strategy for Constructing 2D Conjugated Metal–Organic Framework with Large Pore Size for Electrochemical Analytics
Pressed pellet of Cu3(HHTP)(DHBQ)1.5/1.53 powder · Pellet · RMS-1000 temperature resistance tester; pressed pellet area 30 mm2, thickness 0.2 mm; conductivity measured from 10 to 80 deg C.
2025 · Metal-Organic Framework-Based Tribovoltaic Textile for Human Body Signal Monitoring
Cu-BHT cotton · Thin Film · Cu-BHT cotton after modification and drying
2025 · Metal-Organic Framework-Based Tribovoltaic Textile for Human Body Signal Monitoring
Cu-BHT TVT · Electrode · Cu-BHT cotton connected to working electrode and Al fabric to ground; voltage swept from -2 V to +2 V
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Ni-HITP nanoparticles (Ni-HITP NPs) · Powder · Powder conductivity measured at 30 MPa.
2025 · Micro-sized conductive metal–organic framework nanosheets for the electrochemical hydrogen evolution reaction in acidic media
Ni-HITP nanosheets (Ni-HITP NSs) · Nanosheet · Powder conductivity measured at 30 MPa.
2025 · Mixed Ionic and Electronic Conductivity in a Tetrathiafulvalene-Phosphonate Metal-Organic Framework
Pressed TTFTP-La pellet for electronic conductivity · Pellet · 296 K, ambient atmosphere, 60% RH; linear I-V curve measured in dark probe-station chamber.
2025 · Mixed Ionic and Electronic Conductivity in a Tetrathiafulvalene-Phosphonate Metal-Organic Framework
Pressed TTFTP-La pellet for electronic conductivity · Pellet · 250-400 K under high vacuum approximately 10^-5 Torr; temperature controlled by heater and liquid nitrogen flow.
2025 · Mixed Ionic and Electronic Conductivity in a Tetrathiafulvalene-Phosphonate Metal-Organic Framework
Pressed TTFTP-La pellet for proton conductivity · Pellet · Pellets equilibrated 3 h at 35%, 65% or 95% RH; 298-333 K; 100 mV sine amplitude; 500 kHz to 500 Hz.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
H12-Al2-(DOBDP)3 (_d) · Powder · Fully dehydrated Al-MOF measured at 293 K; electronic conductivity reported.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
H12-Al2-(DOBDP)3.12H2O (_h) powder · Powder · Hydrated Al-MOF measured at 293 K and 31% RH; proton conductivity reported, electronic conductivity absent/not detected.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
H12-Al2-(DOBDP)3.8H2O (_ph) · Powder · Partially hydrated Al-MOF measured at 293 K and 31% RH; proton conductivity reported.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
H12-Fe2-(DOBDP)3 (_d) · Powder · Fully dehydrated Fe-MOF measured at 293 K; electronic conductivity reported.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
H12-Fe2-(DOBDP)3.12H2O (_h) powder · Powder · 40 mg powder pellet, 7 mm diameter, cold pressed at 2 T between carbon-coated aluminium foils; PEIS 7 MHz to 10 mHz, 200 mV; 293 K and 31% RH.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
H12-Fe2-(DOBDP)3.3H2O (_pd) · Powder · Partially dehydrated Fe-MOF measured at 293 K; electronic conductivity reported.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
H12-Fe2-(DOBDP)3.7H2O (_ph) · Powder · Same two-probe pressed-pellet geometry as hydrated Fe sample; 293 K and 31% RH.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
H12-In2-(DOBDP)3.18H2O (_h) · Powder · Hydrated In-MOF at 293 K, 20 deg C and 31% RH as reported in Table S7 context.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
H12-Sc2-(DOBDP)3.18H2O (_h) · Powder · Hydrated Sc-MOF at 293 K, 20 deg C and 31% RH as reported in Table S7 context.
2025 · Mixed proton-electron conductivity in a dynamic 3D metal-organic framework
H12-(Fe-Al-Sc-In)2-(DOBDP)3_h · Powder · Hydrated tetrametallic MOF at 293 K, 20 deg C and 31% RH as reported in Table S7 context.
2025 · Modulating the redox states in a 3D conductive MOF for sweat ascorbic acid monitoring
I2@FeTHQ, 20 C 6 h · Powder · Four-probe method on ST-2258C; comparison with 3D MOF literature
2025 · Modulating the redox states in a 3D conductive MOF for sweat ascorbic acid monitoring
I2@FeTHQ/FP paper sensor · Thin Film · Electrical conductivity tracked over 0-300 bending cycles
2025 · Morphological control of a metal-organic framework for single-crystal electronic device fabrication
H4TTFTB single crystals · Single Crystal · 10 H4TTFTB crystals measured; representative I-V and conductivity distribution reported in Fig. S15
2025 · Morphological control of a metal-organic framework for single-crystal electronic device fabrication
Zn-9 two-contact single-crystal electronic device · Electrode · Voltage scanned -0.1 to 0.1 V in 1 mV steps using Keithley 2636B; 15 devices
2025 · Morphological control of a metal-organic framework for single-crystal electronic device fabrication
pressed pellet of Zn-9 · Pellet · Home-built pressed pellet instrument; 0.3 cm diameter, 0.31 cm thickness; Keithley 4200A-SCS; I-V at 297 K
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
as-synthesised Ni-COF powder/precipitate · Powder · room-temperature four-point probe method
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
Ni-COF@PP composite separator · Thin Film · electrolyte-soaked SS | separator | SS cells, EIS 10^6 to 0.01 Hz
2025 · Multifunctional covalent organic framework with extended π-d conjugated structure for lithium-sulfur batteries
commercial PP separator control · Thin Film · electrolyte-soaked SS | separator | SS cells, EIS 10^6 to 0.01 Hz
2025 · Multilevel Chiral Semiconductor Metal-Peptide Framework Thin Film for Highly Circularly Polarized Visible Photodetection
CAS-4 thin film-based Au photodetector · Electrode · Dark I-V curve of CAS-4 photodetector device; voltage swept to 10 V.
2025 · Multilevel Chiral Semiconductor Metal-Peptide Framework Thin Film for Highly Circularly Polarized Visible Photodetection
Highly oriented CAS-4 thin film grown for 20 LPE-LBL cycles · Thin Film · Lake Shore M91; DC field Hall effect; start/end source voltage 1/-1 V; excitation source voltage 1 V; magnetic field 800 mT; sample dimensions 10 x 10 mm2 with silver paste contacts.
2025 · Multilevel Chiral Semiconductor Metal-Peptide Framework Thin Film for Highly Circularly Polarized Visible Photodetection
CAS-4 thin film-based Au photodetector · Electrode · CAS-4 thin-film device under unpolarised light; wavelength scan 200-800 nm and I-V under 600 nm illumination at 77.82 uW cm^-2.
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Cu-HATC pressed pellet · Pellet · Conductivity fitted to sigma = sigma0 exp(-Ea/kBT)
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Cu-HATC pressed pellet · Pellet · Pressed pellet under identical conditions to Ni-HATC
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Cu-HHTC pressed pellet · Pellet · Conductivity fitted to sigma = sigma0 exp(-Ea/kBT)
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Cu-HHTC pressed pellet · Pellet · Pressed pellet structural analog comparison
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Ni-HATC pressed pellet · Pellet · Pressed pellet; approximately 5 mg in 5 mm die under 1.5 tons; no binder/additive
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Ni-HATC pressed pellet · Pellet · Temperature-dependent four-point-probe conductivity profile of pressed pellet; exact points only plotted
2025 · Nanoporous synthetic metal: A nickel MOF with an amino-functionalized macrocyclic ligand
Ni-HATC thin film on glass · Thin Film · Thin film; no binder or conducting additive; thickness by surface profilometer
2025 · Operando Raman and ex situ characterization of an iron-based conductive MOF as a negative electrode in Li-ion batteries
Fe-HHTP powder pellet in Swagelok two-probe cell · Pellet · Fe-HHTP powder between stainless steel current collectors of Swagelok cell; EIS 1e6 to 1e-2 Hz; 1 V applied; 226 MPa pressure; Randles equivalent circuit; sigma = l/(R*A).
2025 · Photoactivated conductive MOF thin film arrays on micro-LEDs for chemiresistive gas sensing
CuHHTP-5C · Thin Film · Non-emissive sensors measured in gas-sensing chamber; dry air stabilisation; DAQ970A multimeter.
2025 · Promoting electromagnetic wave absorption for conductive metal-organic frameworks through crystal morphology controlling
Ni-TABQ-1 black crystalline powder · Powder · Conductivity of as-prepared Ni-TABQ-1 sample.
2025 · Promoting electromagnetic wave absorption for conductive metal-organic frameworks through crystal morphology controlling
Ni-TABQ-2 black powder · Powder · Conductivity of as-prepared Ni-TABQ-2 sample.
2025 · Proton Conductive Metal-Organic Framework Encapsulating Emissive Hexacyanidochromate(III) Ions for Ratiometric and Lifetime-Based Detection of Humidity and Temperature
1a proton-conductivity pellet with Au contacts · Pellet · Nyquist plots for 1a pellet at 25 C under 90% and 95% RH; BioLogic MTZ-35, 10 MHz-0.1 Hz, 100 mV amplitude.
2025 · Proton-electron coupling and mixed conductivity in a hydrogen-bonded coordination polymer
Ni-BAND thin film · Thin Film · Ambient conditions; 25 C and 50% RH.
2025 · Proton-electron coupling and mixed conductivity in a hydrogen-bonded coordination polymer
Ni-BAND gel memristor device · Electrode · I-V under ambient/humidified and dry Ar conditions; sweep range -30 V to 30 V for pinched hysteresis.
2025 · Proton-electron coupling and mixed conductivity in a hydrogen-bonded coordination polymer
Ni-BAND thin film · Thin Film · Electrical conductivities measured at 298 K across RH levels; source data gives 0, 25, 50, and 75% RH.
2025 · Proton-electron coupling and mixed conductivity in a hydrogen-bonded coordination polymer
Ni-BAND thin-film Au-electrode device · Electrode · +/-2 V range on Ni-BAND film on SiO2/Si substrate with Au electrodes.
2025 · Proton-electron coupling and mixed conductivity in a hydrogen-bonded coordination polymer
Ni-BAND thin film · Thin Film · Electronic characterisation to evaluate n-type doping and shallow-donor behaviour.
2025 · Proton-electron coupling and mixed conductivity in a hydrogen-bonded coordination polymer
Ni-BAND thin-film Au-electrode device · Electrode · Arrhenius plot of proton conductivity; linear fit follows Nernst-Einstein equation.
2025 · Rational Design of Conductive MOF-Based Diatomic Electrocatalysts for Selective Ammonia Synthesis
Cu99Ni1-DBCO · Powder · Conditions not specified in SI table; reported as bulk sample conductivity.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Pressed pellet of Cd2(TTFTB) · Pellet · Pressed pellets measured at 298 K in humid air; I-V -0.1 to 0.1 V; EIS 8 kHz to 0.1 Hz.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Cd2(TTFTB) single-crystal two-contact device with Au wires/carbon paste · Single Crystal · I-V from -0.1 to 0.1 V; EIS AC amplitude 500 mV; atmospheres humid N2, dry N2, humid air, dry air; room temperature.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Cd2(TTFTB) single-crystal two-contact device with Au wires/carbon paste · Single Crystal · 293 to 353 K with 5 or 10 K steps in humid N2 then dry N2; each temperature held 30 min; Ea fitted from DC conductivity-temperature relation.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Pressed pellet of Co2(TTFTB) · Pellet · Pressed pellets measured at 298 K in humid air; I-V -0.1 to 0.1 V; EIS 8 kHz to 0.1 Hz.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Co2(TTFTB) single-crystal two-contact device with Au wires/carbon paste · Single Crystal · I-V from -0.1 to 0.1 V; EIS AC amplitude 500 mV; atmospheres humid N2, dry N2, humid air, dry air; room temperature.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Co2(TTFTB) single-crystal two-contact device with Au wires/carbon paste · Single Crystal · 293 to 353 K with 5 or 10 K steps in humid N2 then dry N2; each temperature held 30 min; Ea fitted from DC conductivity-temperature relation.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Pressed pellet of Mn2(TTFTB) · Pellet · Pressed pellets measured at 298 K in humid air; I-V -0.1 to 0.1 V; EIS 8 kHz to 0.1 Hz.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Mn2(TTFTB) single-crystal two-contact device with Au wires/carbon paste · Single Crystal · I-V from -0.1 to 0.1 V; EIS AC amplitude 500 mV; atmospheres humid N2, dry N2, humid air, dry air; room temperature.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Mn2(TTFTB) single-crystal two-contact device with Au wires/carbon paste · Single Crystal · 293 to 353 K with 5 or 10 K steps in humid N2 then dry N2; each temperature held 30 min; Ea fitted from DC conductivity-temperature relation.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Pressed pellet of Mn2(TTFTB) · Pellet · Pressed pellets measured at 298 K in humid air; I-V -0.1 to 0.1 V; EIS 8 kHz to 0.1 Hz.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Mn2(TTFTB) single-crystal two-contact device with Au wires/carbon paste · Single Crystal · I-V from -0.1 to 0.1 V; EIS AC amplitude 500 mV; atmospheres humid N2, dry N2, humid air, dry air; room temperature.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Mn2(TTFTB) single-crystal two-contact device with Au wires/carbon paste · Single Crystal · 293 to 353 K with 5 or 10 K steps in humid N2 then dry N2; each temperature held 30 min; Ea fitted from DC conductivity-temperature relation.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Pressed pellet of Zn2(TTFTB) · Pellet · Pressed pellets measured at 298 K in humid air; I-V -0.1 to 0.1 V; EIS 8 kHz to 0.1 Hz.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Zn2(TTFTB) micro/nanofabricated single-crystal device with sputtered Pt electrodes · Single Crystal · Humid air at 298 K; Pt electrodes intended to block proton conduction and interfacial redox reactions.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Zn2(TTFTB) single-crystal two-contact device with Au wires/carbon paste · Single Crystal · I-V from -0.1 to 0.1 V; EIS AC amplitude 500 mV; atmospheres humid N2, dry N2, humid air, dry air; room temperature.
2025 · Screening-Enabled Chemiresistive Moisture Sensing with Tetrathiafulvalene-Based Electrically Conductive Metal–Organic Frameworks
Zn2(TTFTB) single-crystal two-contact device with Au wires/carbon paste · Single Crystal · 293 to 353 K with 5 or 10 K steps in humid N2 then dry N2; each temperature held 30 min; Ea fitted from DC conductivity-temperature relation.
2025 · Selenium-Substitution Strategy for Enhanced Mobility, Tunable Bandgap, and Improved Electrochemical Energy Storage in Semiconducting Conjugated Coordination Polymers
Ag4TSHQ pressed pellet · Pellet · Pressed pellet; temperature controlled by CTI Cryogenics refrigerator; ambient-temperature value highlighted.
2025 · Selenium-Substitution Strategy for Enhanced Mobility, Tunable Bandgap, and Improved Electrochemical Energy Storage in Semiconducting Conjugated Coordination Polymers
Ag4TXHQ-1:1 powder · Powder · Temperature-dependent conductivity for Ag4TXHQ species, Figure S10.
2025 · Semiconducting Manganese-Bipyridyl Coordination Polymer via a Manganese-Metal-Nanoparticle Approach
Pressed pellet of purified 1 · Pellet · Current-voltage characteristic measured from 2.5 to 16.5 V at room temperature inside a glovebox after manually separated crystals were rinsed, dried, mortared, and pressed.
2025 · Semiconductive Coordination Polymer with Multi-Channel Charge Transfer for High-Performance Direct X-ray Detection
Ag/1/Ag pellet detector device · Pellet · Room temperature; vacuum sample chamber about 2 Pa; pellet size 3.0 x 3.0 mm2 and thickness 0.50 mm shown in Figure 3c inset.
2025 · Semiconductive Coordination Polymer with Multi-Channel Charge Transfer for High-Performance Direct X-ray Detection
Ag/1/Ag pellet detector device · Pellet · Pellet sample; Figure 3c inset reports 3.0 x 3.0 mm2 size and 0.50 mm thickness.
2025 · Solvent-Directed Assembly of π-Stacked 3D Metal-Organic Frameworks with Tunable Conductivity Enhanced by C60 Encapsulation
NU-4000 · Single Crystal · isolated single crystals measured at 296 K in ambient air
2025 · Solvent-Directed Assembly of π-Stacked 3D Metal-Organic Frameworks with Tunable Conductivity Enhanced by C60 Encapsulation
NU-4001 · Single Crystal · isolated single crystals measured at 296 K in ambient air
2025 · Solvent-Directed Assembly of π-Stacked 3D Metal-Organic Frameworks with Tunable Conductivity Enhanced by C60 Encapsulation
NU-4002 · Single Crystal · isolated single crystals measured at 296 K in ambient air
2025 · Solvent-Directed Assembly of π-Stacked 3D Metal-Organic Frameworks with Tunable Conductivity Enhanced by C60 Encapsulation
NU-4003 · Single Crystal · isolated single crystals measured at 296 K in ambient air
2025 · Solvent-Directed Assembly of π-Stacked 3D Metal-Organic Frameworks with Tunable Conductivity Enhanced by C60 Encapsulation
NU-4003-C60-0.25 · Single Crystal · isolated single crystals measured at 296 K in ambient air
2025 · Solvent-Directed Assembly of π-Stacked 3D Metal-Organic Frameworks with Tunable Conductivity Enhanced by C60 Encapsulation
NU-4003-C60-0.36 · Single Crystal · isolated single crystals measured at 296 K in ambient air
2025 · Solvent-Directed Assembly of π-Stacked 3D Metal-Organic Frameworks with Tunable Conductivity Enhanced by C60 Encapsulation
NU-4003-C60-0.54 · Single Crystal · isolated single crystals measured at 296 K in ambient air
2025 · Solvent-Directed Assembly of π-Stacked 3D Metal-Organic Frameworks with Tunable Conductivity Enhanced by C60 Encapsulation
NU-4003-C60 · Single Crystal · isolated single crystals measured at 296 K in ambient air
2025 · Structural Control of Photoconductivity in a Flexible Titanium-Organic Framework
single-crystal MUV-35-c two-probe device · Electrode
2025 · Structure-directing effect of terephthalate in bridging Zn(ii)- and Cd(ii)-based coordination polymers towards application in the detection of trace quantities of Pd2+ in aqueous media and their electrical conductivities
ITO/CP1/Al Schottky diode · Thin Film · ITO/CP1/Al measured using Keithley 2635B at room temperature (303 K), applied bias +/-1 V under dark conditions; Al deposited at 10^-6 Torr through shadow mask.
2025 · Structure-directing effect of terephthalate in bridging Zn(ii)- and Cd(ii)-based coordination polymers towards application in the detection of trace quantities of Pd2+ in aqueous media and their electrical conductivities
ITO/CP2/Al Schottky diode · Thin Film · ITO/CP2/Al measured using Keithley 2635B at room temperature (303 K), applied bias +/-1 V under dark conditions; Al deposited at 10^-6 Torr through shadow mask.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-W · Powder · Conductivity calculated using sigma = (1/R) x (L/A), where R is charge-transfer resistance, L rod length, A cross-sectional area.
2025 · Tailoring of electrocatalytic oxygen evolution reaction performance of 2D conductive Co-catecholate metal-organic frameworks
Co-CAT-WO · Powder · Conductivity calculated using sigma = (1/R) x (L/A), where R is charge-transfer resistance, L rod length, A cross-sectional area.
2025 · Tuning the dxy Orbital Energy Level in 2D Cobalt-Organic-Framework via in-Plane Conjugated Phthalocyanine for Self-Powered Sensing
2D MOF@Pc/DNH · Unknown · Comparison of 3D MOF/DNH, 3D MOF@Pc/DNH, 2D MOF/DNH and 2D MOF@Pc/DNH; method details not specified beyond conductivity reporting.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
Guest-removed d-MOF1 · Powder · Guest-removed d-MOF pellet measured at 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
Guest-removed d-MOF2 · Powder · Guest-removed d-MOF pellet measured at 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
Guest-removed d-MOF3 · Powder · Guest-removed d-MOF pellet measured at 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
Guest-removed d-MOF4 · Powder · Guest-removed d-MOF pellet measured at 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
Guest-removed d-MOF5 · Powder · Guest-removed d-MOF pellet measured at 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
Guest-removed d-MOF6 · Powder · Guest-removed d-MOF pellet measured at 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
Guest-removed d-MOF7 · Powder · Guest-removed d-MOF pellet measured at 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
Guest-removed d-MOF8 · Powder · Guest-removed d-MOF pellet measured at 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
Guest-removed d-MOF9 · Powder · Guest-removed d-MOF pellet measured at 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF1-MOF9 bulk series · Powder · I-V curves for MOF1-MOF9 recorded at 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF1 · Powder · Keithley 2450 source meter; pellets 1.3 cm diameter and 2 mm thick; 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF1 · Powder · Representative I-V measurements at 30, 40 and 50 deg C; activation energy tabulated.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF2 · Powder · Keithley 2450 source meter; pellets 1.3 cm diameter and 2 mm thick; 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF3 · Powder · Keithley 2450 source meter; pellets 1.3 cm diameter and 2 mm thick; 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF3 · Powder · Representative I-V measurements at 30, 40 and 50 deg C; activation energy tabulated.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF4 · Powder · Keithley 2450 source meter; pellets 1.3 cm diameter and 2 mm thick; 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF5 · Powder · Keithley 2450 source meter; pellets 1.3 cm diameter and 2 mm thick; 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF6 · Powder · Keithley 2450 source meter; pellets 1.3 cm diameter and 2 mm thick; 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF7 · Powder · Keithley 2450 source meter; pellets 1.3 cm diameter and 2 mm thick; 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF8 · Powder · Keithley 2450 source meter; pellets 1.3 cm diameter and 2 mm thick; 25 deg C under 60% humidity.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF8 · Powder · Representative I-V measurements at 30, 40 and 50 deg C; activation energy tabulated.
2025 · Tuning the Electrical Conductivity of Bimetallic Co–Mn-Based MOFs via Precisely Regulating the Atomic Content of Metal Centers and Study on Their Dye Adsorption Properties
As-synthesised MOF9 · Powder · Keithley 2450 source meter; pellets 1.3 cm diameter and 2 mm thick; 25 deg C under 60% humidity.
2025 · Tuning the Structure-Property Relationships of Metallophthalocyanine-Based Two-Dimensional Conductive Metal-Organic Frameworks with Different Metal Linkages
CuPc-O-Cu pressed pellet · Pellet · 25-30 mg samples pressed into 6 x 6 mm pellets for 10 min at about 800 psi; four 25 um Au wire contacts with carbon paste; room-temperature conductivity from three synthetic batches.
2025 · Tuning the Structure-Property Relationships of Metallophthalocyanine-Based Two-Dimensional Conductive Metal-Organic Frameworks with Different Metal Linkages
CuPc(OH)8 pressed pellet · Pellet · Same pelletised four-contact probe method as MOF samples; room-temperature value reported in Table S8.
2025 · Tuning the Structure-Property Relationships of Metallophthalocyanine-Based Two-Dimensional Conductive Metal-Organic Frameworks with Different Metal Linkages
CuPc-O-Ni pressed pellet · Pellet · 25-30 mg samples pressed into 6 x 6 mm pellets for 10 min at about 800 psi; four 25 um Au wire contacts with carbon paste; room-temperature conductivity from three synthetic batches.
2025 · Tuning the Structure-Property Relationships of Metallophthalocyanine-Based Two-Dimensional Conductive Metal-Organic Frameworks with Different Metal Linkages
CuPc-O-Zn pressed pellet · Pellet · 25-30 mg samples pressed into 6 x 6 mm pellets for 10 min at about 800 psi; four 25 um Au wire contacts with carbon paste; room-temperature conductivity from three synthetic batches.
2025 · Tuning the Structure-Property Relationships of Metallophthalocyanine-Based Two-Dimensional Conductive Metal-Organic Frameworks with Different Metal Linkages
CuPc-O-Cu pressed pellet · Pellet · Measured in Quantum Design PPMS Dynacool liquid He cryostat; temperature varied from 300 K to 180 K at 2.5 K min-1; resistance measured every 2.5 K; Arrhenius fit for activation energy.
2025 · Tuning the Structure-Property Relationships of Metallophthalocyanine-Based Two-Dimensional Conductive Metal-Organic Frameworks with Different Metal Linkages
CuPc-O-Ni pressed pellet · Pellet · Measured in Quantum Design PPMS Dynacool liquid He cryostat; temperature varied from 300 K to 180 K at 2.5 K min-1; resistance measured every 2.5 K; Arrhenius fit for activation energy.
2025 · Tuning the Structure-Property Relationships of Metallophthalocyanine-Based Two-Dimensional Conductive Metal-Organic Frameworks with Different Metal Linkages
CuPc-O-Zn pressed pellet · Pellet · Measured in Quantum Design PPMS Dynacool liquid He cryostat; temperature varied from 300 K to 180 K at 2.5 K min-1; resistance measured every 2.5 K; Arrhenius fit for activation energy.
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
Cu-1EG pristine powder · Powder · room temperature, ambient atmosphere; averaged replicate measurements
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
Cu-2EG pristine powder · Powder · room temperature, ambient atmosphere; averaged replicate measurements
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
Cu-nBu pristine powder · Powder · room temperature, ambient atmosphere; averaged replicate measurements
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
Ni-1EG pristine powder · Powder · room temperature, ambient atmosphere; averaged replicate measurements
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
Ni-1EG pristine powder · Powder · seasonal replicate comparison in Cambridge, MA
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
Ni-2EG pristine powder · Powder · room temperature, ambient atmosphere; averaged replicate measurements
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
Ni-nBu pristine powder · Powder · room temperature, ambient atmosphere; averaged replicate measurements
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
LiTFSI-Ni-1EG · Powder · LiTFSI-loaded powder pressed as pellet; Ar-filled glovebox; 100 mV, 10 mHz-500 kHz EIS
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
LiTFSI-Ni-2EG · Powder · LiTFSI-loaded powder pressed as pellet; Ar-filled glovebox; 100 mV, 10 mHz-500 kHz EIS
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
LiTFSI-Ni-nBu · Powder · LiTFSI-loaded powder pressed as pellet; Ar-filled glovebox; 100 mV, 10 mHz-500 kHz EIS
2025 · Turning 2D MOFs into Mixed Ionic-Electronic Conductors via Side Chain Engineering
LiTFSI-Ni-1EG · Powder · Ni-2EG Li/Ni ratio set to 1; conductivities divided by normalised uptake ratio
2025 · Two dimensional Conjugated Metal–Organic Frameworks with Multiple Redox-Active Sites towards High-Performance Sodium-Ion Battery
Cu-DDQP pellet for two-probe conductivity · Pellet · Keithley 4200-SCS source meter; voltage sweep -1.0 to 1.0 V at room temperature.
2025 · Two dimensional Conjugated Metal–Organic Frameworks with Multiple Redox-Active Sites towards High-Performance Sodium-Ion Battery
Cu-TBPQ pellet for two-probe conductivity · Pellet · Keithley 4200-SCS source meter; voltage sweep -1.0 to 1.0 V at room temperature.
2025 · Two dimensional Conjugated Metal–Organic Frameworks with Multiple Redox-Active Sites towards High-Performance Sodium-Ion Battery
Cu-TTPQ pellet for two-probe conductivity · Pellet · Keithley 4200-SCS source meter; voltage sweep -1.0 to 1.0 V at room temperature.
2025 · Two-dimensional conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-TCHT@Maxsorb · Electrode · Electrical conductivity of Cu-TCHT and Cu-BHT loaded on Maxsorb; plotted current versus voltage.
2025 · Two-dimensional conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-TCHT Sample A · Pellet · Compressed pellet, 3 mm-diameter pellet mould, Agilent E5291A SMU/E5260A mainframe; measured at 20 deg C.
2025 · Two-dimensional conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-TCHT Sample B · Pellet · Compressed pellet, measured in Ar-filled glovebox.
2025 · Two-dimensional conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-TCHT Sample C · Pellet · Compressed pellet after vacuum activation at 120 deg C for 24 h; measured in glovebox.
2025 · Two-dimensional conductive metal-organic framework with 2,3,6,7,14,15-triptycenehexathiol (TCHT) ligand: synthesis, structure, electrical conductivity and CO2RR activity
Cu-TCHT Sample D · Pellet · Compressed pellet after one day air exposure.
2025 · Uninterrupted π-d Conjugated Three-Dimensional Conductive Metal-Organic Framework
Rectangular Ni3HBC pellet for electrical and thermal transport · Pellet · High-vacuum cryostat (10^-6 torr); voltage difference measured between copper thermocouple wires while applying AC current through side wires; representative I-V curve measured by four-point probe.
2025 · Unraveling the Electrical, Dielectric, and Electrocatalytic Properties of Bimetallic Cobalt-Based Metal–Organic Frameworks
Co-BTC cold-pressed pellet · Pellet · Graphite paste contacts; vacuum 10^-7 bar; HP 4284L LCR meter; 10 kHz to 500 kHz.
2025 · Unraveling the Electrical, Dielectric, and Electrocatalytic Properties of Bimetallic Cobalt-Based Metal–Organic Frameworks
Mn-BTC cold-pressed pellet · Pellet · Conductive graphite paste contacts on opposite pellet faces; ARS cryostat evacuated to 10^-7 bar; HP 4284L LCR meter; 10 kHz to 500 kHz.
2025 · Unraveling the Electrical, Dielectric, and Electrocatalytic Properties of Bimetallic Cobalt-Based Metal–Organic Frameworks
1:2 Mn:Co cold-pressed pellet · Pellet · Graphite paste contacts; vacuum 10^-7 bar; HP 4284L LCR meter; 10 kHz to 500 kHz.
2025 · Unveiling high-mobility hot carriers in a two-dimensional conjugated coordination polymer
large-area Cu3BHT film on fused silica · Thin Film · Commercial Physical Property Measurement System; AC lock-in method at 17.777 Hz using Stanford Research System 830 lock-in amplifier source meter; variable temperature 2-300 K.
2024 · 2D Conductive Metal-Organic Frameworks Based on Tetraoxa[8]circulenes as Promising Cathode for Aqueous Zinc Ion Batteries
Cu-TOC black powder / pressed pellet · Powder · Pressed pellet measured from 298 K to 403 K using a Keithley 2002 multimeter.
2024 · 2D Conductive Metal-Organic Frameworks Based on Tetraoxa[8]circulenes as Promising Cathode for Aqueous Zinc Ion Batteries
Mn-TOC black powder / pressed pellet · Powder · Pressed pellet measured from 298 K to 403 K using a Keithley 2002 multimeter.
2024 · 2D Conductive Metal-Organic Frameworks Based on Tetraoxa[8]circulenes as Promising Cathode for Aqueous Zinc Ion Batteries
Zn-TOC black powder / pressed pellet · Powder · Pressed pellet measured from 298 K to 403 K using a Keithley 2002 multimeter.
2024 · A novel pencil graphite electrode modified with an iron-based conductive metal-organic framework exhibited good ability in simultaneous sensing bisphenol A and bisphenol S
Fe-HHTP powder · Powder · Electrical conductivity of Fe-HHTP determined by M4PP; pressure dependence plotted in Fig. 2C.
2024 · A Triptycene-Based Layered/Flower-Like 2D Conductive Metal–Organic Framework with 3D Extension as an Electrode for Efficient Li Storage
Pressed M-DBH conductivity films with evaporated Au · Thin Film · 30 mg pressed film in 16 mm die, 8 MPa, Au layer on glass; electrical conductivity measured at 298 K.
2024 · Acid-Dependent Charge Transport in a Solution-Processed 2D Conductive Metal-Organic Framework
Cu3(HHTATP)2 proton-doped spin-coated thin film · Thin Film · Three cycles of proton removal and proton doping on a Cu3(HHTATP)2 thin film; PXRD checked after cycling.
2024 · Acid-Dependent Charge Transport in a Solution-Processed 2D Conductive Metal-Organic Framework
Cu3(HHTATP)2 proton-doped spin-coated thin film · Thin Film · Cr/Au electrodes with 30 um spacing; film conductivity calculated using sigma = (dI/dV) x ln2/(pi t).
2024 · Acid-Dependent Charge Transport in a Solution-Processed 2D Conductive Metal-Organic Framework
Cu3(HHTATP)2 rod pellet device · Pellet · Powders pressed at approximately 0.37 GPa for 10 min; Cr/Au 5/95 nm electrodes; pellet probe spacing 50 um.
2024 · Acid-Dependent Charge Transport in a Solution-Processed 2D Conductive Metal-Organic Framework
Cu3(HHTATP)2 proton-doped spin-coated thin film · Thin Film · High-temperature range; Arrhenius-type analysis of proton-doped and proton-removed films.
2024 · Aliovalent Substitution Tunes Physical Properties in a Conductive Bis(dithiolene) Two-Dimensional Metal-Organic Framework
Ni3(THT)2 pressed pellet for four-probe and Seebeck measurements · Pellet · custom probe station in argon glovebox; forward and reverse Seebeck scans; geometry correction for conductivity and Seebeck
2024 · Chromone-Based Cd(II) Fluorescent Coordination Polymer Fabricated to Study Optoelectronic and Explosive Sensing Properties
CSD1 thin-film Schottky device from CP1 · Thin Film · Ideality factor, barrier height and series resistance extracted from dV/dlnI vs I and H(I) vs I plots under dark and light.
2024 · Chromone-Based Cd(II) Fluorescent Coordination Polymer Fabricated to Study Optoelectronic and Explosive Sensing Properties
Bare ITO control · Electrode · Bare ITO, LSD1 and LSD2 measured under dark and light in same +/-2 V range.
2024 · Chromone-Based Cd(II) Fluorescent Coordination Polymer Fabricated to Study Optoelectronic and Explosive Sensing Properties
CSD1 thin-film Schottky device from CP1 · Thin Film · Bias +/-2 V, dark and illumination; light intensity approximately 100 mW cm-2; room temperature / 300 K.
2024 · Chromone-Based Cd(II) Fluorescent Coordination Polymer Fabricated to Study Optoelectronic and Explosive Sensing Properties
CSD2 thin-film Schottky device from CP2 · Thin Film · Bias +/-2 V, dark and illumination; light intensity approximately 100 mW cm-2; room temperature / 300 K.
2024 · Chromone-Based Cd(II) Fluorescent Coordination Polymer Fabricated to Study Optoelectronic and Explosive Sensing Properties
CSD3 thin-film Schottky device from CP3 · Thin Film · Bias +/-2 V, dark and illumination; light intensity approximately 100 mW cm-2; room temperature / 300 K.
2024 · Chromone-Based Cd(II) Fluorescent Coordination Polymer Fabricated to Study Optoelectronic and Explosive Sensing Properties
CSD4 thin-film Schottky device from CP4 · Thin Film · Bias +/-2 V, dark and illumination; light intensity approximately 100 mW cm-2; room temperature / 300 K.
2024 · Conductive Metal-Organic Framework with Superior Redox Activity as a Stable High-Capacity Anode for High-Temperature K-Ion Batteries
pressed HAN-Cu-MOF pellet · Pellet · 100 mg powder pressed into 10 mm pellet at 2-30 MPa for 15 s; measured around 298 K
2024 · Control of the Hydroquinone/Benzoquinone Redox State in High-Mobility Semiconducting Conjugated Coordination Polymers
pressed Ag4TTBQ pellet with gold electrodes · Pellet · Pellet measured on a Lake Shore Hall system in closed highly evacuated dark chamber; constant current 100 mA; 10-400 K; conductivity fitted with thermal activation plus variable-range hopping.
2024 · Control of the Hydroquinone/Benzoquinone Redox State in High-Mobility Semiconducting Conjugated Coordination Polymers
pressed Ag4TTHQ pellet with gold electrodes · Pellet · Pellet measured on a Lake Shore Hall system in closed highly evacuated dark chamber; constant current 100 mA; 10-400 K; conductivity fitted with thermal activation plus variable-range hopping.
2024 · Controlling Film Formation and Host-Guest Interactions to Enhance the Thermoelectric Properties of Nickel-Nitrogen-Based 2D Conjugated Coordination Polymers
as-synthesised Ni-HATI-Me film · Thin Film · Conductivity monitored during exposure of films to ambient air.
2024 · Controlling Film Formation and Host-Guest Interactions to Enhance the Thermoelectric Properties of Nickel-Nitrogen-Based 2D Conjugated Coordination Polymers
as-synthesised Ni-HAB film · Thin Film · As-synthesised, N2-stored, and annealed Ni-HAB states compared in Figure 2c-e.
2024 · Controlling Film Formation and Host-Guest Interactions to Enhance the Thermoelectric Properties of Nickel-Nitrogen-Based 2D Conjugated Coordination Polymers
as-synthesised Ni-HATI-H film · Thin Film · As-synthesised, N2-stored, and annealed Ni-HATI-H states compared in Figure 2c-e.
2024 · Controlling Film Formation and Host-Guest Interactions to Enhance the Thermoelectric Properties of Nickel-Nitrogen-Based 2D Conjugated Coordination Polymers
as-synthesised Ni-HATI-Me film · Thin Film · As-synthesised, N2-stored, and annealed Ni-HATI-Me states compared in Figure 2c-e.
2024 · Controlling Film Formation and Host-Guest Interactions to Enhance the Thermoelectric Properties of Nickel-Nitrogen-Based 2D Conjugated Coordination Polymers
as-synthesised Ni-HATP film · Thin Film · As-synthesised, N2-stored, and annealed Ni-HATP states compared in Figure 2c-e.
2024 · Controlling Film Formation and Host-Guest Interactions to Enhance the Thermoelectric Properties of Nickel-Nitrogen-Based 2D Conjugated Coordination Polymers
annealed Ni-HATP film · Thin Film · Fit decomposes Ni-HATP conductivity into hopping and disordered metallic grain-boundary pathways, with and without electron-electron interaction.
2024 · Controlling Film Formation and Host-Guest Interactions to Enhance the Thermoelectric Properties of Nickel-Nitrogen-Based 2D Conjugated Coordination Polymers
Ni-HAB synthesis-screening products · Thin Film · Electrical conductivities of Ni-HAB films from Table S1 screening conditions.
2024 · Controlling Film Formation and Host-Guest Interactions to Enhance the Thermoelectric Properties of Nickel-Nitrogen-Based 2D Conjugated Coordination Polymers
annealed Ni-HAB film · Thin Film · Ni-HAB film after annealing in N2.
2024 · Controlling Film Formation and Host-Guest Interactions to Enhance the Thermoelectric Properties of Nickel-Nitrogen-Based 2D Conjugated Coordination Polymers
annealed Ni-HATP film · Thin Film · Annealed Ni-HATP films measured from about 100 to 300 K; used to test hopping, SLoT, Zabrodskii, and heterogeneous transport models.
2024 · Controlling Film Formation and Host-Guest Interactions to Enhance the Thermoelectric Properties of Nickel-Nitrogen-Based 2D Conjugated Coordination Polymers
annealed Ni-HATP film · Thin Film · Highest-performing Ni-HATP thin films; room-temperature thermoelectric measurements.
2024 · De Novo Design and Facile Synthesis of Highly Crystalline 2D Conductive Metal-Organic Frameworks: A “Rotor-Stator” Strategy
Cu-DCB-MOF powder pellet · Pellet · Keithley 4200 semiconductor analyser; pellets pressed at about 1 GPa, gold wires and silver paste contacts.
2024 · De Novo Design and Facile Synthesis of Highly Crystalline 2D Conductive Metal-Organic Frameworks: A “Rotor-Stator” Strategy
Cu-DCBBT-MOF powder pellet · Pellet · Keithley 4200 semiconductor analyser; pellets pressed at about 1 GPa, gold wires and silver paste contacts.
2024 · De Novo Design and Facile Synthesis of Highly Crystalline 2D Conductive Metal-Organic Frameworks: A “Rotor-Stator” Strategy
Cu-DCBT-MOF powder pellet · Pellet · Keithley 4200 semiconductor analyser; pellets pressed at about 1 GPa, gold wires and silver paste contacts.
2024 · De Novo Design and Facile Synthesis of Highly Crystalline 2D Conductive Metal-Organic Frameworks: A “Rotor-Stator” Strategy
Cu-DCB-MOF powder pellet · Pellet · Conductivity measured from 303 to 348 K for the three biscarbazole-based 2D c-MOF pellets.
2024 · Detection of Ascorbic Acid by Two-Dimensional Conductive Metal-Organic Framework-Based Electrochemical Sensors
as-synthesised Cu3(HHTP)2 powder · Powder · Conductivity of conductive MOF measured by SourceMeter; supporting four-point probe I-V curves in SI Figure S2.
2024 · Diamagnetic Carrier-Doping-Induced Continuous Electronic and Magnetic Crossover in One-Dimensional Coordination Polymers
all Cu-doping-ratio powders · Powder · Compressed pellets; temperature-dependent conductivity for 30, 50, 75, 90, 95, and 100% Cu; 0 and 5% classified as band insulators.
2024 · Electrochemical Capacitance Traces with Interlayer Spacing in Two-dimensional Conductive Metal–Organic Frameworks
Bu-MOF pressed pellet · Pellet · Pressed pellets measured at room temperature under ambient atmosphere using Keithley 2450 source-meter and Keithley 2182A voltmeter.
2024 · Electrochemical Capacitance Traces with Interlayer Spacing in Two-dimensional Conductive Metal–Organic Frameworks
Et-MOF pressed pellet · Pellet · Pressed pellets measured at room temperature under ambient atmosphere using Keithley 2450 source-meter and Keithley 2182A voltmeter.
2024 · Electrochemical Capacitance Traces with Interlayer Spacing in Two-dimensional Conductive Metal–Organic Frameworks
H-MOF pressed pellet · Pellet · Pressed pellets measured at room temperature under ambient atmosphere using Keithley 2450 source-meter and Keithley 2182A voltmeter.
2024 · Electrochemical Capacitance Traces with Interlayer Spacing in Two-dimensional Conductive Metal–Organic Frameworks
Pent-MOF pressed pellet · Pellet · Pressed pellets measured at room temperature under ambient atmosphere using Keithley 2450 source-meter and Keithley 2182A voltmeter.
2024 · Electrosynthesis of a Nickel-Based Conductive Metal-Organic Framework with Controlled Morphology for Enhanced Capacitance
Solvothermal bulk Ni-HHTP powder/pellet · Pellet · Pressed circular pellet, 5 mm diameter, 1.5 tons pressure; Keithley SCS-4200 parameter analyser.
2024 · Electrosynthesis of a Nickel-Based Conductive Metal-Organic Framework with Controlled Morphology for Enhanced Capacitance
Detached Ni-HHTP-Disc powder/pellet · Pellet · Detached electrosynthesised material pressed into 5 mm pellet under 1.5 tons.
2024 · Electrosynthesis of a Nickel-Based Conductive Metal-Organic Framework with Controlled Morphology for Enhanced Capacitance
Detached Ni-HHTP-Flower powder/pellet · Pellet · Detached electrosynthesised material pressed into 5 mm pellet under 1.5 tons.
2024 · Enhancement of the performance of Ge–air batteries under high temperatures using conductive MOF-modified Ge anodes
bare Ge anode · Electrode · Bare Ge conductivity comparator in Figure 5C.
2024 · Enhancement of the performance of Ge–air batteries under high temperatures using conductive MOF-modified Ge anodes
Ge@Ni3(HITP)2 anode · Electrode · Conductivity of Ge@Ni3(HITP)2 and bare Ge as a function of temperature; values read from Figure 5C.
2024 · Enhancing Near-Infrared Photothermal Performance by Molecular Aggregation Optimization in Semiconductive Coordination Polymers
compound 1 square pellet for electrical conductivity · Pellet · Pressed square crystalline pellet, 5 x 5 x 0.30 mm; conductivity measured under nitrogen.
2024 · Enhancing Near-Infrared Photothermal Performance by Molecular Aggregation Optimization in Semiconductive Coordination Polymers
compound 2 square pellet for electrical conductivity · Pellet · Pressed square crystalline pellet, 5 x 5 x 0.35 mm; conductivity measured under nitrogen.
2024 · Enhancing Near-Infrared Photothermal Performance by Molecular Aggregation Optimization in Semiconductive Coordination Polymers
compound 1 square pellet for electrical conductivity · Pellet · Pressed pellet conductivity from 10 to 70 C.
2024 · Enhancing Near-Infrared Photothermal Performance by Molecular Aggregation Optimization in Semiconductive Coordination Polymers
compound 2 square pellet for electrical conductivity · Pellet · Pressed pellet conductivity from 10 to 70 C.
2024 · Enhancing Proton Conductivity and Dimensional Stability of Nanofiber Proton Exchange Membranes through In Situ Growth of MOF-Modified PVDF Nanofibers
A-PVDF-N@Nafion · Thin Film · sigma/IEC calculated from reported 80 C proton conductivity and Figure 5b IEC
2024 · Enhancing Proton Conductivity and Dimensional Stability of Nanofiber Proton Exchange Membranes through In Situ Growth of MOF-Modified PVDF Nanofibers
A-PVDF@Nafion · Thin Film · sigma/IEC calculated from reported 80 C proton conductivity and Figure 5b IEC
2024 · Enhancing Proton Conductivity and Dimensional Stability of Nanofiber Proton Exchange Membranes through In Situ Growth of MOF-Modified PVDF Nanofibers
A-PVDF-NS@Nafion · Thin Film · sigma/IEC calculated from reported 80 C proton conductivity and Figure 5b IEC
2024 · Enhancing Proton Conductivity and Dimensional Stability of Nanofiber Proton Exchange Membranes through In Situ Growth of MOF-Modified PVDF Nanofibers
Nafion · Thin Film · sigma/IEC calculated from reported 80 C proton conductivity and Figure 5b IEC
2024 · Enhancing Proton Conductivity and Dimensional Stability of Nanofiber Proton Exchange Membranes through In Situ Growth of MOF-Modified PVDF Nanofibers
PVDF@Nafion · Thin Film · sigma/IEC calculated from reported 80 C proton conductivity and Figure 5b IEC
2024 · From insulator to semiconductor: effect of host-guest interactions on charge transport in M-MOF-74 metal-organic frameworks
H4TCNQ@Cu-MOF-74 pellet · Pellet · Room-temperature IV curve for H4TCNQ@Cu-MOF-74.
2024 · From insulator to semiconductor: effect of host-guest interactions on charge transport in M-MOF-74 metal-organic frameworks
H4TCNQ@Mg-MOF-74 pellet · Pellet · Room-temperature IV curve for H4TCNQ@Mg-MOF-74.
2024 · From insulator to semiconductor: effect of host-guest interactions on charge transport in M-MOF-74 metal-organic frameworks
H4TCNQ@Mn-MOF-74 pellet · Pellet · Room-temperature IV curve for H4TCNQ@Mn-MOF-74.
2024 · From insulator to semiconductor: effect of host-guest interactions on charge transport in M-MOF-74 metal-organic frameworks
H4TCNQ@Zn-MOF-74 pellet · Pellet · Room-temperature IV curve for H4TCNQ@Zn-MOF-74.
2024 · From insulator to semiconductor: effect of host-guest interactions on charge transport in M-MOF-74 metal-organic frameworks
TCNQ@Cu-MOF-74 pellet · Pellet · Argon-filled glovebox (<1 ppm O2) using Gamry PCI4750-333041 potentiostat; powder pressed into pellet with 3 tons force for 2 min using 50 mg material, 0.5 mm thickness; measured 294-353 K.
2024 · From insulator to semiconductor: effect of host-guest interactions on charge transport in M-MOF-74 metal-organic frameworks
TCNQ@Mg-MOF-74 pellet · Pellet · Room-temperature IV curves shown in Fig. S5; main text also states no detectable conductivity as temperature increased.
2024 · From insulator to semiconductor: effect of host-guest interactions on charge transport in M-MOF-74 metal-organic frameworks
TCNQ@Mn-MOF-74 pellet · Pellet · Same pellet/probe method as Cu; measured 294-353 K.
2024 · From insulator to semiconductor: effect of host-guest interactions on charge transport in M-MOF-74 metal-organic frameworks
TCNQ@Zn-MOF-74 pellet · Pellet · Room-temperature IV curves shown in Fig. S5; main text also states no detectable conductivity as temperature increased.
2024 · High-Performance H2S Sensors to Detect SF6 Leakage
Co1.8Ni1.2(HITP)2 powder · Powder · Resistance measured with source meter and converted to conductivity.
2024 · High-Performance H2S Sensors to Detect SF6 Leakage
Co3(HITP)2 powder · Powder · Resistance measured with source meter and converted to conductivity.
2024 · High-Performance H2S Sensors to Detect SF6 Leakage
Ni3(HITP)2 powder · Powder · Resistance measured with source meter and converted to conductivity using sigma = L/(R*A).
2024 · In-situ growth of electrically conductive MOFs in wood cellulose scaffold for flexible, robust and hydrophobic membranes with improved electrochemical performance
NiCAT powder · Powder · 20 kV, 30 mA; NiCAT powder compared with TOW membrane and 50%-NiCAT@TOW.
2024 · In-situ growth of electrically conductive MOFs in wood cellulose scaffold for flexible, robust and hydrophobic membranes with improved electrochemical performance
50%-NiCAT@TOW membrane · Thin Film · XRD pattern of 50%-NiCAT@TOW membrane used to confirm NiCAT integration with cellulose crystalline faces.
2024 · Layered coordination polymer with two-dimensional covalent bismuth-organic networks: Semiconductor and lithium ion storage
pressed Bi-DSBDC-DMA pellet for conductivity · Pellet · 0.18 mm pressed pellet between two stainless steel rods in a homemade holder; Keithley 2400 source meter; conductivity measured at different temperatures.
2024 · Machine Learning-Based Prediction of Proton Conductivity in Metal-Organic Frameworks
literature proton-conductivity entries · Unknown · Conductivity entries include DOI, CSD reference code/name, proton conductivity, temperature, relative humidity, and guest molecule information.
2024 · Macrocyclic ligand-driven ion selectivity and high surface area in a 2D conductive MOF
pressed Cu-EP pellet · Pellet · Pressed pellet under ambient conditions; approximately 5 mg in 5 mm die under 1.5 Tons; no binder or conducting additive
2024 · Macrocyclic ligand-driven ion selectivity and high surface area in a 2D conductive MOF
pressed Cu-EP pellet · Pellet · Conductivity as function of temperature 293-363 K fitted to Arrhenius equation
2024 · Macrocyclic ligand-driven ion selectivity and high surface area in a 2D conductive MOF
Cu-EP-Cs-0.5 · Powder · Conductivity variations of pristine Cu-EP and Cs metalated samples; Table S11 gives pristine, CsNO3 low-dose and CsOAc samples; Figure 5B shows trend with Cs occupancy
2024 · Macrocyclic ligand-driven ion selectivity and high surface area in a 2D conductive MOF
pressed Cu-HHTC pellet · Pellet · Pressed pellet comparison value reported for Cu-HHTC in Table S4
2024 · Molecular-Level Pore Tuning in 2D Conductive Metal-Organic Frameworks for Advanced Supercapacitor Performance
Cu3(HHTATP)2 pellet with Cr/Au four-point contacts · Pellet · Pellet thickness >1.0 mm, diameter 10 mm; Cr/Au contacts; probe spacing 50 um; room temperature.
2024 · Naphthalene Diimide-Based Hydrogen-Bonded Organic Framework for High Electrical Conductivity and Ammonia Sensor Applications
ammonia-doped NDI(CPOH)2-SC sensor device · Single Crystal · Figure S16 compares pristine, hydrazine, ammonia, triethylamine, and diethylamine treatments
2024 · Naphthalene Diimide-Based Hydrogen-Bonded Organic Framework for High Electrical Conductivity and Ammonia Sensor Applications
ammonia-doped NDI(CPOH)2-SC sensor device · Single Crystal · ammonia gas flowed under UV irradiation; vacuum used for de-doping; repeated cycles monitored
2024 · Naphthalene Diimide-Based Hydrogen-Bonded Organic Framework for High Electrical Conductivity and Ammonia Sensor Applications
Device A pristine drop-cast NDI(CPOH)2-SC · Single Crystal · vacuum 10^-3 Pa, dark, gap-type device; C60/Au or Au electrodes on single crystal
2024 · Naphthalene Diimide-Based Hydrogen-Bonded Organic Framework for High Electrical Conductivity and Ammonia Sensor Applications
Device B hydrazine-doped NDI(CPOH)2-SC, normal treatment · Single Crystal · vacuum 10^-3 Pa, dark, hydrazine-doped normal-treated SC device
2024 · Naphthalene Diimide-Based Hydrogen-Bonded Organic Framework for High Electrical Conductivity and Ammonia Sensor Applications
Device C vacuum-pretreated hydrazine-doped NDI(CPOH)2-SC · Single Crystal · pristine SC vacuum-treated at 10^-5 Pa for 2 days then hydrazine-doped; I-V under vacuum 10^-3 Pa in dark
2024 · Naphthalene Diimide-Based Hydrogen-Bonded Organic Framework for High Electrical Conductivity and Ammonia Sensor Applications
Device B hydrazine-doped NDI(CPOH)2-SC, normal treatment · Single Crystal · Device A measured from 303 to 263 K; Device B measured from 303 to 173 K
2024 · Organic Solvent Boosts Charge Storage and Charging Dynamics of Conductive MOF Supercapacitors
bulk [Bmim][PF6]/ACN electrolyte ratio series · Unknown · Room-temperature conductivity of [Bmim][PF6]/ACN mixtures with different nIL:nsol ratios after sealed-vessel homogenisation.
2024 · Organic Solvent Boosts Charge Storage and Charging Dynamics of Conductive MOF Supercapacitors
MD model: Ni3(HITP)2 supercapacitor with [Bmim][PF6]/ACN · Model · In-pore conductivity for nIL:nsol = 0.05, 0.107 and 0.2 under a cell voltage of 2 V, extracted from charging curves/transmission-line analysis.
2024 · Photocatalytic Hydrogen Peroxide Production through Functionalized Semiconductive Metal-Organic Frameworks
DPT-MOF pressed pellet · Pellet · Pressed pellet measured under vacuum at 20 C; temperature-dependent conductivity fitted from 293-333 K.
2024 · Photocatalytic Hydrogen Peroxide Production through Functionalized Semiconductive Metal-Organic Frameworks
EFB-MOF pressed pellet · Pellet · Pressed pellet measured under vacuum at 20 C; temperature-dependent conductivity fitted from 293-333 K.
2024 · Photocatalytic Hydrogen Peroxide Production through Functionalized Semiconductive Metal-Organic Frameworks
PA-MOF pressed pellet · Pellet · Pressed pellet measured under vacuum at 20 C; temperature-dependent conductivity fitted from 293-333 K.
2024 · Redox-active conductive metal-organic framework with high lithium capacities at low temperatures
SKIER-5 cyan solid powder · Powder · Measured at room temperature by CMT-SR2000N under appropriate pressure without paste
2024 · Regulating Electronic Structure of Bimetallic NiFe-THQ Conductive Metal–Organic Frameworks to Boost Catalytic Activity for Oxygen Evolution Reaction
NixFe1-x-THQ series · Powder · Conductivity values summarised for Fe-THQ, Ni0.5Fe0.5-THQ and Ni-THQ; device geometry not specified.
2024 · Reversible Molecule Interactions Enable Ultrastretchable and Recyclable Ionogels for Wearable Piezoionic Sensors
flexible ionogel composition series · Thin Film · Room-temperature conductivity of ionogels with different [EMIM][EtSO4] contents; UiO-66-NH2@PAA content controlled as in Figure 2d.
2024 · Reversible Molecule Interactions Enable Ultrastretchable and Recyclable Ionogels for Wearable Piezoionic Sensors
flexible ionogel composition series · Thin Film · Conductivity of ionogels with 30 wt% ionic liquid and varied UiO-66-NH2@PAA content from 0 to 20 wt%.
2024 · Reversible Molecule Interactions Enable Ultrastretchable and Recyclable Ionogels for Wearable Piezoionic Sensors
recycled ionogel · Thin Film · Recycled ionogels compared before and after solvent remoulding with DMAC.
2024 · Solid-State Electrochemical Carbon Dioxide Capture by Conductive Metal-Organic Framework Incorporating Nickel Bis(diimine) Units
Ni3(HITP)2 pressed pellet · Pellet · 10-20 mg pressed at 1500 psi; 3 mm probe spacing; 6 mm pellet diameter; I/V slope from V-I scan.
2024 · Solid-State Electrochemical Carbon Dioxide Capture by Conductive Metal-Organic Framework Incorporating Nickel Bis(diimine) Units
Ni(DIB)2 pressed pellet · Pellet · Same pellet preparation and equation as Ni3(HITP)2 conductivity measurement.
2024 · Superior Charge Transport in Ni-Diamine Conductive MOFs
Air-exposed Cu3(HITT)2 · Unknown · Cu3(HITT)2 devices exposed to ambient atmosphere for up to 50 days; Figure 5a and S31/S32.
2024 · Superior Charge Transport in Ni-Diamine Conductive MOFs
Air-exposed Ni3(HITT)2 control · Unknown · Ni3(HITT)2 air-exposure control for a similar duration to Cu3(HITT)2.
2024 · Superior Charge Transport in Ni-Diamine Conductive MOFs
Pressed pellet four-probe device of pristine Cu3(HITT)2 · Pellet · Pressed polycrystalline pellet; measured at ambient/room temperature in four-contact geometry.
2024 · Superior Charge Transport in Ni-Diamine Conductive MOFs
Pressed pellet four-probe device of Ni3(HITT)2 · Pellet · Pressed polycrystalline pellet; measured at 298 K in main text / 296 K in SI methods, ambient atmosphere, dark-covered probe station.
2024 · Superior Charge Transport in Ni-Diamine Conductive MOFs
Pressed pellet four-probe device of pristine Cu3(HITT)2 · Pellet · PPMS DynaCool Electrical Transport Option; two heating/cooling cycles between 300 K and 100 or 200 K at 5 K/min; resistance every 1 K.
2024 · Superior Charge Transport in Ni-Diamine Conductive MOFs
Pressed pellet four-probe device of Ni3(HITT)2 · Pellet · PPMS DynaCool Electrical Transport Option; two heating/cooling cycles between 300 K and 100 or 200 K at 5 K/min; resistance every 1 K.
2024 · Synthesis and structure of a non-van-der-Waals two-dimensional coordination polymer with superconductivity
Cu3BHT single-crystal four-probe device · Electrode · Out-of-plane I-V curves from Cu3BHT single-crystal device at room temperature.
2024 · Synthesis and structure of a non-van-der-Waals two-dimensional coordination polymer with superconductivity
Cu3BHT single-crystal four-probe device · Electrode · Quantum Design PPMS DynaCool with Electrical Transport Option; 0.05-1 K; magnetic field 0-1 T applied along ab plane and supercurrent along c-axis.
2024 · Synthesis and structure of a non-van-der-Waals two-dimensional coordination polymer with superconductivity
Cu3BHT single-crystal four-probe device · Electrode · Variable-temperature single-crystal device measurements from 2 to 300 K using attoDRY 2100 with SR830 lock-in amplifier.
2024 · Synthesis of a highly conductive coordination polymer film via a vapor-solid phase chemical conversion process
Ag5BHT thin films · Thin Film · I-V curve of a 270 nm Ag5BHT thin film at 300 K; electrical conductivities with different thicknesses measured using parallel electrodes and four probes connected by conductive silver paste.
2024 · Synthesis of a highly conductive coordination polymer film via a vapor-solid phase chemical conversion process
Ag5BHT thin films · Thin Film · Conductivity of a 270 nm Ag5BHT film measured from 300 to 400 K; ln sigma versus T^-1 used for activation energy.
2024 · Synthesis of Stable 2D Conductive Lanthanide Organic Frameworks (Lu-HHTP) for High-Performance Humidity Sensors
Pressed Lu-HHTP pellet · Pellet · Pressed pellet measured at 302 K using a home-built two-point probe setup; powder compressed between copper nails under 0.4 GPa; voltage generally swept between -2 and +2 V
2024 · Triazacoronene-Based 2D Conductive Metal–Organic Framework for High-Capacity Lithium Storage
compressed Cu-TAC pellet · Pellet · Compressed pellet at ambient temperature/298 K.
2024 · Triazacoronene-Based 2D Conductive Metal–Organic Framework for High-Capacity Lithium Storage
compressed Cu-TAC pellet · Pellet · Conductivity measured from 298 to 368 K; Arrhenius formula used to estimate activation energy.
2024 · Tunable Charge Transport and Spin Dynamics in Two-Dimensional Conjugated Metal-Organic Frameworks
Ni3(HATI_H)2 pressed pellet · Pellet · Measured under vacuum in the dark from 200 to 320 K; 300 K value reported.
2024 · Tunable Charge Transport and Spin Dynamics in Two-Dimensional Conjugated Metal-Organic Frameworks
Ni3(HATI_iPr)2 pressed pellet · Pellet · Measured under vacuum in the dark from 200 to 320 K; 300 K value reported.
2024 · Tunable Charge Transport and Spin Dynamics in Two-Dimensional Conjugated Metal-Organic Frameworks
Ni3(HATI_nPr)2 pressed pellet · Pellet · Measured under vacuum in the dark from 200 to 320 K; 300 K value reported.
2024 · Tunable Charge Transport and Spin Dynamics in Two-Dimensional Conjugated Metal-Organic Frameworks
Ni3(HATI_vPr)2 pressed pellet · Pellet · Measured under vacuum in the dark from 200 to 320 K; 300 K value reported.
2024 · Two-Dimensional Conjugated Metal–Organic Frameworks with a Ring-in-Ring Topology and High Electrical Conductance
Co-DHHBTN pressed pellet · Pellet · Pressed pellet, 30 mg, 6 mm die, 1000 psi, 5 min; tip spacing 1.2 mm; thickness 0.3 mm; variable T 220-370 K.
2024 · Two-Dimensional Conjugated Metal–Organic Frameworks with a Ring-in-Ring Topology and High Electrical Conductance
Cu-DHHBTN pressed pellet · Pellet · Pressed pellet, 30 mg, 6 mm die, 1000 psi, 5 min; tip spacing 1.2 mm; thickness 0.3 mm; variable T 220-370 K.
2024 · Two-Dimensional Conjugated Metal–Organic Frameworks with a Ring-in-Ring Topology and High Electrical Conductance
Ni-DHHBTN pressed pellet · Pellet · Pressed pellet, 30 mg, 6 mm die, 1000 psi, 5 min; tip spacing 1.2 mm; thickness 0.3 mm; variable T 220-370 K.
2024 · Two-Dimensional Electrically Conductive Metal-Organic Framework Boosts Synaptic Plasticity for Dynamic Image Refresh, Classification, and Efferent Neuromuscular Systems
EC-MOF-L-AS lithium electrolyte artificial synapse · Electrode · I-V curves in the range of +/-5 V for the first ten laps.
2024 · Upgrading Structural Conjugation in Three-Dimensional Ni-Based Metal-Organic Frameworks for Promoting Electrical Conductivity and Specific Capacitance
Ni-BPE pressed pellet · Pellet · CTA-3 Cryoall electrical resistance measuring system; room temperature; 10 mm pellet pressed at 100 MPa
2024 · Upgrading Structural Conjugation in Three-Dimensional Ni-Based Metal-Organic Frameworks for Promoting Electrical Conductivity and Specific Capacitance
Ni-BPY pressed pellet · Pellet · CTA-3 Cryoall electrical resistance measuring system; room temperature; 10 mm pellet pressed at 100 MPa
2024 · Vertical Conductive Metal–Organic Framework Single-Crystalline Nanowire Arrays for Efficient Electrocatalytic Hydrogen Evolution
Ag-MOF-Film · Thin Film · Current-voltage curve of Ag-MOF-Film; resistance 28 ohm, surface area 4 x 10-4 cm-2 and film thickness 200 nm used for sigma = L/(R S).
2023 · 2D conjugated metal-organic framework as a proton-electron dual conductor
Cu-HHTP control pellet · Pellet · Cu-HHTP control at 293 K under 30% and 95% RH for proton conductivity.
2023 · 2D conjugated metal-organic framework as a proton-electron dual conductor
EG-treated Zn-HHTP-H2O control pellet · Pellet · EG-treated control measured under ambient conditions, 293 K and 30% RH.
2023 · 2D conjugated metal-organic framework as a proton-electron dual conductor
Pressed Zn-HHTP-H2O pellet · Pellet · Pressed pellet; ambient 293 K 30% RH, 95% RH, and 343 K 95% RH; temperature-dependent conductivity under vacuum for activation energy.
2023 · 2D conjugated metal-organic framework as a proton-electron dual conductor
Pressed Zn-HHTP-H2O pellet · Pellet · Pressed pellet; two-point probe method and blocking electrode method; 293 K N2, 30% RH, 95% RH and temperature-dependent 95% RH to 343 K.
2023 · 2D conjugated metal-organic framework as a proton-electron dual conductor
Pressed Zn-HHTP-urea pellet · Pellet · Pressed pellet; ambient 293 K 30% RH, 293 K 95% RH, and 343 K 95% RH.
2023 · 2D conjugated metal-organic framework as a proton-electron dual conductor
Pressed Zn-HHTP-urea pellet · Pellet · Pressed pellet; 293 K 30% RH, 293 K 95% RH and temperature-dependent 95% RH up to 343 K.
2023 · A chiral SrSi2 (srs) superstructure constructed by a dual interaction system showing isotropic electrical conductivity
Pellet of compound 1 · Pellet · Keithley 2400 parameter analyser; pellet of compound 1 measured at 300 K; voltage swept from -5 V to +5 V.
2023 · A chiral SrSi2 (srs) superstructure constructed by a dual interaction system showing isotropic electrical conductivity
Regenerated compound 1 crystals · Single Crystal · Main text states regenerated-sample results are almost the same as those of original compound 1.
2023 · A chiral SrSi2 (srs) superstructure constructed by a dual interaction system showing isotropic electrical conductivity
Regenerated compound 1 crystals · Single Crystal · SI Fig. S7 caption reports room-temperature I-V curve and regenerated conductivity.
2023 · A Conductive 2D Conjugated Tetrathia[8]circulene-Based Nickel Metal–Organic Framework for Energy Storage
compressed Ni-TTC pellet · Pellet · Compressed pellet, 300-405 K, Keithley 2002 multimeter
2023 · A Humidity-Induced Large Electronic Conductivity Change of 107 on a Metal-Organic Framework for Highly Sensitive Water Detection
Drop-cast H2SO4@(NH2)2-MIL-125 humidity sensor · Electrode · Current-voltage curve under 5 percent RH at room temperature
2023 · A Novel Electrocatalyst Pd(II)@Ni3(HITP)2 for Ultrasensitive Detection of Chloramphenicol: Experimental and Computational Investigation
Ni3(HITP)2 powder · Powder · Conductivity value cited for Ni3(HITP)2 HCMOF; measurement method not reported in this work.
2023 · A Pyrazine-Based 2D Conductive Metal-Organic Framework for Efficient Lithium Storage†
TPQG-Cu-MOF powder pellet for conductivity · Pellet · Conductivity tracked from room temperature to 100 C.
2023 · A Pyrazine-Based 2D Conductive Metal-Organic Framework for Efficient Lithium Storage†
TPQG-Cu-MOF powder pellet for conductivity · Pellet · Keithley 4200 semiconductor analyser; pellets pressed at about 1 GPa and contacted with gold wires and silver paste.
2023 · A simplistic approach for the synthesis of Covalent Organic Frameworks(COFs) comprising of tetrafunctionalized porphyrin and polyoxometalates to uncover catalytic applications
ITO/TiO2/P@Cu-AndCOF thin-film electrode · Electrode · ITO/TiO2/P@Cu-AndCOF film; conductivity derived from optical conductance equations S7 and S8; indirect band gap from Tauc plot.
2023 · A simplistic approach for the synthesis of Covalent Organic Frameworks(COFs) comprising of tetrafunctionalized porphyrin and polyoxometalates to uncover catalytic applications
ITO/TiO2/P@Ni-AndCOF thin-film electrode · Electrode · ITO/TiO2/P@Ni-AndCOF film; conductivity derived from optical conductance equations S7 and S8; indirect band gap from Tauc plot.
2023 · A tribenzocoronene-based 2D conductive metal-organic framework for efficient energy storage
pressed Cu-TBC pellet · Pellet · Keithley 4200-SCS; gold wires fixed to sample side with silver colloid; voltage sweep -1.0 to 1.0 V; pressed pellet
2023 · A Triptycene-Based 2D MOF with Vertically Extended Structure for Improving the Electrocatalytic Performance of CO2 to Methane
2D-vc-MOF(Cu) pressed pellets · Pellet · Pressed pellets measured at 298 K and 45% relative humidity after pressing at 2-20 MPa for 30 s.
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
AgNPs@Cu3(HHTP)2 thin film · Thin Film · Room-temperature I-V at 300 K
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
AgNPs@Cu3(HHTP)2 thin film · Thin Film · Temperature-dependent I-V profiles from 200 to 373 K
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
AgNPs@Cu-TCPP thin film · Thin Film · Room-temperature I-V at 300 K
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
AgNPs@Cu-TCPP thin film · Thin Film · Temperature-dependent I-V profile from 298 to 373 K
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
AgNPs@CuTCNQ thin film · Thin Film · Room-temperature I-V at 300 K
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
AgNPs@CuTCNQ thin film · Thin Film · Temperature-dependent I-V profiles from 200 to 373 K
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
Pristine Cu3(HHTP)2 thin film · Thin Film · Room-temperature I-V at 300 K
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
Pristine Cu3(HHTP)2 thin film · Thin Film · Temperature-dependent I-V profiles from 200 to 373 K
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
Pristine Cu-TCPP thin film · Thin Film · Room-temperature I-V at 300 K
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
Pristine CuTCNQ thin film · Thin Film · Room-temperature I-V at 300 K
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
AgNPs@Cu3(HHTP)2 thin film, 10 min AgOAc dipping · Thin Film · Ag-content series I-V and variable-temperature I-V; 10 min AgOAc dipping
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
AgNPs@Cu3(HHTP)2 thin film, 20 min AgOAc dipping · Thin Film · Ag-content series I-V and variable-temperature I-V; 20 min AgOAc dipping
2023 · Ag Nanoparticles-Induced Metallic Conductivity in Thin Films of 2D Metal-Organic Framework Cu3(HHTP)2
AgNPs@Cu3(HHTP)2 thin film, 5 min AgOAc dipping · Thin Film · Ag-content series I-V and variable-temperature I-V; 5 min AgOAc dipping
2023 · Air/liquid interfacial formation process of conductive metal–organic framework nanosheets
HITP-Ni-NS_1 min · Nanosheet · HITP-Ni-NS deposited onto SiO2(100 nm)/Si substrates with five deposition cycles at pi = 5 mN m-1; Au stripe electrodes by vacuum evaporation; measurements in dark.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Por(Co)-MOF · Powder · MOF powder pressed in 6 mm die for 5 min at approximately 1000 psi; conductivity measured in air by two-contact probe.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-MOF · Powder · MOF powder pressed in 6 mm die for 5 min at approximately 1000 psi; conductivity measured in air by two-contact probe.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(1:1) · Powder · MOF powder pressed in 6 mm die for 5 min at approximately 1000 psi; conductivity measured in air by two-contact probe.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(2:1) · Powder · MOF powder pressed in 6 mm die for 5 min at approximately 1000 psi; conductivity measured in air by two-contact probe.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(5:1) · Powder · MOF powder pressed in 6 mm die for 5 min at approximately 1000 psi; conductivity measured in air by two-contact probe.
2023 · Boosting electrocatalytic CO2 reduction reaction over viologen-functionalized metal-organic frameworks by enhancement of electron-transfer capacity
Vg-Por(Co)-MOF(9:1) · Powder · MOF powder pressed in 6 mm die for 5 min at approximately 1000 psi; conductivity measured in air by two-contact probe.
2023 · Chemical Vapor Deposition and High-Resolution Patterning of a Highly Conductive Two-Dimensional Coordination Polymer Film
20 nm CVD Cu-BHT nanofilm · Thin Film · I-V curve measured at 300 K to check Ohmic contacts.
2023 · Chemical Vapor Deposition and High-Resolution Patterning of a Highly Conductive Two-Dimensional Coordination Polymer Film
CVD Cu-BHT nanofilm series · Thin Film · Lakeshore Hall System 9700A; Ag paste and silver wires on Cu-BHT film on Si/SiO2; contacts confirmed Ohmic by I-V curves.
2023 · Chemiresistive and chem-FET Sensor: π-d conjugated metal-organic framework for ultra-sensitive and selective carbon monoxide detection
as-synthesised Zn-HHTP blue powder · Powder · I-V characteristics shown for Zn-HHTP
2023 · CO2-Sensitive Porous Magnet: Antiferromagnet Creation from a Paramagnetic Charge-Transfer Layered Metal-Organic Framework
Pelletized compound 1 for DC conductivity · Pellet · Pellet of compound 1 between stainless-steel plates; dried under high vacuum <1e-2 Pa at 353 K for 5 h; measured under controlled CO2 pressure using 0.1 V source and 1 K min-1 temperature sweep.
2023 · Conductive Lanthanide Metal-Organic Frameworks with Exceptionally High Stability
blank device fabricated without MOF crystal · Electrode · blank device without crystals, same fabrication manner
2023 · Conductive Lanthanide Metal-Organic Frameworks with Exceptionally High Stability
Gd4-MOF after MnO4- anion exchange · Single Crystal · Gd4-MOF before and after MnO4- exchange; c-axis conductivity
2023 · Conductive Lanthanide Metal-Organic Frameworks with Exceptionally High Stability
Gd4-MOF single-crystal two-probe device, a-axis aligned · Electrode · voltage applied across a-axis, perpendicular to 1D conductive aromatic wire
2023 · Conductive Lanthanide Metal-Organic Frameworks with Exceptionally High Stability
Gd4-MOF single-crystal two-probe device, c-axis aligned · Electrode · room temperature, 50% relative humidity; more than 50 devices
2023 · Conductive Lanthanide Metal-Organic Frameworks with Exceptionally High Stability
Gd4-MOF single-crystal two-probe device, c-axis aligned · Electrode · Ln4-MOF crystals soaked at different pH values for 12 h, then conductivity along c-axis measured
2023 · Conductive Lanthanide Metal-Organic Frameworks with Exceptionally High Stability
Gd4-MOF single-crystal two-probe device, c-axis aligned · Electrode · devices heated under air and moisture during test for 10 h
2023 · Conductive Lanthanide Metal-Organic Frameworks with Exceptionally High Stability
Lu4-MOF single-crystal two-probe device, c-axis aligned · Electrode · room temperature, 50% relative humidity
2023 · Conductive Lanthanide Metal-Organic Frameworks with Exceptionally High Stability
Tm4-MOF single-crystal two-probe device, c-axis aligned · Electrode · room temperature, 50% relative humidity
2023 · Conductive metal-organic framework flowers facilitate the anchoring and conversion kinetics of polysulfides for lithium‑sulfur batteries
MIL-47 powder / nanosheets collected from autoclave · Powder · Room-temperature four-probe conductivity at 10 mA and 45% humidity; values reported for MIL-47 material and MIL-47/CNT interlayer, with CNT film described as comparable.
2023 · Conductive metal-organic frameworks with wheel-shaped metallomacrocycle subunits as high-performance supercapacitor electrodes
MWM-1 (Co/2Ni) conductivity pellet · Pellet · cold-isostatically pressed 20-40 um pellet; four-arm Lakeshore probe station; vacuum ca. 10^-4 Pa; Keithley 4200 SCS; Au contacts
2023 · Conjugated Nonplanar Copper-Catecholate Conductive Metal-Organic Frameworks via Contorted Hexabenzocoronene Ligands for Electrical Conduction
c-HBC-12O-Cu pellet · Pellet · Bulk polycrystalline pellet; Keithley 4200-SCS; room-temperature conductivity; temperature-dependent measurements from 303 to 348 K also reported.
2023 · Conjugated Nonplanar Copper-Catecholate Conductive Metal-Organic Frameworks via Contorted Hexabenzocoronene Ligands for Electrical Conduction
c-HBC-6O-Cu pellet · Pellet · Bulk polycrystalline pellet; Keithley 4200-SCS; room-temperature conductivity; temperature-dependent measurements from 303 to 348 K also reported.
2023 · Conjugated Nonplanar Copper-Catecholate Conductive Metal-Organic Frameworks via Contorted Hexabenzocoronene Ligands for Electrical Conduction
c-HBC-8O-Cu pellet · Pellet · Bulk polycrystalline pellet; Keithley 4200-SCS; room-temperature conductivity; temperature-dependent measurements from 303 to 348 K also reported.
2023 · Cooperative Proton and Li-ion Conduction in a 2D-Layered MOF via Mechanical Insertion of Lithium Halides
Ti-dobdc pristine · Pellet · Variable humidity conductivity; RH range 30-95% and 298-328 K; pellet coated with gold paste.
2023 · Cooperative Proton and Li-ion Conduction in a 2D-Layered MOF via Mechanical Insertion of Lithium Halides
Ti-dobdc-LiBr (MOF:LiBr = 1:1) · Pellet · Variable humidity conductivity; RH range 30-95% and 298-328 K; pellet coated with gold paste.
2023 · Cooperative Proton and Li-ion Conduction in a 2D-Layered MOF via Mechanical Insertion of Lithium Halides
Ti-dobdc-LiCl (MOF:LiCl = 1:1) · Pellet · Variable humidity conductivity; RH range 30-95% and 298-328 K; pellet coated with gold paste.
2023 · Cooperative Proton and Li-ion Conduction in a 2D-Layered MOF via Mechanical Insertion of Lithium Halides
Ti-dobdc-LiI (MOF:LiI = 1:1) · Pellet · Variable humidity conductivity; RH range 30-95% and 298-328 K; pellet coated with gold paste.
2023 · Cooperative Proton and Li-ion Conduction in a 2D-Layered MOF via Mechanical Insertion of Lithium Halides
Ti-dobdc-LiBr (MOF:LiBr = 1:3) · Pellet · Humidity-dependent conductivity for higher MOF:LiBr molar ratios; reported at 298 K and 30% RH.
2023 · Cooperative Proton and Li-ion Conduction in a 2D-Layered MOF via Mechanical Insertion of Lithium Halides
Ti-dobdc-LiBr (MOF:LiBr = 1:5) · Pellet · Humidity-dependent conductivity for higher MOF:LiBr molar ratios; reported at 298 K and 30% RH.
2023 · Cooperative Proton and Li-ion Conduction in a 2D-Layered MOF via Mechanical Insertion of Lithium Halides
Ti-dobdc pristine · Pellet · Variable temperature ionic conductivity at RH 95%.
2023 · Cooperative Proton and Li-ion Conduction in a 2D-Layered MOF via Mechanical Insertion of Lithium Halides
Ti-dobdc-LiBr (MOF:LiBr = 1:1) · Pellet · Variable temperature ionic conductivity at RH 95%.
2023 · Cooperative Proton and Li-ion Conduction in a 2D-Layered MOF via Mechanical Insertion of Lithium Halides
Ti-dobdc-LiCl (MOF:LiCl = 1:1) · Pellet · Variable temperature ionic conductivity at RH 95%.
2023 · Cooperative Proton and Li-ion Conduction in a 2D-Layered MOF via Mechanical Insertion of Lithium Halides
Ti-dobdc-LiI (MOF:LiI = 1:1) · Pellet · Variable temperature ionic conductivity at RH 95%.
2023 · Copper(i) iodide coordination polymers with triazole substituted pyridine ligands: photophysical and electrical conductivity properties
CP1 pressed pellet with silver-paste contacts · Pellet · Pressed pellet, 5.0 GPa for 5 min; silver paste contacts; voltage swept from -10 V to +10 V
2023 · Copper(i) iodide coordination polymers with triazole substituted pyridine ligands: photophysical and electrical conductivity properties
CP2 pressed pellet with silver-paste contacts · Pellet · Pressed pellet, 5.0 GPa for 5 min; silver paste contacts; voltage swept from -10 V to +10 V
2023 · Copper(i) iodide coordination polymers with triazole substituted pyridine ligands: photophysical and electrical conductivity properties
CP3 pressed pellet with silver-paste contacts · Pellet · Pressed pellet, 5.0 GPa for 5 min; silver paste contacts; voltage swept from -10 V to +10 V
2023 · Correlation in Structural Architecture toward Fabrication of Schottky Device with a Series of Pyrazine Appended Coordination Polymers
As-synthesised crystals/powder of 1 · Powder · As-synthesised powder form of crystalline material; room-temperature frequency-dependent conductivity analysis.
2023 · Correlation in Structural Architecture toward Fabrication of Schottky Device with a Series of Pyrazine Appended Coordination Polymers
As-synthesised crystals/powder of 2 · Powder · As-synthesised powder form of crystalline material; room-temperature frequency-dependent conductivity analysis.
2023 · Correlation in Structural Architecture toward Fabrication of Schottky Device with a Series of Pyrazine Appended Coordination Polymers
As-synthesised crystals/powder of 3 · Powder · As-synthesised powder form of crystalline material; room-temperature frequency-dependent conductivity analysis.
2023 · Correlation in Structural Architecture toward Fabrication of Schottky Device with a Series of Pyrazine Appended Coordination Polymers
ITO/1/Al Schottky thin-film device · Thin Film · ITO/1/Al thin-film device under dark and light conditions; bias range +/-1.5 V.
2023 · Correlation in Structural Architecture toward Fabrication of Schottky Device with a Series of Pyrazine Appended Coordination Polymers
ITO/2/Al Schottky thin-film device · Thin Film · ITO/2/Al thin-film device under dark and light conditions; bias range +/-1.5 V.
2023 · Correlation in Structural Architecture toward Fabrication of Schottky Device with a Series of Pyrazine Appended Coordination Polymers
ITO/3/Al Schottky thin-film device · Thin Film · ITO/3/Al thin-film device under dark and light conditions; bias range +/-1.5 V.
2023 · Correlation in Structural Architecture toward Fabrication of Schottky Device with a Series of Pyrazine Appended Coordination Polymers
ITO/1/Al Schottky thin-film device · Thin Film · Charge transport parameters from I vs V2, capacitance-frequency and ln I vs ln V analyses.
2023 · Correlation in Structural Architecture toward Fabrication of Schottky Device with a Series of Pyrazine Appended Coordination Polymers
ITO/2/Al Schottky thin-film device · Thin Film · Charge transport parameters from I vs V2, capacitance-frequency and ln I vs ln V analyses.
2023 · Correlation in Structural Architecture toward Fabrication of Schottky Device with a Series of Pyrazine Appended Coordination Polymers
ITO/3/Al Schottky thin-film device · Thin Film · Charge transport parameters from I vs V2, capacitance-frequency and ln I vs ln V analyses.
2023 · Dimensional Control of Highly Anisotropic and Transparent Conductive Coordination Polymers for Solution-Processable Large-Scale 2D Sheets
1D CuCl-TU polymer nanowire · Powder · Nanowire measured along and perpendicular to its principal axis.
2023 · Dimensional Control of Highly Anisotropic and Transparent Conductive Coordination Polymers for Solution-Processable Large-Scale 2D Sheets
2D CuCl-TU nanosheet on Si/SiO2 wafer with Au pads · Electrode · Orientation-dependent conductivity along 0 and 90 degrees; high voltage damage above 3.0 V noted.
2023 · Dimensional Control of Highly Anisotropic and Transparent Conductive Coordination Polymers for Solution-Processable Large-Scale 2D Sheets
2D CuCl-TU nanosheet on Si/SiO2 wafer with Au pads · Electrode · Micrometer-scale nanosheet measured along two orthogonal axes.
2023 · Dimensional Control of Highly Anisotropic and Transparent Conductive Coordination Polymers for Solution-Processable Large-Scale 2D Sheets
Large 2D CuCl-TU nanosheet on surface-treated PC film · Electrode · Thin 2D sheet on PC film; average sheet conductivity reported from Figure 1c.
2023 · Double advantages of 2D coordination polymer of coumarinyl-pyridyl Schiff base decorated Zn(II): The fabrication of Schottky device and Anti-carcinogenic activity
ITO/Zn(II)-CP/Al Schottky diode thin film · Thin Film · ITO/Zn(II)-CP/Al Schottky barrier diode; conductivity, rectification ratio and diode parameters extracted under dark/light conditions.
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Co-CoOAPc powder and cold-pressed pellet · Powder · Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Co-CuOAPc powder and cold-pressed pellet · Powder · Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Co-NiOAPc powder and cold-pressed pellet · Powder · Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Cu-CoOAPc powder and cold-pressed pellet · Powder · Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Cu-CuOAPc powder and cold-pressed pellet · Powder · Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Cu-NiOAPc powder and cold-pressed pellet · Powder · Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Ni-CoOAPc powder and cold-pressed pellet · Powder · Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Ni-CuOAPc powder and cold-pressed pellet · Powder · Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Ni-NiOAPc powder and cold-pressed pellet · Powder · Room-temperature pellet conductivity under vacuum (~1e-4 mbar); pellet pressed at 10 MPa for 30 s
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Co-CuOAPc powder and cold-pressed pellet · Powder · Thermally activated hopping fit over approximately 260-320 K from Figure S21-S25
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Cu-CoOAPc powder and cold-pressed pellet · Powder · Thermally activated hopping fit over approximately 260-320 K from Figure S21-S25
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Cu-CuOAPc powder and cold-pressed pellet · Powder · Thermally activated hopping fit over approximately 260-320 K from Figure S21-S25
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Cu-NiOAPc powder and cold-pressed pellet · Powder · Thermally activated hopping fit over approximately 260-320 K from Figure S21-S25
2023 · Effects of Transition Metals on Metal-Octaaminophthalocyanine-Based 2D Metal-Organic Frameworks
Ni-CuOAPc powder and cold-pressed pellet · Powder · Thermally activated hopping fit over approximately 260-320 K from Figure S21-S25
2023 · Electrically conductive [Fe4S4]-based organometallic polymers
[Fe4S4Cl2(Me-NHC)] (1) pressed pellet for two-contact conductivity · Pellet · DC current-voltage curves collected at 10 mV s-1 with GAMRY Interface 5000E; 25 C under N2.
2023 · Electrically conductive [Fe4S4]-based organometallic polymers
(PPh4)2(Fe4S4Cl4) pressed-pellet control · Pellet · Room-temperature pressed-pellet method, reported as this-work control in Table S1.
2023 · Electrically conductive [Fe4S4]-based organometallic polymers
[Fe4S4Cl2(Me-NHC)] (1) rectangular pellet for four-contact VT conductivity · Pellet · PPMS measurement under vacuum; AC resistance every 1 K; cooling/heating rate 3 K min-1; analysed by Mott 3D VRH and Arrhenius fits.
2023 · Electrically conductive Pt-MOFs for acidic oxygen reduction: Optimized performance via altering conjugated ligands
Pt3(C12N9H3O3)2 MOF pressed pellet · Pellet · Pellet pressed at 20 MPa; conductivity calculated from sheet resistance and thickness.
2023 · Electrically conductive Pt-MOFs for acidic oxygen reduction: Optimized performance via altering conjugated ligands
Pt3(C12N12H6)2 MOF pressed pellet · Pellet · Pellet pressed at 20 MPa; conductivity calculated from sheet resistance and thickness.
2023 · Electrically conductive Pt-MOFs for acidic oxygen reduction: Optimized performance via altering conjugated ligands
Pt3(C12N6O6)2 MOF pressed pellet · Pellet · Pellet pressed at 20 MPa; conductivity calculated as 1/(R x t).
2023 · Electrically Conductive π-Intercalated Graphitic Metal-Organic Framework Containing Alternate π-Donor/Acceptor Stacks
Supramolecular [HATP/HCTP]n array powder/crystals · Powder · Temperature-dependent I-V plots and Arrhenius plot for the supramolecular array.
2023 · Electrically Conductive π-Intercalated Graphitic Metal-Organic Framework Containing Alternate π-Donor/Acceptor Stacks
iGMOF1 pressed pellet · Pellet · Temperature-dependent I-V plots and Arrhenius plot.
2023 · Electrically Conductive π-Intercalated Graphitic Metal-Organic Framework Containing Alternate π-Donor/Acceptor Stacks
Pristine Cu3(HATP)2 pressed pellet · Pellet · Ambient conditions; same pellet protocol as iGMOF1.
2023 · Electrically Conductive π-Intercalated Graphitic Metal-Organic Framework Containing Alternate π-Donor/Acceptor Stacks
Supramolecular [HATP/HCTP]n array powder/crystals · Powder · Ambient pressed-pellet conductivity comparison.
2023 · Electrically Conductive π-Intercalated Graphitic Metal-Organic Framework Containing Alternate π-Donor/Acceptor Stacks
Post-synthetically HCTP-treated Cu3(HATP)2 · Powder · Ambient conductivity of post-synthetically HCTP-treated Cu3(HATP)2.
2023 · Electrically Conductive π-Intercalated Graphitic Metal-Organic Framework Containing Alternate π-Donor/Acceptor Stacks
iGMOF1 pressed pellet · Pellet · Ambient conditions; pellets made with Ag-paint-coated stainless-steel rods; constant 200 MPa pressure for 1 min.
2023 · Electrically Conductive π-Intercalated Graphitic Metal-Organic Framework Containing Alternate π-Donor/Acceptor Stacks
Cu3(HATP)2 formed in the presence of pyrene · Pellet · Cu3(HATP)2 formed in the presence of equimolar pyrene.
2023 · Electrically Conductive π-Intercalated Graphitic Metal-Organic Framework Containing Alternate π-Donor/Acceptor Stacks
Cu3(HATP)2 formed in the presence of triphenylene · Pellet · Cu3(HATP)2 formed in the presence of equimolar triphenylene.
2023 · Experimental manifestation of redox-conductivity in metal-organic frameworks and its implication for semiconductor/insulator switching
UU-100(Co) thin film on FTO · Thin Film · Representative CV at 100 mV s-1 and EIS conductivity analysis in Ar-saturated DMF with 0.1 M KPF6.
2023 · Experimental manifestation of redox-conductivity in metal-organic frameworks and its implication for semiconductor/insulator switching
Zn(pyrazol-NDI) thin film on FTO · Thin Film · CV at 5 mV s-1 and steady-state redox conductivity in Ar-saturated DMF with 0.1 M KPF6, LiClO4, or TBAPF6.
2023 · Experimental manifestation of redox-conductivity in metal-organic frameworks and its implication for semiconductor/insulator switching
Zn(pyrazol-NDI) thin film on FTO · Thin Film · Thin films preconditioned at desired applied potentials for 2 min by chronoamperometry; EIS with 10 mV AC modulation from 0.1 to 10000 Hz in Ar-saturated DMF with 0.1 M KPF6; resistance from RC equivalent circuit converted to conductivity by Ohm's law.
2023 · Experimental manifestation of redox-conductivity in metal-organic frameworks and its implication for semiconductor/insulator switching
Zn(pyrazol-NDI) thin film on FTO · Thin Film · Redox conductivity switched between x = 0.0 and x = 0.5 over 100 cycles, about 24 h operation.
2023 · Experimental manifestation of redox-conductivity in metal-organic frameworks and its implication for semiconductor/insulator switching
Zr(dcphOH-NDI) thin film on FTO · Thin Film · Representative CV at 100 mV s-1 and EIS conductivity analysis in Ar-saturated DMF with 0.1 M KPF6.
2023 · Framework Dimensional Control Boosting Charge Storage in Conjugated Coordination Polymers
pressed-pellet 1D-CuTABQ · Pellet · Pressed pellet; sigma calculated as G L/A from conductance, pellet length and cross-sectional area
2023 · Framework Dimensional Control Boosting Charge Storage in Conjugated Coordination Polymers
pressed-pellet 2D-CuTABQ · Pellet · Pressed pellet; sigma calculated as G L/A from conductance, pellet length and cross-sectional area
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P2.0-20C · Thin Film
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P0.1-30C · Thin Film
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu1.0 P0.1-20C · Thin Film
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P1.0-10C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P1.0-20C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P1.0-5C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P2.0-10C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P2.0-20C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P2.0-5C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P0.1-10C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P0.1-20C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P0.1-40C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu0.1 P0.1-5C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu1.0 P0.1-10C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu1.0 P0.1-20C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu1.0 P0.1-40C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Growth mechanisms and anisotropic softness-dependent conductivity of orientation-controllable metal-organic framework nanofilms
Cu1.0 P0.1-5C · Thin Film · Electronic conductivity parallel to substrate from Os patterned electrodes in air at room temperature.
2023 · Hierarchical conductive metal-organic framework films enabling efficient interfacial mass transfer
Zn-HHTP-H film on Si/SiO2 · Thin Film · Electrical conductivity of different c-MOF plates measured at room temperature.
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Co-F as-synthesised pressed pellet · Pellet · Activation energy of charge mobility derived from conductivity changes with temperature; SI Fig. S6 shows ln sigma versus 1/T plots
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Co-F as-synthesised pressed pellet · Pellet · As-synthesised pressed pellet; ca. 30 C and 60% humidity; current-voltage curve recorded, conductivity calculated from pellet/probe geometry
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Co-F as-synthesised pressed pellet · Pellet · Conductivity measured over 30-60 C; Table 2 reports maximum conductivity and corresponding temperature
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
d-Co-F deguested pressed pellet · Pellet · Deguested sample measured at 30 C after heating as-synthesised MOF at 160 C for 24 h
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
d-Mn-F deguested pressed pellet · Pellet · Deguested sample measured at 30 C after heating as-synthesised MOF at 160 C for 24 h
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
d-Ni-F deguested pressed pellet · Pellet · Deguested sample measured at 30 C after heating as-synthesised MOF at 160 C for 24 h
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
d-Zn-F deguested pressed pellet · Pellet · Deguested sample measured at 30 C after heating as-synthesised MOF at 160 C for 24 h
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Mn-F as-synthesised pressed pellet · Pellet · Activation energy of charge mobility derived from conductivity changes with temperature; SI Fig. S6 shows ln sigma versus 1/T plots
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Mn-F as-synthesised pressed pellet · Pellet · As-synthesised pressed pellet; ca. 30 C and 60% humidity; current-voltage curve recorded, conductivity calculated from pellet/probe geometry
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Mn-F as-synthesised pressed pellet · Pellet · Conductivity measured over 30-60 C; Table 2 reports maximum conductivity and corresponding temperature
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Ni-F as-synthesised pressed pellet · Pellet · Activation energy of charge mobility derived from conductivity changes with temperature; SI Fig. S6 shows ln sigma versus 1/T plots
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Ni-F as-synthesised pressed pellet · Pellet · As-synthesised pressed pellet; ca. 30 C and 60% humidity; current-voltage curve recorded, conductivity calculated from pellet/probe geometry
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Ni-F as-synthesised pressed pellet · Pellet · Conductivity measured over 30-60 C; Table 2 reports maximum conductivity and corresponding temperature
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Zn-F as-synthesised pressed pellet · Pellet · Activation energy of charge mobility derived from conductivity changes with temperature; SI Fig. S6 shows ln sigma versus 1/T plots
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Zn-F as-synthesised pressed pellet · Pellet · As-synthesised pressed pellet; ca. 30 C and 60% humidity; current-voltage curve recorded, conductivity calculated from pellet/probe geometry
2023 · Highly conductive three-dimensional metal organic frameworks from small in situ generated ligands
Zn-F as-synthesised pressed pellet · Pellet · Conductivity measured over 30-60 C; Table 2 reports maximum conductivity and corresponding temperature
2023 · In Situ Oxidation of Pyridyl-Dihydrobenzoimidazoquinazoline and the Synthesis of a Highly Luminescent Cd(II) Coordination Polymer: A Promising Candidate for Mutagenic Nitroaromatic Detection and Device Fabrication
Al/compound 1/ITO thin-film metal-semiconductor device · Thin Film · Room temperature (303 K), dark ambient condition; Al/compound/ITO metal-semiconductor device; effective area 7.065 x 10-6 m2; film thickness 1 micrometre.
2023 · Iodine uptake enhanced electrical conductivity by a metal-organic framework bearing nanotube array of π-stacked columns
compound 1 pellet · Pellet · Pressed pellet; silver glue contacts; 50 um gold wire; I-V sweep from 0 to +1 V; measured at 300 K
2023 · Iodine uptake enhanced electrical conductivity by a metal-organic framework bearing nanotube array of π-stacked columns
desolvated 1 pellet · Pellet · Pressed pellet; silver glue contacts; 50 um gold wire; I-V sweep from 0 to +1 V; measured at 300 K
2023 · Iodine uptake enhanced electrical conductivity by a metal-organic framework bearing nanotube array of π-stacked columns
desolvated 1 pellet · Pellet · I-V curves swept from 0 to +1 V with a temperature step of 10 K; SI Fig. S10 legends show 300-370 K; activation energy extracted from log(sigma)-1/T fit
2023 · Iodine uptake enhanced electrical conductivity by a metal-organic framework bearing nanotube array of π-stacked columns
I2@1 pellet · Pellet · I2@1 from desolvated 1 soaked in 1 mM aqueous I2 for 8 h; pressed pellet; measured at 300 K
2023 · Ionic Liquid-Laden Zn-MOF-74-Based Solid-State Electrolyte for Sodium Batteries
IL0.5@MOF (0.5:1) · Pellet · Activation energy calculated from the slope of ln(sigma) versus inverse temperature; figure reports fitted activation energies for IL@MOF, IL0.8@MOF, IL0.6@MOF and IL0.5@MOF
2023 · Ionic Liquid-Laden Zn-MOF-74-Based Solid-State Electrolyte for Sodium Batteries
IL0.5@MOF (0.5:1) · Pellet · Plane-parallel pellet sample; Solartron 1260; 0.01 to 10^6 Hz; 10 mV; room temperature to 80 deg C; 1 h equilibration at each temperature; ZView 3.0 fitting
2023 · Ionic Liquid-Laden Zn-MOF-74-Based Solid-State Electrolyte for Sodium Batteries
IL0.6@MOF (0.6:1) · Pellet · Plane-parallel pellet sample; Solartron 1260; 0.01 to 10^6 Hz; 10 mV; room temperature to 80 deg C; 1 h equilibration at each temperature; ZView 3.0 fitting
2023 · Ionic Liquid-Laden Zn-MOF-74-Based Solid-State Electrolyte for Sodium Batteries
IL0.8@MOF (0.8:1) · Pellet · Plane-parallel pellet sample; Solartron 1260; 0.01 to 10^6 Hz; 10 mV; room temperature to 80 deg C; 1 h equilibration at each temperature; ZView 3.0 fitting
2023 · Ionic Liquid-Laden Zn-MOF-74-Based Solid-State Electrolyte for Sodium Batteries
IL@MOF (1:1) · Pellet · Plane-parallel pellet sample; Solartron 1260; 0.01 to 10^6 Hz; 10 mV; room temperature to 80 deg C; 1 h equilibration at each temperature; ZView 3.0 fitting
2023 · Ionic Liquid-Laden Zn-MOF-74-Based Solid-State Electrolyte for Sodium Batteries
Zn-MOF-74 powder · Powder · Plane-parallel pellet sample; Solartron 1260 Impedance Analyzer; 0.01 to 10^6 Hz; 10 mV signal amplitude; room temperature to 80 deg C; 1 h equilibration at each temperature; ZView 3.0 fitting
2023 · Ligand-Oxidation-Based Anodic Synthesis of Oriented Films of Conductive M-Catecholate Metal-Organic Frameworks with Controllable Thickness
~100 nm Cu3(HHTP)2 four-probe device on silica · Thin Film · I-V curves recorded under vacuum (~10^-5 mbar) over 100-300 K; conductivity calculated as sigma = (I/V)*(L/Wd).
2023 · Linker-Based Bandgap Tuning in Conductive MOF Solid Solutions
Cu3(TATHB)2 / Cu-TATHB (x = 0) · Pellet · Pressed 5 mm pellets under 1.5 tons; thickness measured by caliper; ambient conditions for bulk conductivity trend.
2023 · Linker-Based Bandgap Tuning in Conductive MOF Solid Solutions
Physically blended Cu-TATHB/Cu-HAB mixtures · Pellet · Mechanically blended Cu-TATHB/Cu-HAB mixtures measured as a control; conditions otherwise analogous to pellet conductivity.
2023 · Linker-Based Bandgap Tuning in Conductive MOF Solid Solutions
Cu3(TATHB)2 / Cu-TATHB (x = 0) · Pellet · Temperature range 293-343 K under vacuum; sigma = sigma0 exp(-Ea/kBT).
2023 · Near IR Bandgap Semiconducting 2D Conjugated Metal-Organic Framework with Rhombic Lattice and High Mobility
Cu2(OHPTP) pellet for van-der-Pauw conductivity · Pellet · Commercial Lakeshore Hall System 9700A; pellet made from MOF powder; under argon; 40-300 K conductivity fit.
2023 · Negative electrodes for supercapacitors with good performance using conductive bismuth-catecholate metal-organic frameworks
pressed Bi(HHTP) pellet series · Pellet · 100 mg samples pressed into 6 mm diameter, 0.4 mm thick pellets; conductivity calculated from voltage-current plots.
2023 · Orientation Control of a Two-Dimensional Conductive Metal-Organic Framework Thin Film by a Pyridine Vapor-Assisted Dry Process
(001)-oriented Cu3(HHTP)2 thin film annealed with 3 uL pyridine · Thin Film · Room-temperature in-plane conductivity; Au electrodes at four corners, 5 mm x 5 mm film specimen, electrode distance about 3 mm; currents 1.00 x 10^-8 to 5.00 x 10^-7 A.
2023 · Orientation Control of a Two-Dimensional Conductive Metal-Organic Framework Thin Film by a Pyridine Vapor-Assisted Dry Process
as-deposited Cu3(HHTP)2-like thin film on alpha-Al2O3 (001) · Thin Film · Room-temperature in-plane conductivity of noncrystalline as-deposited thin film; Au electrodes at four corners; currents 1.00 x 10^-8 to 5.00 x 10^-7 A.
2023 · Overcoming Diffusion Limitation of Faradaic Processes: Property-Performance Relationships of 2D Conductive Metal-Organic Framework Cu3(HHTP)2 for Reversible Lithium-Ion Storage
Flake-like Cu3(HHTP)2 pressed pellet · Pellet · Alpha-A/Novocontrol impedance on pellets between gold electrodes; 0.1 V, 1 Hz to 4 x 10^7 Hz, 22 C, dry nitrogen flow.
2023 · Overcoming Diffusion Limitation of Faradaic Processes: Property-Performance Relationships of 2D Conductive Metal-Organic Framework Cu3(HHTP)2 for Reversible Lithium-Ion Storage
Flake-like Cu3(HHTP)2 pressed pellet · Pellet · Through-plane and in-plane two-probe measurements on pressed pellets; through-plane compressed at 100 N; in-plane U-I from -1 to 1 V with 0.5 cm electrode spacing.
2023 · Overcoming Diffusion Limitation of Faradaic Processes: Property-Performance Relationships of 2D Conductive Metal-Organic Framework Cu3(HHTP)2 for Reversible Lithium-Ion Storage
Gold-coated flake-like Cu3(HHTP)2 pressed pellet · Pellet · Pressed flake-like pellet coated with thin gold film on both sides and remeasured through-plane.
2023 · Overcoming Diffusion Limitation of Faradaic Processes: Property-Performance Relationships of 2D Conductive Metal-Organic Framework Cu3(HHTP)2 for Reversible Lithium-Ion Storage
Rod-like Cu3(HHTP)2 pressed pellet · Pellet · Through-plane and in-plane two-probe measurements on pressed pellets; through-plane compressed at 100 N; in-plane U-I from -1 to 1 V with 0.5 cm electrode spacing.
2023 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
1 pressed pellet · Pellet · Room-temperature pressed-pellet conductivity with ohmic contacts.
2023 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
1-ox pressed pellet · Pellet · Room-temperature pressed-pellet conductivity with ohmic contacts.
2023 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
2 pressed pellet · Pellet · Room-temperature pressed-pellet conductivity with ohmic contacts.
2023 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
2-ox pressed pellet · Pellet · Room-temperature pressed-pellet conductivity with ohmic contacts.
2023 · Oxidatively Doped Tetrathiafulvalene-Based Metal-Organic Frameworks for High Specific Energy of Supercapatteries
1-ox' · Powder · Room-temperature pressed-pellet conductivity for washed doped controls and iodine.
2023 · Photoconductive metal-organic frameworks based on 10,20-meso-substituted Zn-porphyrin and fullerene C60
1 · Model · Au(111) electrodes connected through four sulfur bridges; bias voltages 0, 0.1, 0.2 V
2023 · Photoconductive metal-organic frameworks based on 10,20-meso-substituted Zn-porphyrin and fullerene C60
1@C60 · Model · Au(111) electrodes connected through four sulfur bridges; bias voltages 0, 0.1, 0.2 V
2023 · Photoconductive metal-organic frameworks based on 10,20-meso-substituted Zn-porphyrin and fullerene C60
1@C60_wl · Model · Truncated molecular junction without linker and Zn-O clusters; bias voltages 0, 0.1, 0.2, 0.3 V
2023 · Photoconductive metal-organic frameworks based on 10,20-meso-substituted Zn-porphyrin and fullerene C60
1_wl · Model · Truncated molecular junction without linker and Zn-O clusters; bias voltages 0, 0.1, 0.2, 0.3 V
2023 · Piperazine-linked metal covalent organic framework-coated fibers for efficient electro-enhanced solid-phase microextraction of chlorophenols
CuPc-MCOF-coated stainless steel fibre · Electrode · Reversible Fe2+/Fe3+ redox system; solution containing 0.01 mM [Fe(CN)6]3+/4+ and 0.1 M KCl.
2023 · Preparation of hierarchical MOF-5 films using morphology controlled ZnO coatings for temperature dependent optical sensors application
MOF-5/ZnO nanorod MSM photodetector · Electrode · Dark and 365 nm UV illumination at 290 K and 300 K; bias from -10 to +10 V
2023 · Pyridyl-Isonicotinoyl Hydrazone-Bridged Zn(II) Coordination Framework with Thiophenedicarboxylato Link: Structure, Biological Activity, and Electrical Conductivity
ITO/compound 1/Al metal-semiconductor thin-film device · Thin Film · Room temperature 26 deg C; applied bias within +/-2 V; dark and light illumination with intensity approximately 100 mW cm-2.
2023 · Redox-Active Mixed-Linker Metal–Organic Frameworks with Switchable Semiconductive Characteristics for Tailorable Chemiresistive Sensing
Mn2[TTF]x[NiS4]1-x powder compact series · Pellet · Room-temperature IV under vacuum (10^-6 mbar) using Lake Shore TTPX and Agilent 2902a; conductivity calculated from conductance and compact geometry.
2023 · Redox-Active Two-Dimensional Tetrathiafulvalene-Copper Metal-Organic Framework with Boosted Electrochemical Performances for Supercapatteries
Pressed pellet of 1-ox · Pellet · Linear I-V profiles measured on pressed pellets of 1, 1-ox' and 1-ox.
2023 · Ruthenium(II) complex-grafted conductive metal-organic frameworks with conductivity- and confinement-enhanced electrochemiluminescence for ultrasensitive biosensing application
Ni3(HITP)2 black powder · Powder · Reported literature conductivities used to rationalise ECL differences among Ni, Cu and Co M3(HITP)2 carriers.
2023 · Self-Powered Disinfection Using Triboelectric, Conductive Wires of Metal-Organic Frameworks
Cu-HHTP NW-Cu electrode · Electrode · Conductivity measured using RM3000 Test Unit; Cu-HHTP NW-Cu compared with Cu(OH)2 NW-Cu precursor.
2023 · Self-Powered Disinfection Using Triboelectric, Conductive Wires of Metal-Organic Frameworks
Cu-HHTP NW-Cu electrode · Electrode · River water from Qing He River and tap water from Renmin University of China.
2023 · Self-Powered Infrared Photodetectors with Ultra-High Speed and Detectivity Based on Amorphous Cu-Based MOF Films
p-a-Cu-HHTP/n-Si self-powered photodetector · Electrode · p-a-Cu-HHTP/n-Si photodetector under dark and 980 nm, 1000 uW cm-2 illumination.
2023 · Self-Powered Infrared Photodetectors with Ultra-High Speed and Detectivity Based on Amorphous Cu-Based MOF Films
flexible p-a-Cu-HHTP MSM photodetector on PI · Electrode · Flexible MSM p-a-Cu-HHTP photodetector measured in dark and under 980 nm illumination at 20 V bias.
2023 · Self-Powered Infrared Photodetectors with Ultra-High Speed and Detectivity Based on Amorphous Cu-Based MOF Films
p-a-Cu-HHTP MOF film on electrospun nanofibres · Thin Film · Resistivity measured at different temperatures; ln(sigma/sigma300K) fitted to extended-state, tailed-state, and short-range hopping components.
2023 · Semiconducting Conjugated Coordination Polymer with High Charge Mobility Enabled by “4 + 2” Phenyl Ligands
Cu4DHTTB pellet sample · Pellet · Pellet with four parallel gold electrodes, 500 um electrode width, 1 mm spacing, measured under high vacuum and dark environment with 100 mA current.
2023 · Semiconducting Conjugated Coordination Polymer with High Charge Mobility Enabled by “4 + 2” Phenyl Ligands
Cu4DHTTB thin film on fused silica/SiO2 substrate · Thin Film · THz waveforms through blank SiO2, Cu3BHT and Cu4DHTTB films recorded without photoexcitation; Fourier transformed to obtain sigma(omega).
2023 · Stabilizing Redox-Active Hexaazatriphenylene in a 2D Conductive Metal–Organic Framework for Improved Lithium Storage Performance
pressed Cu-HATN bulk pellet · Pellet · Pressed bulk sample under ambient conditions; Keithley 4200A-SCS parameter analyser.
2023 · Structures and electrical conductivities of a series of coordination polymers based on tetrathiafulvalene
Complex 1 powdered-crystal pellet · Pellet · Room temperature, ambient atmosphere; compressed pellet coated with silver glue on both sides and contacted with gold wires; voltage swept from -2 to +2 V or -5 to +5 V
2023 · Structures and electrical conductivities of a series of coordination polymers based on tetrathiafulvalene
Complex 2 powdered-crystal pellet · Pellet · Room temperature, ambient atmosphere; compressed pellet coated with silver glue on both sides and contacted with gold wires; voltage swept from -2 to +2 V or -5 to +5 V
2023 · Structures and electrical conductivities of a series of coordination polymers based on tetrathiafulvalene
Complex 3 powdered-crystal pellet · Pellet · Room temperature, ambient atmosphere; compressed pellet coated with silver glue on both sides and contacted with gold wires; voltage swept from -2 to +2 V or -5 to +5 V
2023 · Super Proton Conductivity Through Control of Hydrogen-Bonding Networks in Flexible Metal–Organic Frameworks
Im@MIL-88B-LB · Powder · Activation energies extracted from 20-60 deg C conductivity at 95% RH for pristine and imidazole-loaded MIL-88B samples.
2023 · Synthesis, structure, and lithium storage performance of non-conductive metal–organic frameworks for high-performance lithium-ion batteries
Ni-mba-K conductivity pellet · Pellet · 20-40 um cold-pressed pellet, gold contacts, four-arm Lakeshore probe station under vacuum (10^-4 Pa), 30 deg C reported
2023 · Synthesis, structure, and lithium storage performance of non-conductive metal–organic frameworks for high-performance lithium-ion batteries
Ni-mba-Na conductivity pellet · Pellet · 20-40 um cold-pressed pellet, gold contacts, four-arm Lakeshore probe station under vacuum (10^-4 Pa), 30 deg C reported
2023 · Two Dual-Function Zr/Hf-MOFs as High-Performance Proton Conductors and Amines Impedance Sensors
DUT-67(Hf) pressed pellet with platinum electrodes · Pellet · Ea fitted from temperature-dependent proton conductivity at 68% and 98% RH
2023 · Two Dual-Function Zr/Hf-MOFs as High-Performance Proton Conductors and Amines Impedance Sensors
DUT-67(Zr) pressed pellet with platinum electrodes · Pellet · Ea fitted from temperature-dependent proton conductivity at 68% and 98% RH
2023 · Two Dual-Function Zr/Hf-MOFs as High-Performance Proton Conductors and Amines Impedance Sensors
DUT-67(Hf) pressed pellet with platinum electrodes · Pellet · 30-100 deg C, 68/75/85/93/98% RH and 98% RH-D2O; 100 mV, 1-10^6 Hz; quasi-four-probe
2023 · Two Dual-Function Zr/Hf-MOFs as High-Performance Proton Conductors and Amines Impedance Sensors
DUT-67(Zr) pressed pellet with platinum electrodes · Pellet · 30-100 deg C, 68/75/85/93/98% RH and 98% RH-D2O; 100 mV, 1-10^6 Hz; quasi-four-probe
2023 · Two-Dimensional Conductive Metal-Organic Framework Reinforced Spinterface in Organic Spin Valves
PcCu-Cu-30C MOF film · Thin Film · PcCu-Cu-30C film; Au-patterned two-probe conductivity versus temperature.
2023 · Two-Dimensional Conductive Metal-Organic Framework Reinforced Spinterface in Organic Spin Valves
PcH2-Cu-30C MOF film · Thin Film · PcH2-Cu-30C film; Au-patterned two-probe conductivity versus temperature.
2023 · Two-Dimensional Conductive Metal-Organic Framework Reinforced Spinterface in Organic Spin Valves
PcNi-Cu-30C MOF film · Thin Film · PcNi-Cu-30C film; Au-patterned two-probe conductivity versus temperature.
2023 · Two-Dimensional Conductive Metal-Organic Framework Reinforced Spinterface in Organic Spin Valves
PcM-Cu-nC MOF film series (M = Ni, Cu, H2; n = 10-40 cycles) · Thin Film · Au-patterned PcM-Cu MOF films; conductivity versus reciprocal temperature; vacuum at 300 K for reported conductivities.
2023 · Two-Dimensional Conjugated Metal-Organic Frameworks with Large Pore Apertures and High Surface Areas for NO2 Selective Chemiresistive Sensing
HIOTP-Cu pressed pellet · Pellet · Ambient conditions on pressed pellet; Keithley 4200-SCS source meter.
2023 · Two-Dimensional Conjugated Metal-Organic Frameworks with Large Pore Apertures and High Surface Areas for NO2 Selective Chemiresistive Sensing
HIOTP-Ni pressed pellet · Pellet · Ambient conditions on pressed pellet; Keithley 4200-SCS source meter.
2023 · Two-Dimensional Conjugated Metal-Organic Frameworks with Large Pore Apertures and High Surface Areas for NO2 Selective Chemiresistive Sensing
iodine-doped HIOTP-Ni pellet · Pellet · Iodine-doped pressed pellets measured by current-voltage curves at 298 K.
2023 · Two-Dimensional Conjugated Metal-Organic Frameworks with Large Pore Apertures and High Surface Areas for NO2 Selective Chemiresistive Sensing
HIOTP-Ni pressed pellet · Pellet · Variable-temperature conductivity measurements; main text states 273-313 K, while SI axes show a higher plotted range.
2023 · Ultrasensitive levofloxacin electrochemical biosensor based on semiconducting covalent organic framework/poly-L-cysteine/triangular Ag nanoplates modified glassy carbon electrode
TABQ-CHHO-COF powder · Powder · Conductivity of synthesised nitrogen-rich TABQ-CHHO-COF reported in design rationale.
2023 · Wavy Two-Dimensional Conjugated Metal-Organic Framework with Metallic Charge Transport
Cu3(HFcHBC)2 polycrystalline film · Thin Film · Thin films on Si/SiO2; silver-conductive glue contacts; measured 320-100 K with Lakeshore Hall System; I-V collected from -10 nA to 10 nA after Ohmic contact confirmation.
2023 · Wavy Two-Dimensional Conjugated Metal-Organic Framework with Metallic Charge Transport
Isolated Cu3(HFcHBC)2 single crystal device · Single Crystal · Room-temperature transport comparison under air and vacuum to assess absorbed-water influence.
2023 · Wavy Two-Dimensional Conjugated Metal-Organic Framework with Metallic Charge Transport
Isolated Cu3(HFcHBC)2 single crystal device · Single Crystal · Temperature-dependent conductivity from 310 to 100 K; contact resistance excluded for room-temperature conductivity; Ohmic contacts checked by I-V.
2023 · Zeolites as a Class of Semiconductors for High-Performance Electrically Transduced Sensing
Na-ZSM-5 (9.8) · Powder · EIS recorded 250-325 C for Na-ZSM-5 (9.8); 1 MHz to 0.1 Hz
2023 · Zeolites as a Class of Semiconductors for High-Performance Electrically Transduced Sensing
Na-MTW (22) · Powder · Na-MTW (22, 30, 46) at 25-350 C
2023 · Zeolites as a Class of Semiconductors for High-Performance Electrically Transduced Sensing
Na-ZSM-5 (9.8) · Powder · Na-ZSM-5 diode device; 25-350 C depending on measurement
2023 · Zeolites as a Class of Semiconductors for High-Performance Electrically Transduced Sensing
Na-ZSM-5 (9.8) UV photodetector film · Thin Film · 280 nm UV illumination at 1 V bias; room temperature
2022 · 2D Cd(II)-MOF of Pyridyl-Imidazoquinazoline: Structure, Luminescence, and Selective Detection of TNP and Fabrication of Semiconducting Devices
ITO/CP 1/Al metal-semiconductor thin-film device · Thin Film · Room temperature, ambient conditions; dark and AM 1.5G photoirradiation/light measurements; forward/reverse bias around +/-2 V.
2022 · 2D Cd(II)-MOF of Pyridyl-Imidazoquinazoline: Structure, Luminescence, and Selective Detection of TNP and Fabrication of Semiconducting Devices
ITO/CP 1/Al metal-semiconductor thin-film device · Thin Film · 310 nm UV and 700 nm visible light; intensity varied at 80, 100 (AM1.5G standard), and 120 mW cm^-2; calibrated photodiodes used at point of measurement.
2022 · 2D Metal–Organic Framework Cu3(HHTT)2 Films for Broadband Photodetectors from Ultraviolet to Mid-Infrared
Optimised 12-cycle Cu3(HHTT)2 film on SiO2/Si · Thin Film · AC conductivity measured from 1 to 20 kHz at room temperature; probe station in glovebox connected to electrochemical workstation.
2022 · 2D Metal–Organic Framework Cu3(HHTT)2 Films for Broadband Photodetectors from Ultraviolet to Mid-Infrared
Optimised 12-cycle Cu3(HHTT)2 film on SiO2/Si · Thin Film · Cu3(HHTT)2 film on SiO2/Si substrate with prepatterned Au electrodes; channel length 5 um and width 800 um; conductivity measured from 295 to 10 K.
2022 · 2D Metal–Organic Framework Cu3(HHTT)2 Films for Broadband Photodetectors from Ultraviolet to Mid-Infrared
Optimised 12-cycle Cu3(HHTT)2 film on SiO2/Si · Thin Film · High-bias nonlinear I-V curves fitted to SCLC equation over 255-120 K; dielectric constant assumed 1.5.
2022 · 2D Metal–Organic Framework Cu3(HHTT)2 Films for Broadband Photodetectors from Ultraviolet to Mid-Infrared
Cu3(HHTT)2 optimum-condition thickness series · Thin Film · Devices with 4, 6, 8, and 12 growth cycles; I_DS versus V_DS from -1 to 1 V.
2022 · A Monocrystalline Coordination Polymer with Multiple Redox Centers as a High-Performance Cathode for Lithium-Ion Batteries
pressed CuCA pellet for four-point probe · Pellet · Pressed CuCA pellet measured using RTS-8 four-point probe meter.
2022 · A Novel Electrically Conductive Perylene Diimide-Based MOF-74 Series Featuring Luminescence and Redox Activity
PDI-MOF-74(Mg) pressed pellet · Pellet · HMS-5000/AMP55 Ecopia Hall Effect Measurement System; Au contacts in square geometry; about 5.2 mm contact distance; about 500 um pellet thickness; ambient room temperature; dark; voltage -7 to 7 V
2022 · A Novel Electrically Conductive Perylene Diimide-Based MOF-74 Series Featuring Luminescence and Redox Activity
PDI-MOF-74(Ni) pressed pellet · Pellet · HMS-5000/AMP55 Ecopia Hall Effect Measurement System; Au contacts in square geometry; about 5.2 mm contact distance; about 500 um pellet thickness; ambient room temperature; dark; voltage -7 to 7 V
2022 · A Novel Electrically Conductive Perylene Diimide-Based MOF-74 Series Featuring Luminescence and Redox Activity
PDI-MOF-74(Zn) pressed pellet · Pellet · HMS-5000/AMP55 Ecopia Hall Effect Measurement System; Au contacts in square geometry; about 5.2 mm contact distance; about 500 um pellet thickness; ambient room temperature; dark; voltage -7 to 7 V
2022 · A novel Sn-based coordination polymer with high-efficiency and ultrafast lithium storage
pressed Sn-DHTPA powder for four-point probe · Pellet · 4ppscan system at room temperature after pressing powder in stainless-steel die for 0.5 h at 10 MPa
2022 · A one-dimensional conductive metal-organic framework with extended π-d conjugated nanoribbon layers
DDA-Cu film two-terminal device on Si/SiO2 · Thin Film · Si/SiO2 transferred film; l=50 um, d=1400 um, h~8 nm; room temperature
2022 · A semiconducting uranium-organic framework based on a tetrathiafulvalene derivative
SCU-125 pressed pellets · Pellet · 25 deg C +/- 2 deg C; voltage swept from -5 to 5 V; four samples with different thicknesses; I-V curves repeated three times for each sample.
2022 · A stable lanthanum hydroxamate metal-organic framework with radical character and electrical conductivity
La-ONDI-Catechol pressed pellet · Pellet · Same pellet geometry and ambient two-contact method as La-ONDI-DMA.
2022 · A stable lanthanum hydroxamate metal-organic framework with radical character and electrical conductivity
La-ONDI-DMA pressed pellet · Pellet · Pressed pellet between two silver-ink-coated hard plastic sheets covered with Cu film; Biologic SP-150 potentiostat; voltage sweep -1 to +1 V; room temperature under ambient atmosphere.
2022 · A stable lanthanum hydroxamate metal-organic framework with radical character and electrical conductivity
La-ONDI-DMF pressed pellet · Pellet · Same pellet geometry and ambient two-contact method as La-ONDI-DMA.
2022 · A stable lanthanum hydroxamate metal-organic framework with radical character and electrical conductivity
La-ONDI-DMF pressed pellet · Pellet · Pressed pellet conductivities measured in an oven under ambient atmosphere; oven temperature increased from room temperature to 80 C in 2 h. DMF sample is representative sample key; DMA and Catechol activation energies are also recorded in results.
2022 · Adjustable Synthesis of Ni-Based Metal-Organic Framework Membranes and Their Field-Effect Transistor Sensors for Mercury Detection
S4-based Ni3(HITP)2-GA-DNA FET sensor · Electrode · Channel membrane electrical properties tested before and after modification with GA and DNA probes.
2022 · Atomic Ruthenium-Riveted Metal-Organic Framework with Tunable d-Band Modulates Oxygen Redox for Lithium-Oxygen Batteries
Ni-HTP pellet · Pellet · pellet I-V at 298.25 K; L = 2.00 mm, D = 7.00 mm
2022 · Atomic Ruthenium-Riveted Metal-Organic Framework with Tunable d-Band Modulates Oxygen Redox for Lithium-Oxygen Batteries
NiRu-HTP pellet · Pellet · pellet I-V at 298.25 K; L = 2.00 mm, D = 7.00 mm
2022 · Atomically Precise Integration of Multiple Functional Motifs in Catalytic Metal-Organic Frameworks for Highly Efficient Nitrate Electroreduction
As-synthesised In8 red block crystals/powder · Single Crystal · In8 measured at 303 K and 90% RH; reported to follow ionic-capacitive conduction mechanism.
2022 · Atomically Precise Integration of Multiple Functional Motifs in Catalytic Metal-Organic Frameworks for Highly Efficient Nitrate Electroreduction
As-synthesised In8 red block crystals/powder · Single Crystal · In4 and In8 measured at 303 K and 98% RH; In8 also reported at 343 K and 98% RH.
2022 · Boosting the Optoelectronic Performance by Regulating Exciton Behaviors in a Porous Semiconductive Metal-Organic Framework
mechanical mixture pelleted wafer detector · Pellet · Dark and 17.5 mGyair/s X-ray irradiation; Ag/sample/Ag detector.
2022 · Boosting the Optoelectronic Performance by Regulating Exciton Behaviors in a Porous Semiconductive Metal-Organic Framework
RhB+@TbTATAB pelleted wafer detector · Pellet · Tungsten anode radiation device; tube voltage/current 30-160 kV and 2-25 mA; dose-rate calibrated 0.883-17.52 mGyair s-1; current recorded by Keithley 6517B.
2022 · Boosting the Optoelectronic Performance by Regulating Exciton Behaviors in a Porous Semiconductive Metal-Organic Framework
TbTATAB pelleted wafer detector · Pellet · Dark and 17.5 mGyair/s X-ray irradiation; Ag/sample/Ag detector.
2022 · Bromine Vapor Induced Continuous p- to n-Type Conversion of a Semiconductive Metal-Organic Framework Cu[Cu(pdt)2]
Brx@Cu[Cu(pdt)2] bromine-doped series · Powder · Agilent E5291A SMU in E5260A mainframe; conductivities from J-E slope at E = 0.
2022 · Bromine Vapor Induced Continuous p- to n-Type Conversion of a Semiconductive Metal-Organic Framework Cu[Cu(pdt)2]
Br0.44@Cu[Cu(pdt)2] · Pellet · Quantum Design PPMS under constant voltage 95 mV; Arrhenius plot for Br0.44@Cu[Cu(pdt)2].
2022 · Charge-transfer interface of insulating metal-organic frameworks with metallic conduction
Pristine Cu-BPyDC thin film · Thin Film · Room-temperature I-V profile with EGaIn contacts.
2022 · Charge-transfer interface of insulating metal-organic frameworks with metallic conduction
Pristine Cu-TCNQ thin film · Thin Film · Room-temperature cross-plane and in-plane I-V profiles with EGaIn contacts.
2022 · Charge-transfer interface of insulating metal-organic frameworks with metallic conduction
Cu-TCNQ/Cu-BPyDC heterostructured thin film · Thin Film · Room-temperature in-plane and cross-plane I-V profiles on several spots and batches.
2022 · Charge-transfer interface of insulating metal-organic frameworks with metallic conduction
TCNQ@Cu-BPyDC thin film · Thin Film · Room-temperature in-plane and cross-plane I-V profiles for TCNQ@Cu-BPyDC.
2022 · Charge-transfer interface of insulating metal-organic frameworks with metallic conduction
Cu-TCNQ/Cu-BPyDC heterostructured thin film · Thin Film · Cross-plane I-V profiles from 160 K to 373 K.
2022 · Charge-transfer interface of insulating metal-organic frameworks with metallic conduction
TCNQ@Cu-BPyDC thin film · Thin Film · Cross-plane I-V profiles from 160 K to 373 K.
2022 · Charge. transport, conductivity and Seebeck coefficient in pristine and TCNQ loaded preferentially grown metal-organic framework films
Random polycrystalline TCNQ-loaded HKUST-1 SURMOF film on borosilicate glass, ca. 130 nm · Thin Film · Conductivity of approximately 130 nm TCNQ-loaded random polycrystalline HKUST-1 film on insulating borosilicate glass over 260-350 K.
2022 · Charge. transport, conductivity and Seebeck coefficient in pristine and TCNQ loaded preferentially grown metal-organic framework films
Random polycrystalline TCNQ-loaded HKUST-1 SURMOF film on hydroxyl-terminated SiO2/Si · Thin Film · TCNQ-loaded SURMOF film on 40 nm isolation SiO2 covered Si with bottom Au contacts.
2022 · Charge. transport, conductivity and Seebeck coefficient in pristine and TCNQ loaded preferentially grown metal-organic framework films
Preferentially (001)-oriented pristine HKUST-1 SURMOF film, 100 nm · Thin Film · In-plane I-V from -10 V to 10 V on preferentially (001)-oriented pristine HKUST-1 film on functionalized quartz.
2022 · Charge. transport, conductivity and Seebeck coefficient in pristine and TCNQ loaded preferentially grown metal-organic framework films
Preferentially (001)-oriented TCNQ-loaded HKUST-1 SURMOF film, 100 nm · Thin Film · In-plane I-V from -10 V to 10 V on preferentially oriented TCNQ-loaded HKUST-1 film on functionalized quartz.
2022 · Charge. transport, conductivity and Seebeck coefficient in pristine and TCNQ loaded preferentially grown metal-organic framework films
Random polycrystalline pristine HKUST-1 SURMOF film on borosilicate glass, ca. 130 nm · Thin Film · Lateral in-plane I-V between Au contacts on pristine random polycrystalline film on borosilicate glass.
2022 · Charge. transport, conductivity and Seebeck coefficient in pristine and TCNQ loaded preferentially grown metal-organic framework films
Random polycrystalline TCNQ-loaded HKUST-1 SURMOF film on borosilicate glass, ca. 130 nm · Thin Film · Lateral in-plane I-V between Au contact pairs AB, BC, CD and DA on TCNQ-loaded random polycrystalline film.
2022 · Chemical structure modulation in conductive MOFs by adjusting the oxidation state of the ligand and introducing alkali metal ions
MnCsTHBQ compressed cuboid pellet · Pellet · Compressed cuboid pellet; 300-400 K; KEITHLEY 2002 multimeter; conductive adhesive contacts.
2022 · Chemical structure modulation in conductive MOFs by adjusting the oxidation state of the ligand and introducing alkali metal ions
MnHHB compressed cuboid pellet · Pellet · Compressed cuboid pellet; 300-400 K; KEITHLEY 2002 multimeter; conductive adhesive contacts.
2022 · Chemical structure modulation in conductive MOFs by adjusting the oxidation state of the ligand and introducing alkali metal ions
MnRbTHBQ compressed cuboid pellet · Pellet · Compressed cuboid pellet; 300-400 K; KEITHLEY 2002 multimeter; conductive adhesive contacts.
2022 · Chemical Vapor Deposition of Edge-on Oriented 2D Conductive Metal-Organic Framework Thin Films
EBL-patterned Cu3(C6O6)2 four-point-probe thin-film device · Electrode · Ohmic contact check between Cu3(C6O6)2 film and Au electrodes.
2022 · Chemical Vapor Deposition of Edge-on Oriented 2D Conductive Metal-Organic Framework Thin Films
EBL-patterned Cu3(C6O6)2 four-point-probe thin-film device · Electrode · High vacuum; channel length 500 nm and channel width 5 um in main text; VT measurements only with four-point probe devices.
2022 · Chemical Vapor Deposition of Edge-on Oriented 2D Conductive Metal-Organic Framework Thin Films
Scraped Cu3(C6O6)2 powder pellet · Pellet · Powder obtained by scraping thin film; pellet measured at 273 K.
2022 · Chemical Vapor Deposition of Edge-on Oriented 2D Conductive Metal-Organic Framework Thin Films
EBL-patterned Cu3(C6O6)2 four-point-probe thin-film device · Electrode · Device cooled to about 130 K with He compressor in SI method; main transport analysis covers Arrhenius and 3D variable-range hopping regimes.
2022 · Conductive Hybrid Cu-HHTP-TCNQ Metal–Organic Frameworks for Chemiresistive Sensing
Cu-HHTP-TCNQ film on glass chip with prepatterned gold electrodes, 45 min · Electrode · Voltage swept linearly with amplitude 3 V at 12 V s^-1; current monitored by current amplifier; nonconducting devices below 1 nS excluded.
2022 · Conductive Hybrid Cu-HHTP-TCNQ Metal–Organic Frameworks for Chemiresistive Sensing
Cu-HHTP-TCNQ film on glass chip with prepatterned gold electrodes, 45 min · Electrode · Variable-temperature cryostat, Keithley 236 SMU, maximum current 9 nA, sweep rate 0.1 nA s^-1; temperature controlled with mK resolution.
2022 · Conductive NiCo bimetal-organic framework nanorods with conductivity-enhanced electrochemiluminescence for constructing biosensing platform
NiCo-HHTP nanorods · Powder · NiCo-HHTP and Ni-HHTP compared; exact device geometry and calculation details not supplied in main article.
2022 · Conductive NiCo bimetal-organic framework nanorods with conductivity-enhanced electrochemiluminescence for constructing biosensing platform
Ni-HHTP monometallic MOF control · Powder · Ni-HHTP monometallic control measured for comparison with NiCo-HHTP.
2022 · Conjugated Metal-Organic Macrocycles: Synthesis, Characterization, and Electrical Conductivity
Cu3(HHTP)2 pressed-pellet control · Pellet · Cu3(HHTP)2 pellet control measured with the same two-electrode screw cell; three pellet values in Table S7 and average in Table 2.
2022 · Conjugated Metal-Organic Macrocycles: Synthesis, Characterization, and Electrical Conductivity
Cu3(HHTP)2 single-crystal literature comparator · Single Crystal · Literature comparator from ref. 43 tabulated in this paper.
2022 · Conjugated Metal-Organic Macrocycles: Synthesis, Characterization, and Electrical Conductivity
CuTOTP-OC18 bulk powder/pellet sample · Powder · Packed pellets measured with BioLogic SP-200 using two-electrode PEEK/brass screw cell; 8-10 mg powder, 0.56 Nm compression, settled 8 h then 18 h; average of three measurements in Table 2.
2022 · Conjugated Metal-Organic Macrocycles: Synthesis, Characterization, and Electrical Conductivity
CuTOTP-OC2 bulk powder/pellet sample · Powder · Packed pellets measured with BioLogic SP-200 using two-electrode PEEK/brass screw cell; 8-10 mg powder, 0.56 Nm compression, settled 8 h then 18 h; average of three measurements in Table 2.
2022 · Conjugated Metal-Organic Macrocycles: Synthesis, Characterization, and Electrical Conductivity
CuTOTP-OC4 bulk powder/pellet sample · Powder · Packed pellets measured with BioLogic SP-200 using two-electrode PEEK/brass screw cell; 8-10 mg powder, 0.56 Nm compression, settled 8 h then 18 h; average of three measurements in Table 2.
2022 · Conjugated Metal-Organic Macrocycles: Synthesis, Characterization, and Electrical Conductivity
CuTOTP-OC6 bulk powder/pellet sample · Powder · Packed pellets measured with BioLogic SP-200 using two-electrode PEEK/brass screw cell; 8-10 mg powder, 0.56 Nm compression, settled 8 h then 18 h; average of three measurements in Table 2.
2022 · Conjugated Metal-Organic Macrocycles: Synthesis, Characterization, and Electrical Conductivity
H4TOTP-OC2 plus copper acetate monohydrate 1:1 packed control · Pellet · 1:1 mol mixture with copper acetate monohydrate packed and measured as detailed for conductivity cell.
2022 · Conjugated Metal-Organic Macrocycles: Synthesis, Characterization, and Electrical Conductivity
3-OC2 plus copper acetate monohydrate 1:1 packed control · Pellet · 1:1 mol mixture with copper acetate monohydrate packed and measured as detailed for conductivity cell.
2022 · Constructing a Redox-Active Cu(I)-Pyridyltriazine Framework for Catalytic Photoreduction of Nitrobenzenes and Carboxylic Cyclization of Alkynol with CO2
Cu(I)-TPT tablet for I-V conductivity · Pellet · Linear I-V sweep from -2 to 2 V under ambient conditions; dark, 300 W xenon irradiation, and xenon irradiation with ethanol sacrificial donor.
2022 · Crystal Structure and Electrochemical and Charge Transfer Properties in Redox-Active Coordination Polymers Based on a Truncated Tetrathiafulvalene Linker
Cd-m-TTFTB pressed pellet · Pellet · Pressed pellet; Keithley 2400 source meter; CRX-4K probe station; ambient conditions; voltage swept from -2 V to 2 V.
2022 · Crystal Structure and Electrochemical and Charge Transfer Properties in Redox-Active Coordination Polymers Based on a Truncated Tetrathiafulvalene Linker
Zn-m-TTFTB pressed pellet · Pellet · Pressed pellet; Keithley 2400 source meter; CRX-4K probe station; ambient conditions; voltage swept from -2 V to 2 V.
2022 · Defect Engineering to Tailor Metal Vacancies in 2D Conductive Metal-Organic Frameworks: An Example in Electrochemical Sensing
Ag-BHT film prepared at pH 2 · Thin Film · Room-temperature conductivity for Ag-BHT films prepared at pH 2, 1, and 0.
2022 · Defect Engineering to Tailor Metal Vacancies in 2D Conductive Metal-Organic Frameworks: An Example in Electrochemical Sensing
Cu-BHT film prepared at pH 2 · Thin Film · Room-temperature conductivity for Cu-BHT films prepared at pH 2, 1, and 0; three samples per pH, four positions per film.
2022 · Defect Engineering to Tailor Metal Vacancies in 2D Conductive Metal-Organic Frameworks: An Example in Electrochemical Sensing
Cu-BHT film prepared at pH 2 · Thin Film · Conductivity of Cu-BHT films measured as a function of increasing temperature; log(sigma) vs reciprocal temperature plotted.
2022 · Defect Engineering to Tailor Metal Vacancies in 2D Conductive Metal-Organic Frameworks: An Example in Electrochemical Sensing
Ni-BHT film prepared at pH 2 · Thin Film · Room-temperature conductivity for Ni-BHT films prepared at pH 2, 1, and 0.
2022 · Dimensionality Modulates Electrical Conductivity in Compositionally Constant One-, Two-, and Three-Dimensional Frameworks
As-synthesised Ni-3D rods worked up under N2 · Powder · Anaerobic Ni-3D measured before and after air exposure/oxidation to Ni-3D-ox.
2022 · Dimensionality Modulates Electrical Conductivity in Compositionally Constant One-, Two-, and Three-Dimensional Frameworks
Ni-1D rods/bricks · Powder · Pressed pellets measured at 296 K in ambient atmosphere; four parallel copper-wire contacts and gold-plated tungsten probes; at least three pellets from four separate batches averaged.
2022 · Dimensionality Modulates Electrical Conductivity in Compositionally Constant One-, Two-, and Three-Dimensional Frameworks
Ni-1D rods/bricks · Powder · PPMS DynaCool, Electrical Transport Option, 15 or 100 K to 350 or 400 K; heating/cooling cycles; Ni-2D cooling sequence first to prevent transformation.
2022 · Electrical conductivity through π–π stacking in a two-dimensional porous gallium catecholate metal–organic framework
Pressed pellet of Ga9(HOTP)4 · Pellet · Sample I-V curve for a pressed pellet; linear fit used to demonstrate Ohmic behaviour.
2022 · Electrical conductivity through π–π stacking in a two-dimensional porous gallium catecholate metal–organic framework
Pressed pellet of Ga9(HOTP)4 · Pellet · Room-temperature conductivity measured over three independent batches; each point in Figure 4A represents a separate device.
2022 · Electrical conductivity through π–π stacking in a two-dimensional porous gallium catecholate metal–organic framework
Pressed pellet of Ga9(HOTP)4 · Pellet · Temperature-dependent conductivity of pressed pellets fit between 100 and 290 K using a three-dimensional Mott VRH law.
2022 · Electrically Conductive Photoluminescent Porphyrin Phosphonate Metal–Organic Frameworks
GTUB3 single crystals and small crystal bundles under DC probe · Single Crystal · Keithley DMM4050 6.5-digit multimeter; stainless-steel probe moved by x/y/z micrometer stages under optical microscope; about 200 random measurements; two-wire/probe resistance about 8 Ohm compensated.
2022 · Electrically regulating nonlinear optical limiting of metal-organic framework film
Cu-HHTP[001] film · Thin Film · Vertical devices; voltage swept from about -2 to +2 V as shown in Fig. 3a.
2022 · Enhancing the energy storage performances of metal-organic frameworks by controlling microstructure
A-CuHHTP powder · Powder · Pellet pressed in 13 mm evacuable die; 4 ton-force cm^-2 for 1 min; measured under 4 ton-force cm^-2 between stainless-steel electrodes with Keithley 2000 multimeter.
2022 · Enhancing the energy storage performances of metal-organic frameworks by controlling microstructure
B-CuHHTP powder · Powder · Same two-point pressed-pellet method as A-CuHHTP.
2022 · Enhancing the energy storage performances of metal-organic frameworks by controlling microstructure
C-CuHHTP powder · Powder · Same two-point pressed-pellet method as A-CuHHTP.
2022 · Exploration of Variable Temperature Magnetism and Electrical Properties of a Pyridyl-isonicotinoyl Hydrazone Bridged Three-Dimensional Mn-Metal-Organic Framework with a Thiophene Dicarboxylato Link
ITO/1/Al thin-film Schottky device · Thin Film · ITO/1/Al device; voltage swept from -2 V to +2 V; dark condition for Table 1
2022 · Flexible Smart Wearable Co@C@Carbon Fabric for Efficient Electromagnetic Shielding, Thermal Therapy, and Human Movement Monitoring
CF-1000 · Thin Film · Surface resistance of CF-1000 control fabric.
2022 · Flexible Smart Wearable Co@C@Carbon Fabric for Efficient Electromagnetic Shielding, Thermal Therapy, and Human Movement Monitoring
CF-700 · Thin Film · Surface resistance of CF-700 control fabric.
2022 · Flexible Smart Wearable Co@C@Carbon Fabric for Efficient Electromagnetic Shielding, Thermal Therapy, and Human Movement Monitoring
CF-800 · Thin Film · Surface resistance of CF-800 control fabric.
2022 · Flexible Smart Wearable Co@C@Carbon Fabric for Efficient Electromagnetic Shielding, Thermal Therapy, and Human Movement Monitoring
CF-900 · Thin Film · Surface resistance of CF-900 control fabric.
2022 · Flexible Smart Wearable Co@C@Carbon Fabric for Efficient Electromagnetic Shielding, Thermal Therapy, and Human Movement Monitoring
Co-CCF-1000 · Thin Film · Surface resistance of Co-CCF-1000.
2022 · Flexible Smart Wearable Co@C@Carbon Fabric for Efficient Electromagnetic Shielding, Thermal Therapy, and Human Movement Monitoring
Co-CCF-700 · Thin Film · Surface resistance of Co-CCF-700.
2022 · Flexible Smart Wearable Co@C@Carbon Fabric for Efficient Electromagnetic Shielding, Thermal Therapy, and Human Movement Monitoring
Co-CCF-800 · Thin Film · Surface resistance of Co-CCF-800.
2022 · Flexible Smart Wearable Co@C@Carbon Fabric for Efficient Electromagnetic Shielding, Thermal Therapy, and Human Movement Monitoring
Co-CCF-900 · Thin Film · Surface resistance of Co-CCF-900.
2022 · Flexible Smart Wearable Co@C@Carbon Fabric for Efficient Electromagnetic Shielding, Thermal Therapy, and Human Movement Monitoring
Co-PCCF-1000 · Thin Film · Surface resistance of Co-PCCF-1000 after PDMS encapsulation.
2022 · From 2D to 3D: Postsynthetic Pillar Insertion in Electrically Conductive MOF
Pressed Cu-THQ-BPY pellet series · Pellet · Pressed pellets from Cu-THQ-BPY powders with varied BPY feed ratios; approximately 5 mg powder under 1.5 tons; no binder or conducting additive; room temperature.
2022 · From 2D to 3D: Postsynthetic Pillar Insertion in Electrically Conductive MOF
Pressed Cu-THQ pellet for four-point conductivity · Pellet · Pressed pellet, approximately 5 mg powder under 1.5 tons; no binder or conducting additive; Keithley SCS-4200 parameter analyser at room temperature.
2022 · From 2D to 3D: Postsynthetic Pillar Insertion in Electrically Conductive MOF
Physically mixed Cu-THQ and BPY powder · Powder · Physical mixture of Cu-THQ and equivalent BPY molecules tested to check whether BPY mixing alone changes conductivity.
2022 · From 2D to 3D: Postsynthetic Pillar Insertion in Electrically Conductive MOF
Pressed Cu-THQ-BPY pellet series · Pellet · Conductivity versus temperature fitted to sigma = sigma0 exp(-Ea/kBT); Figure 4b compares Cu-THQ and Cu-THQ-BPY.
2022 · High performance Li-, Na-, and K-ion storage in electrically conducting coordination polymers
pressed A2-TM-PTtSA pellets · Pellet · Variable-temperature conductivity in a climatic chamber; powder pressed at 384 MPa between carbon-coated aluminium foils and encapsulated in Swagelok cells under Ar.
2022 · Host-guest molecular interaction promoted urea electrosynthesis over a precisely designed conductive metal-organic framework
Co-PMDA powder · Powder · Powder conductivity of pristine framework control.
2022 · Host-guest molecular interaction promoted urea electrosynthesis over a precisely designed conductive metal-organic framework
Co-PMDA-2-mbIM powder · Powder · Powder conductivity; exact device geometry not specified in the supplied text.
2022 · Imparting Functionality and Enhanced Surface Area to a 2D Electrically Conductive MOF via Macrocyclic Linker
Cu-HHTC synthesised at 60 C · Powder · Cu-HHTC samples from different synthesis temperatures measured by I-V/four-point-probe style conductivity comparison.
2022 · Imparting Functionality and Enhanced Surface Area to a 2D Electrically Conductive MOF via Macrocyclic Linker
Pristine Cu-HHTC pressed pellet · Pellet · Pressed pellet measured under ambient conditions with Keithley SCS-4200; approximately 5 mg in 5 mm die under 1.5 tons, no binder or conductive additive.
2022 · Imparting Functionality and Enhanced Surface Area to a 2D Electrically Conductive MOF via Macrocyclic Linker
Ni-metalated Cu-HHTC · Powder · Binder-free pressed pellets measured by the same four-point-probe method as pristine Cu-HHTC.
2022 · Imparting Functionality and Enhanced Surface Area to a 2D Electrically Conductive MOF via Macrocyclic Linker
Pristine Cu-HHTC pressed pellet · Pellet · Conductivity measured from 293 to 363 K under vacuum and fitted to sigma = sigma0 exp(-Ea/(kBT)).
2022 · Improved electrical conductivity of Co(ii) and Cu(ii) ladder polymers in the fabrication of photoresponsive Schottky devices
Al/Co-CP/ITO Schottky device · Thin Film · Applied bias +/-1 V under dark and light conditions; conductivity and photosensitivity listed in Table 1.
2022 · Improved electrical conductivity of Co(ii) and Cu(ii) ladder polymers in the fabrication of photoresponsive Schottky devices
Al/Co-CP/ITO Schottky device · Thin Film · G(J) vs J and H(J) vs J fits under dark and light conditions.
2022 · Improved electrical conductivity of Co(ii) and Cu(ii) ladder polymers in the fabrication of photoresponsive Schottky devices
Al/Cu-CP/ITO Schottky device · Thin Film · Applied bias +/-1 V under dark and light conditions; conductivity and photosensitivity listed in Table 1.
2022 · Improved electrical conductivity of Co(ii) and Cu(ii) ladder polymers in the fabrication of photoresponsive Schottky devices
Al/Cu-CP/ITO Schottky device · Thin Film · G(J) vs J and H(J) vs J fits under dark and light conditions.
2022 · In-Plane Oriented Two-Dimensional Conjugated Metal-Organic Framework Films for High-Performance Humidity Sensing
free-standing in-plane oriented HIB-Cu film · Thin Film · Room temperature under nitrogen; voltage swept from -0.5 V to 0.5 V in 400 steps.
2022 · In-Plane Oriented Two-Dimensional Conjugated Metal-Organic Framework Films for High-Performance Humidity Sensing
free-standing in-plane oriented HIB-Cu film · Thin Film · Lakeshore Hall System 9700A; magnetic field swept from -4 T to 4 T at 300 K.
2022 · Insight into charge transportation in cadmium based semiconducting organic-inorganic hybrid materials and their application in the fabrication of photosensitive Schottky devices
CD1, complex 1 based Schottky device · Thin Film · Applied bias sequentially within +/-2 V under dark and photo-irradiation (approximately 100 mW cm^-2); Schottky parameters extracted from I-V, dV/dlnI vs I, and H(I) vs I.
2022 · Insight into charge transportation in cadmium based semiconducting organic-inorganic hybrid materials and their application in the fabrication of photosensitive Schottky devices
CD2, complex 2 based Schottky device · Thin Film · Applied bias sequentially within +/-2 V under dark and photo-irradiation (approximately 100 mW cm^-2); Schottky parameters extracted from I-V, dV/dlnI vs I, and H(I) vs I.
2022 · Insight into charge transportation in cadmium based semiconducting organic-inorganic hybrid materials and their application in the fabrication of photosensitive Schottky devices
ligand based device · Thin Film · Room temperature I-V measurement; ligand device shown under dark conditions; no conductivity change upon light exposure reported.
2022 · Iodine-induced electrical conductivity of novel columnar lanthanide metal-organic frameworks based on a butterfly-shaped π-extended tetrathiafulvalene ligand
iodine-treated Tb-MOF pressed pellet · Pellet · Iodine-treated pellet sandwiched between two Ag-coated stainless-steel electrodes; voltage swept from -1 to +1 V under ambient conditions.
2022 · Iodine-induced electrical conductivity of novel columnar lanthanide metal-organic frameworks based on a butterfly-shaped π-extended tetrathiafulvalene ligand
pristine Tb-MOF pressed pellet · Pellet · Pellet sandwiched between two Ag-coated stainless-steel electrodes; voltage swept from -1 to +1 V under ambient conditions; conductivity calculated from sigma = L/(R A).
2022 · Iron-Based 2D Conductive Metal-Organic Framework Nanostructure with Enhanced Pseudocapacitance
Cu-HHTP pressed pellet · Pellet · Pressed pellets; same measurement setting as Fe-HHTP.
2022 · Iron-Based 2D Conductive Metal-Organic Framework Nanostructure with Enhanced Pseudocapacitance
Fe-HHTP pressed pellet · Pellet · Pressed pellets; Keithley SCS-4200 parameter analyser; room-temperature measurement.
2022 · Iron-Based 2D Conductive Metal-Organic Framework Nanostructure with Enhanced Pseudocapacitance
Fe-HHTP pressed pellet · Pellet · Conductivity measured from 293 K to 373 K; Arrhenius plot linear fit used for activation energy.
2022 · Iron-Based 2D Conductive Metal-Organic Framework Nanostructure with Enhanced Pseudocapacitance
Ni-HHTP pressed pellet · Pellet · Pressed pellets; same measurement setting as Fe-HHTP.
2022 · Large-Area Synthesis of Ultrathin, Flexible, and Transparent Conductive Metal–Organic Framework Thin Films via a Microfluidic-Based Solution Shearing Process
MASS-PRC Ni3(HITP)2 thin film · Thin Film · Large-area film measured at various locations; reported for film thickness about 64 nm.
2022 · Li-TFSI endohedral Metal-Organic frameworks in stable perovskite solar cells for Anti-Deliquescent and restricting ion migration
Li-TFSI@NH2-MIL-101 doped HTL film, 20 mg mL-1 · Thin Film · HTL films; sigma = L/(Rwd); film thickness ~180 nm
2022 · Li-TFSI endohedral Metal-Organic frameworks in stable perovskite solar cells for Anti-Deliquescent and restricting ion migration
PSC with Li-TFSI@NH2-MIL-101 doped HTL · Electrode · hole-only FTO/PEDOT:PSS/perovskite/HTL/Au devices in dark conditions
2022 · Millimeter-scale semiconductive metal-organic framework single crystal for X-ray imaging
SCU-15 SC device · Single Crystal · Dark I-V curves from -10 V to 10 V with 0.2 V sweeping step; SCU-15 SC and SCU-15 PP compared.
2022 · Millimeter-scale semiconductive metal-organic framework single crystal for X-ray imaging
SCU-15 SC device · Single Crystal · SCU-15 SC I-V curves from -4 to +4 V under X-ray irradiation with different tube voltages and currents; tungsten anode RAD SOURCE RS 2000X.
2022 · Multi-stimulus semiconductor Cu(i)-I-pyrimidine coordination polymer with thermo- and mechanochromic sensing
CP1 pressed pellet · Pellet · Pressed pellet measured at 295 K after pressing at 6.0 GPa for 2 min; voltages from -10.0 to +10.0 V.
2022 · Multi-stimulus semiconductor Cu(i)-I-pyrimidine coordination polymer with thermo- and mechanochromic sensing
CP1 colourless needle-shaped single crystals · Single Crystal · At least three single crystals measured at 295 K; voltages from -10.0 to +10.0 V; indexed twin crystal used to measure parallel to the a-axis/Cu-I chain direction.
2022 · Mutually Noninterfering Flexible Pressure-Temperature Dual-Modal Sensors Based on Conductive Metal-Organic Framework for Electronic Skin
MOF-MSMC-5h composite film/sensor · Thin Film · conductive Ni3(HiTP)2 film conductivity cited in main text
2022 · Nanostructured Conductive Metal Organic Frameworks for Sustainable Low Charge Overpotentials in Li–Air Batteries
previously synthesized bulk Cu-THQ powder · Powder · room temperature
2022 · Nickel(II) Cluster-Based Pillar-Layered Metal-Organic Frameworks for High-Performance Supercapacitors
Ni-mba-K conductivity pellet · Pellet · Four-arm Lakeshore probe station under vacuum (1e-4 Pa); gold contacts; pellet thickness 20-40 um.
2022 · Nickel(II) Cluster-Based Pillar-Layered Metal-Organic Frameworks for High-Performance Supercapacitors
Ni-mba-Na conductivity pellet · Pellet · Four-arm Lakeshore probe station under vacuum (1e-4 Pa); gold contacts; pellet thickness 20-40 um.
2022 · Oxidative control over the morphology of Cu3(HHTP)2, a 2D conductive metal-organic framework
Cu3(HHTP)2 air-synthesis particles · Powder · Packed pellets in PEEK 2-electrode screw cell; 7-10 mg powder; 0.56 Nm torque; settled before current scan.
2022 · Oxidative control over the morphology of Cu3(HHTP)2, a 2D conductive metal-organic framework
Cu3(HHTP)2 air-synthesis rods · Powder · Packed pellets in PEEK 2-electrode screw cell; 7-10 mg powder; 0.56 Nm torque; settled before current scan.
2022 · Oxidative control over the morphology of Cu3(HHTP)2, a 2D conductive metal-organic framework
Cu3(HHTP)2 blocks, 0.3 equiv 2,5-dichloro pre-oxidant · Powder · Packed pellets in PEEK 2-electrode screw cell; 7-10 mg powder; 0.56 Nm torque; settled before current scan.
2022 · Oxidative control over the morphology of Cu3(HHTP)2, a 2D conductive metal-organic framework
Cu3(HHTP)2 flakes, 0.5 equiv 2,5-dichloro pre-oxidant · Powder · Packed pellets in PEEK 2-electrode screw cell; 7-10 mg powder; 0.56 Nm torque; settled before current scan.
2022 · Oxidative control over the morphology of Cu3(HHTP)2, a 2D conductive metal-organic framework
Cu3(HHTP)2 rods, 0 equiv pre-oxidant · Powder · Packed pellets in PEEK 2-electrode screw cell; 7-10 mg powder; 0.56 Nm torque; settled before current scan.
2022 · Porous lanthanide metal–organic frameworks with metallic conductivity
Nd1.5HOTP single-crystal room-temperature conductivity devices · Single Crystal · Wide current-density range; linear fit shown in Fig. 3B
2022 · Porous lanthanide metal–organic frameworks with metallic conductivity
La1.5HOTP single-crystal conductivity devices · Single Crystal · Air; generally 21 degC; 10-20% relative humidity; only Ohmic devices included; graphite adhesive and copper wires
2022 · Porous lanthanide metal–organic frameworks with metallic conductivity
Nd1.5HOTP single-crystal room-temperature conductivity devices · Single Crystal · Air; generally 21 degC; 10-20% relative humidity; only Ohmic devices included; graphite adhesive and copper wires
2022 · Porous lanthanide metal–organic frameworks with metallic conductivity
Ln1.5HOTP pressed pellet trial devices · Pellet · Attempted pellet measurements; grain-boundary resistance dominated
2022 · Precise tuning of interlayer electronic coupling in layered conductive metal-organic frameworks
Ni3(HATI_C1)2 pressed pellet · Pellet · Pressed pellets measured under vacuum at room temperature and variable temperature; Lakeshore Hall System 9700A.
2022 · Precise tuning of interlayer electronic coupling in layered conductive metal-organic frameworks
Ni3(HATI_C3)2 pressed pellet · Pellet · Pressed pellets measured under vacuum at room temperature and variable temperature; Lakeshore Hall System 9700A.
2022 · Precise tuning of interlayer electronic coupling in layered conductive metal-organic frameworks
Ni3(HATI_C4)2 pressed pellet · Pellet · Pressed pellets measured under vacuum at room temperature and variable temperature; Lakeshore Hall System 9700A.
2022 · Precise tuning of interlayer electronic coupling in layered conductive metal-organic frameworks
Ni3(HATI_C4)2 pressed pellet · Pellet · Seebeck coefficient of Ni3(HATI_C4)2 plotted versus temperature; I-V curves at 300-400 K.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
Mn-CAU-24 dry pellet · Pellet · Dry pellet sandwiched between two Ti foils; measured at room temperature in air under two-electrode mode; resistance fitted near 0 V.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
Mn-MOF-808 dry pellet · Pellet · Dry pellet sandwiched between two Ti foils; measured at room temperature in air under two-electrode mode; resistance fitted near 0 V.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
Mn-UiO-66 dry pellet · Pellet · Dry pellet sandwiched between two Ti foils; measured at room temperature in air under two-electrode mode; resistance fitted near 0 V.
2022 · Probing the electronic and ionic transport in topologically distinct redox-active metal-organic frameworks in aqueous electrolytes
All powder materials: MOF-808, Mn-MOF-808, UiO-66, Mn-UiO-66, CAU-24 and Mn-CAU-24 · Powder · PXRD patterns of all pristine and Mn-decorated powders compared with simulated patterns.
2022 · Rational synthesis of a pyridyl-imidazoquinazoline based multifunctional 3D Zn(ii)-MOF: structure, luminescence, selective and sensitive detection of Al3+ and TNP, and its semiconducting device application
TFD 1 ITO/synthesised 1/Al thin-film device · Thin Film · Room temperature 26 deg C; dark and photo-irradiation at about 100 mW cm-2; bias within +/-2 V
2022 · Redox-Active Metal-Organic Frameworks with Three-Dimensional Lattice Containing the m-Tetrathiafulvalene-Tetrabenzoate
Er-m-TTFTB red rod-like/needle-like single crystal · Single Crystal · Same two-probe single-crystal method; SI Table S2 dimensions length 0.034 cm, width 0.004 cm, thickness 0.004 cm.
2022 · Redox-Active Metal-Organic Frameworks with Three-Dimensional Lattice Containing the m-Tetrathiafulvalene-Tetrabenzoate
Gd-m-TTFTB red rod-like/needle-like single crystal · Single Crystal · Same two-probe single-crystal method; SI Table S2 dimensions length 0.007 cm, width 0.005 cm, thickness 0.005 cm.
2022 · Redox-Active Metal-Organic Frameworks with Three-Dimensional Lattice Containing the m-Tetrathiafulvalene-Tetrabenzoate
Tb-m-TTFTB red rod-like/needle-like single crystal · Single Crystal · Needle-like single crystal; Keithley 2400 source meter on CRX-4K closed-cycle refrigerator probe station at room temperature; conductive carbon adhesive contacts; voltage swept from -1.5 to 1.5 V under ambient conditions.
2022 · Redox-Active Ni(II) Nodes Induced Electrochromism in a Two-Dimensional Conductive Metal-Organic Framework
Ni3(HITP)2-362 nm/Au/SiO2/Si two-probe film · Thin Film · Keithley 4200 source meter; ambient environment at room temperature; Au electrodes 80 nm thick; 50 um channel gap and 1000 um channel width; conductivity calculated by eq S5.
2022 · Size-Dependent Properties of Solution-Processable Conductive MOF Nanocrystals
Fe(TA)2 thin films doctor-bladed in air · Thin Film · Films made in air and allowed to sit in ambient aerobic conditions for over 1 week; four tungsten carbide probes with 1 mm spacing.
2022 · Size-Dependent Properties of Solution-Processable Conductive MOF Nanocrystals
25 nm Fe(TA)2 doctor-bladed thin film under N2 · Thin Film · Doctor-bladed films made under N2; silver paint contacts at corners; conductivity measured under N2 and after ambient air exposure.
2022 · Solvent-controlled ion-coupled charge transport in microporous metal chalcogenides
TMA2FeGe4S10 pressed pellet after 10 uL deionised water · Pellet · Steady-state current vs applied potential, conductivities from return scan.
2022 · Solvent-controlled ion-coupled charge transport in microporous metal chalcogenides
TMA2ZnGe4S10 pressed pellet after 10 uL deionised water · Pellet · Steady-state current vs applied potential, conductivities from return scan.
2022 · Solvent-controlled ion-coupled charge transport in microporous metal chalcogenides
tma2 fe ge4 s10 pressed pellet after 10 uL formamide · Pellet · Pressed-pellet I-V curves after solvent addition; solvents included DCM, THF, alcohols, acetone, water/EtOH mixtures, water, formamide.
2022 · Solvent-controlled ion-coupled charge transport in microporous metal chalcogenides
tma2 zn ge4 s10 pressed pellet after 10 uL formamide · Pellet · Pressed-pellet I-V curves after solvent addition; solvents included hexanes, toluene, halogenated solvents, alcohols, water/EtOH mixtures, water, formamide.
2022 · Solvent-controlled ion-coupled charge transport in microporous metal chalcogenides
TMA2FeGe4S10 pressed pellet after ortho-dichlorobenzene · Pellet · I-V curves from 30 to 65 C before and after ortho-dichlorobenzene treatment.
2022 · Solvent-controlled ion-coupled charge transport in microporous metal chalcogenides
tma2 fe ge4 s10 pressed pellet after 10 uL formamide · Pellet · I-V curves from 30 to 65 C before and after formamide treatment.
2022 · sp-Carbon Incorporated Conductive Metal-Organic Framework as Photocathode for Photoelectrochemical Hydrogen Generation
Cu3HHAE2 pressed powder pellet with four silver-wire probes · Pellet · Pressed pellet measured under vacuum at 298 K using a Lakeshore Hall System (9700A).
2022 · sp-Carbon Incorporated Conductive Metal-Organic Framework as Photocathode for Photoelectrochemical Hydrogen Generation
Cu3HHAE2 pressed powder pellet with four silver-wire probes · Pellet · Electrical conductivity measured from 200 to 320 K and fitted to thermally activated hopping transport.
2022 · Stacked conductive metal–organic framework nanorods for high-performance vacuum electronic devices
Cu-CAT rough nanorods · Unknown · Conductivity of Cu-CAT nanorods; measurement geometry not specified in the main text.
2022 · Stacked conductive metal–organic framework nanorods for high-performance vacuum electronic devices
Graphite paper substrate · Electrode · Conductivity of graphite paper substrate; geometry not specified.
2022 · Stacked conductive metal–organic framework nanorods for high-performance vacuum electronic devices
Graphite paper substrate · Electrode · Electrical conductivities of graphite paper and literature substrate comparators for Cu-CAT growth feasibility.
2022 · Stacked conductive metal–organic framework nanorods for high-performance vacuum electronic devices
Graphite paper substrate · Electrode · Thermal conductivities of graphite paper and comparator substrates listed for Cu-CAT growth feasibility.
2022 · Structural, Thermodynamic, and Transport Properties of the Small-Gap Two-Dimensional Metal-Organic Kagomé Materials Cu3(hexaiminobenzene)2and Ni3(hexaiminobenzene)2
Cu3(HIB)2 densified pellet · Pellet · Measured at mu0H = 0, 3 and 5 T; specimen densified at >1000 bar; Pt wire and silver-paste contacts; contact resistance estimated <100 ohm per contact.
2022 · Structural, Thermodynamic, and Transport Properties of the Small-Gap Two-Dimensional Metal-Organic Kagomé Materials Cu3(hexaiminobenzene)2and Ni3(hexaiminobenzene)2
Ni3(HIB)2 densified pellet · Pellet · Measured at mu0H = 0, 3 and 5 T; specimen densified at >1000 bar; Pt wire and silver-paste contacts; contact resistance estimated <100 ohm per contact.
2022 · Surface Structure Construction of Fibers in a Conductive Metal-Organic Framework/Metal/Cotton Electrode for Flexible Textile Supercapacitors
CPA Au-plated cotton/PDA current collector · Electrode · Measured with RTS-9 four-probe instrument.
2022 · Surface Structure Construction of Fibers in a Conductive Metal-Organic Framework/Metal/Cotton Electrode for Flexible Textile Supercapacitors
CPAMOF Cu-MOF/Au/cotton electrode · Electrode · Measured with RTS-9 four-probe instrument after Cu-MOF growth.
2022 · Synthesis and Characterization of Schiff Base Polymers via Metal Coordination and Its Application in Infrared Stealth Coating
D230-PyAL-Cu coating · Thin Film · JG ST2742B electric powder resistivity tester; room-temperature condition implied but not explicitly stated for conductivity
2022 · Synthesis and Characterization of Schiff Base Polymers via Metal Coordination and Its Application in Infrared Stealth Coating
D230-PyAL coating/polymer · Thin Film · JG ST2742B electric powder resistivity tester; room-temperature condition implied but not explicitly stated for conductivity
2022 · Synthesis and Characterization of Schiff Base Polymers via Metal Coordination and Its Application in Infrared Stealth Coating
D230-PyAL-Ni coating · Thin Film · JG ST2742B electric powder resistivity tester; room-temperature condition implied but not explicitly stated for conductivity
2022 · Synthesis and Characterization of Schiff Base Polymers via Metal Coordination and Its Application in Infrared Stealth Coating
D230-PyAL-Sm coating · Thin Film · JG ST2742B electric powder resistivity tester; room-temperature condition implied but not explicitly stated for conductivity
2022 · The Growth Mechanism of a Conductive MOF Thin Film in Spray-based Layer-by-layer Liquid Phase Epitaxy
HHTP powder pellet · Pellet · HHTP powder pellet measured by the same Keithley 4200 two-contact probe method at room temperature.
2022 · The Growth Mechanism of a Conductive MOF Thin Film in Spray-based Layer-by-layer Liquid Phase Epitaxy
Cu3(HHTP)2-xC spray LBL-LPE thin-film growth-cycle series, x = 1-60 · Thin Film · Keithley 4200 semiconductor analysis system at room temperature; applied voltage -5 to 5 V with 0.1 V scan step; conductivity calculated as sigma = thickness/(A.R).
2022 · Thousand-fold increase in O2electroreduction rates with conductive MOFs
As-synthesised Ni3(HITP)2 powder · Powder · Previously reported pristine M3(HITP)2 bulk conductivity values cited in the SI; not newly measured in this paper.
2022 · Tunable Capacitive Behavior in Metallopolymer-based Electrochromic Thin Film Supercapacitors
poly-Fe-L1 four-probe drop-cast glass film · Thin Film · Keithley 2450 source meter; drop-cast glass film, thickness 185 +/- 4 nm
2022 · Tunable Capacitive Behavior in Metallopolymer-based Electrochromic Thin Film Supercapacitors
poly-Fe-L2 four-probe drop-cast glass film · Thin Film · Keithley 2450 source meter; drop-cast glass film, thickness 185 +/- 4 nm
2022 · Tunable Capacitive Behavior in Metallopolymer-based Electrochromic Thin Film Supercapacitors
poly-Fe-L3 four-probe drop-cast glass film · Thin Film · Keithley 2450 source meter; drop-cast glass film, thickness 185 +/- 4 nm
2022 · Tunable Carrier Type of a Semiconducting 2D Metal-Organic Framework Cu3(HHTP)2
CuHHTP-40 PMMA-transferred Cu3(HHTP)2 film · Thin Film · Room-temperature four-point probe conductivity and temperature-dependent resistivity/conductivity trend.
2022 · Tunable Carrier Type of a Semiconducting 2D Metal-Organic Framework Cu3(HHTP)2
CuHHTP-70 PMMA-transferred Cu3(HHTP)2 film · Thin Film · Room-temperature four-point probe conductivity and temperature-dependent resistivity/conductivity trend.
2022 · Tunable Carrier Type of a Semiconducting 2D Metal-Organic Framework Cu3(HHTP)2
CuHHTP-40 PMMA-transferred Cu3(HHTP)2 film · Thin Film · Four probe contacts A, B, C and D on transferred Cu3(HHTP)2 thin films.
2022 · Ultrathin MOF nanosheet-based resistive sensors for highly sensitive detection of methanol
Co-TCPP-Ac NS thin film-based sensor · Electrode · Electrical property of Co-TCPP-Ac NS thin film; I-V plots for bulk crystals and NSs in Fig. S4.
2022 · Wet-Adhesive On-Skin Sensors Based on Metal–Organic Frameworks for Wireless Monitoring of Metabolites in Sweat
Cu3HHTP2 pressed pellet · Pellet · Pressed pellet conductivity method described for all MOFs; conductivity label read from rendered Figure S7.
2022 · Wet-Adhesive On-Skin Sensors Based on Metal–Organic Frameworks for Wireless Monitoring of Metabolites in Sweat
Ni3HHTP2 pressed pellet · Pellet · Pressed 2.5 mm pellet; two parallel Au wire contacts; Keithley 4200-SCS; room temperature.
2022 · Wet-Adhesive On-Skin Sensors Based on Metal–Organic Frameworks for Wireless Monitoring of Metabolites in Sweat
Ni3HITP2 pressed pellet · Pellet · Pressed pellet conductivity method described for all MOFs; conductivity label read from rendered Figure S7.
2021 · A 3D Cu-Naphthalene-Phosphonate Metal–Organic Framework with Ultra-High Electrical Conductivity
Handpicked TUB40 single crystals for conductivity · Single Crystal · Ten handpicked crystals, about 100 x 100 x 10 um, measured by the authors' previous single-crystal setup; contact resistance measured separately.
2021 · A comparative study of honeycomb-like 2D π-conjugated metal-organic framework chemiresistors: conductivity and channels
Cu-HITP pellet conductivity comparison sample · Pellet · Electrical conductivity comparison across cMOFs; most conductivity values are cited from earlier references, with measurement geometry specified in footnotes.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
1-Dy · Powder · Pressed disc with conductive silver adhesive; room temperature.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
1-Er · Powder · Pressed disc with conductive silver adhesive; room temperature.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
1-Gd · Powder · Powder pressed into discs, connected by conductive silver adhesive; Keithley 4200A-SCS; room temperature.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
1-Tb · Powder · Pressed disc with conductive silver adhesive; room temperature.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
2-Dy · Powder · Oxidised powder pressed into discs; room temperature.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
2-Er · Powder · Oxidised powder pressed into discs; room temperature.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
2-Gd · Powder · Oxidised powder pressed into discs; room temperature.
2021 · A family of lanthanide metal-organic frameworks based on a redox-active tetrathiafulvalene-dicarboxylate ligand showing slow relaxation of magnetisation and electronic conductivity
2-Tb · Powder · Oxidised powder pressed into discs; room temperature.
2021 · A New Electrically Conducting Metal–Organic Framework Featuring U-Shaped cis-Dipyridyl Tetrathiafulvalene Ligands
I2-treated sine-MOF pressed pellet · Pellet · Pressed pellet sandwiched between two Ag-coated stainless-steel electrodes; measured under ambient conditions between -1 and +1 V using Keithley 2400 sourcemeter; resistance from linear I-V slope and conductivity calculated as sigma = L/(R*A).
2021 · A New Electrically Conducting Metal–Organic Framework Featuring U-Shaped cis-Dipyridyl Tetrathiafulvalene Ligands
pristine sine-MOF pressed pellet · Pellet · Pressed pellet sandwiched between two Ag-coated stainless-steel electrodes; measured under ambient conditions between -1 and +1 V using Keithley 2400 sourcemeter; resistance from linear I-V slope and conductivity calculated as sigma = L/(R*A).
2021 · An Electrically Conducting Li-Ion Metal-Organic Framework
Li2-Mn-DOBDC pressed pellet · Pellet · 13 mm pellets cold-pressed at 10 tons under argon, pressed between carbon-coated aluminium foils, encapsulated in Swagelok cells; variable temperature in climatic chamber.
2021 · An Electrically Conducting Li-Ion Metal-Organic Framework
Li2-Mn-DOBDC pressed pellet · Pellet · Impedance analysis performed up to 80 degC on Li2-Mg-DOBDC and Li2-Mn-DOBDC phases.
2021 · An Electrically Conducting Three-Dimensional Iron–Catecholate Porous Framework
Pressed Fe-HHTP-MOF pellet · Pellet · HMS-5000/AMP55T Ecopia Hall Effect Measurement System; ambient room temperature in the dark; main text voltage range -1.5 to 1.5 V, SI Figure S16 caption reports -9 to 9 V for additional measurements.
2021 · An Electrically Conducting Three-Dimensional Iron–Catecholate Porous Framework
Pressed Fe-HHTP-MOF pellet · Pellet · HMS-5000/AMP55T Ecopia Hall Effect Measurement System; gold contacts in square geometry about 2.4 mm apart; ambient room temperature in the dark.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
1: (TCNE)0.38@Zn2TTFTB · Powder · Pressed-pellet conductivity measured at 25 deg C between -0.1 and +0.1 V; conductivity calculated from I-V slope and pellet geometry.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
10: (TCNE)0.60@Cd2TTFTB · Powder · Pressed-pellet conductivity measured at 25 deg C between -0.1 and +0.1 V; conductivity calculated from I-V slope and pellet geometry.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
2: (TCNE)0.81@Zn2TTFTB · Powder · Pressed-pellet conductivity measured at 25 deg C between -0.1 and +0.1 V; conductivity calculated from I-V slope and pellet geometry.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
3: (TCNE)0.46@Zn2TTFTB · Powder · Pressed-pellet conductivity measured at 25 deg C between -0.1 and +0.1 V; conductivity calculated from I-V slope and pellet geometry.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
4: (TCNE)0.86@Zn2TTFTB · Powder · Pressed-pellet conductivity measured at 25 deg C between -0.1 and +0.1 V; conductivity calculated from I-V slope and pellet geometry.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
5: (TCNE)0.50@Zn2TTFTB · Powder · Pressed-pellet conductivity measured at 25 deg C between -0.1 and +0.1 V; conductivity calculated from I-V slope and pellet geometry.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
6: (TCNE)0.82@Zn2TTFTB · Powder · Pressed-pellet conductivity measured at 25 deg C between -0.1 and +0.1 V; conductivity calculated from I-V slope and pellet geometry.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
7: (TCNE)0.47@Cd2TTFTB · Powder · Pressed-pellet conductivity measured at 25 deg C between -0.1 and +0.1 V; conductivity calculated from I-V slope and pellet geometry.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
8: (TCNE)0.58@Cd2TTFTB · Powder · Pressed-pellet conductivity measured at 25 deg C between -0.1 and +0.1 V; conductivity calculated from I-V slope and pellet geometry.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
9: (TCNE)0.47@Cd2TTFTB · Powder · Pressed-pellet conductivity measured at 25 deg C between -0.1 and +0.1 V; conductivity calculated from I-V slope and pellet geometry.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
activated Cd2TTFTB · Powder · Approximately 50 mg sample pressed into 1 cm diameter pellet between steel pistons/electrodes at 0.3 GPa; PGSTAT302N potentiostat; three cycles from -0.1 to +0.1 V starting at open-circuit voltage; pellet thickness measured after measurement.
2021 · Charge-Transfer-Induced Electrical Conductivity in a Tetrathiafulvalene-Based Metal-Organic Framework
activated Zn2TTFTB · Powder · Approximately 50 mg sample pressed into 1 cm diameter pellet between steel pistons/electrodes at 0.3 GPa; PGSTAT302N potentiostat; three cycles from -0.1 to +0.1 V starting at open-circuit voltage; pellet thickness measured after measurement.
2021 · Cluster-Bridging-Coordinated Bimetallic Metal−Organic Framework as High-Performance Anode Material for Lithium-Ion Storage
Pressed Co4-Ir MOF powder pellet · Pellet · Pressed powder pellet, 4 mm diameter and 2 mm thickness, pressed at 1 MPa; stainless steel electrodes; Keithley 6430 source measurement unit.
2021 · Conductive Metal-Organic Framework for High Energy Sodium-Ion Hybrid Capacitors
as-prepared Ni-MOF powder · Powder · Room-temperature conductivity reported for Ni-MOF powder with tap density.
2021 · Conductive metal-organic frameworks promoting polysulfides transformation in lithium-sulfur batteries
Ni-HHTP particles · Powder · Conductivity value for Ni-HHTP cited from prior work rather than measured in this article.
2021 · Conductive Stimuli-Responsive Coordination Network Linked with Bismuth for Chemiresistive Gas Sensing
Bi(HHTP) temperature-dependent I-V pellet · Pellet · Linear sweep -2.0 to +2.0 V from 293 to 383 K; ln(I) versus 1/T
2021 · Conductive Stimuli-Responsive Coordination Network Linked with Bismuth for Chemiresistive Gas Sensing
Bi(HHTP) four-point-probe pressed pellet · Pellet · 0.100 g Bi(HHTP) powder compressed into 6 mm pellet; probe spacing 1.25 mm; correction factor F used in eq S2
2021 · Conductive Stimuli-Responsive Coordination Network Linked with Bismuth for Chemiresistive Gas Sensing
HHTP precursor control · Powder · HHTP and Bi(OAc)3 precursor pellets; Extech EX430 maximum resistance limit 40 Mohm
2021 · Conductive, Large-Area, and Continuous 7,7,8,8-Tetracyanoquinodimethane@HKUST-1 Thin Films Fabricated Using Solution Shearing
Solution-sheared HKUST-1 thin film, 4 cycles · Thin Film · Au electrodes thermally evaporated in glove box; current-voltage curve measured for pristine HKUST-1 control.
2021 · Conductive, Large-Area, and Continuous 7,7,8,8-Tetracyanoquinodimethane@HKUST-1 Thin Films Fabricated Using Solution Shearing
TCNQ@HKUST-1 thin film, 120 h TCNQ soak · Thin Film · I-V curve and conductivity after 120 h TCNQ loading.
2021 · Conductive, Large-Area, and Continuous 7,7,8,8-Tetracyanoquinodimethane@HKUST-1 Thin Films Fabricated Using Solution Shearing
TCNQ@HKUST-1 thin film, 168 h TCNQ soak · Thin Film · I-V curve and conductivity after 168 h TCNQ loading.
2021 · Conductive, Large-Area, and Continuous 7,7,8,8-Tetracyanoquinodimethane@HKUST-1 Thin Films Fabricated Using Solution Shearing
TCNQ@HKUST-1 thin film, 240 h (10 day) TCNQ soak · Thin Film · I-V curve and conductivity after 240 h / 10 day TCNQ loading.
2021 · Conductive, Large-Area, and Continuous 7,7,8,8-Tetracyanoquinodimethane@HKUST-1 Thin Films Fabricated Using Solution Shearing
TCNQ@HKUST-1 thin film, 24 h TCNQ soak · Thin Film · I-V curve and conductivity after 24 h TCNQ loading.
2021 · Conductive, Large-Area, and Continuous 7,7,8,8-Tetracyanoquinodimethane@HKUST-1 Thin Films Fabricated Using Solution Shearing
TCNQ@HKUST-1 thin film, 480 h TCNQ soak · Thin Film · I-V curve and conductivity after 480 h TCNQ loading.
2021 · Conductive, Large-Area, and Continuous 7,7,8,8-Tetracyanoquinodimethane@HKUST-1 Thin Films Fabricated Using Solution Shearing
TCNQ@HKUST-1 thin film, 48 h TCNQ soak · Thin Film · I-V curve and conductivity after 48 h TCNQ loading; inset reports n = 4.
2021 · Conductive, Large-Area, and Continuous 7,7,8,8-Tetracyanoquinodimethane@HKUST-1 Thin Films Fabricated Using Solution Shearing
TCNQ@HKUST-1 thin film, 72 h TCNQ soak · Thin Film · I-V curve and conductivity after 72 h TCNQ loading.
2021 · Conjugated crosslinks boost the conductivity and stability of a single crystalline metal-organic framework
ZrBPD-4F4TS oxidised with deficient FeCl3 · Powder · 0.5:1 FeCl3/thiophene under-crosslinked sample
2021 · Conjugated crosslinks boost the conductivity and stability of a single crystalline metal-organic framework
activated ZrBPD-4F4TS-Ox · Powder · sample pressed into 1.8 mm diameter glass mould pipe/disc; measured in air; Table S2
2021 · Conjugated crosslinks boost the conductivity and stability of a single crystalline metal-organic framework
activated ZrBPD-4F4TS · Powder · sample pressed into 1.8 mm diameter glass mould pipe/disc; measured in air; Table S2
2021 · Conjugated crosslinks boost the conductivity and stability of a single crystalline metal-organic framework
H2SO4@ZrBPD-4F4TS-Ox · Powder · 90% RH; frequency range 10 MHz to 1 Hz; fitted equivalent circuit in ZView; temperature series
2021 · Conjugated crosslinks boost the conductivity and stability of a single crystalline metal-organic framework
activated ZrBPD-4F4TS-Ox · Powder · 90% RH; frequency range 10 MHz to 1 Hz; fitted equivalent circuit in ZView; temperature series
2021 · Conjugated crosslinks boost the conductivity and stability of a single crystalline metal-organic framework
activated ZrBPD-4F4TS · Powder · 90% RH; frequency range 10 MHz to 1 Hz; fitted equivalent circuit in ZView; temperature series
2021 · Coordination environment dependent selectivity of single-site-Cu enriched crystalline porous catalysts in CO2 reduction to CH4
pressed Cu-DBC conductive sheet · Pellet · Pressed sheet measured at room temperature (25 deg C), ambient conditions, voltage -5.0 to 5.0 V
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
Cs-MOF 4 · Powder · Ambient 293 K; in-situ pressed pellets from 3.5 mg material at 260 MPa for 1 min; Ag-coated stainless-steel rods; conductivity σ=L/RA; average of 3-5 devices.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
K-MOF 2 · Powder · Ambient 293 K; in-situ pressed pellets from 3.5 mg material at 260 MPa for 1 min; Ag-coated stainless-steel rods; conductivity σ=L/RA; average of 3-5 devices.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
K-MOF 2-ox · Powder · Ambient 293 K; in-situ pressed pellets from 3.5 mg material at 260 MPa for 1 min; Ag-coated stainless-steel rods; conductivity σ=L/RA; average of 3-5 devices.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
TTFTC-H4 ligand · Powder · I-V plots of insulating/poorly conducting free ligands at 293 K.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
TTFTC-Me4 ligand · Powder · I-V plots of insulating/poorly conducting free ligands at 293 K.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
Na-MOF 1-ox · Powder · Ambient 293 K; in-situ pressed pellets from 3.5 mg material at 260 MPa for 1 min; Ag-coated stainless-steel rods; conductivity σ=L/RA; average of 3-5 devices.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
Rb-MOF 3 · Powder · Ambient 293 K; in-situ pressed pellets from 3.5 mg material at 260 MPa for 1 min; Ag-coated stainless-steel rods; conductivity σ=L/RA; average of 3-5 devices.
2021 · Effects of intervalence charge transfer interaction between π-stacked mixed valent tetrathiafulvalene ligands on the electrical conductivity of 3D metal-organic frameworks
Rb-MOF 3-ox · Powder · Ambient 293 K; in-situ pressed pellets from 3.5 mg material at 260 MPa for 1 min; Ag-coated stainless-steel rods; conductivity σ=L/RA; average of 3-5 devices.
2021 · Electrically Conductive Metal–Organic Framework Thin Film-Based On-Chip Micro-Biosensor: A Platform to Unravel Surface Morphology-Dependent Biosensing
Pristine Cu-BHT thin film · Thin Film · Cu-BHT thin films transferred on insulated Si/SiO2 with four parallel gold electrodes; channel length 50 um; Keithley 4200; constant current 1 uA; room temperature.
2021 · Electrically Conductive Metal–Organic Framework Thin Film-Based On-Chip Micro-Biosensor: A Platform to Unravel Surface Morphology-Dependent Biosensing
Pristine Cu-BHT thin film · Thin Film · TG curve of Cu-BHT film and normalised conductivity as a function of storage days under atmosphere.
2021 · Electrochemical Synthesis of Large Area Two-Dimensional Metal–Organic Framework Films on Copper Anodes
Cu3(HHTP)2 film transferred to SiO2/Si with Au source-drain electrodes · Thin Film · Film transferred to SiO2/Si; Au source-drain electrodes; room temperature.
2021 · Electrochemical Synthesis of Large Area Two-Dimensional Metal–Organic Framework Films on Copper Anodes
Cu3(HHTP)2 film transferred to PEN flexible substrate · Thin Film · PEN substrate; curvature radius ca. 1.5 cm; ca. 40 um channel length; ca. 2400 um channel width; ca. 20 nm film.
2021 · Electrochemical Synthesis of Large Area Two-Dimensional Metal–Organic Framework Films on Copper Anodes
Cu3(HHTP)2 film transferred to SiO2/Si with Au source-drain electrodes · Thin Film · Room-temperature devices; channel lengths 30-60 um; channel width ca. 2100 um; film thickness ca. 20 nm.
2021 · Electrochemical Synthesis of Large Area Two-Dimensional Metal–Organic Framework Films on Copper Anodes
Cu3(HHTP)2 film transferred to SiO2/Si with Au source-drain electrodes · Thin Film · Conductivity normalised to conductivity at 300 K; plotted versus T and 1000/T.
2021 · Electron-Conductive Metal-Organic Framework, Fe(dhbq)(dhbq = 2,5-Dihydroxy-1,4-benzoquinone): Coexistence of Microporosity and Solid-State Redox Activity
Fe(dhbq) compressed pellet · Pellet · 293 K compressed pellet with carbon paste contacts and gold wires
2021 · Electron-Conductive Metal-Organic Framework, Fe(dhbq)(dhbq = 2,5-Dihydroxy-1,4-benzoquinone): Coexistence of Microporosity and Solid-State Redox Activity
Fe(dhbq)(H2O)2 compressed pellet · Pellet · 293 K compressed pellet with carbon paste contacts and gold wires
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
BQ@Cu3(BTC)2 pressed pellet for conductivity · Pellet · Conductivity measured at 298 K by van der Pauw method after peeling film from Cu foil, grinding, pressing a 1.2 cm diameter, 300 um thick pellet under about 1 GPa, and contacting four silver wires with conductive silver paste/plastic.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
Cu3(BTC)2 pressed pellet for conductivity · Pellet · Conductivity measured at 298 K by van der Pauw method after peeling film from Cu foil, grinding, pressing a 1.2 cm diameter, 300 um thick pellet under about 1 GPa, and contacting four silver wires with conductive silver paste/plastic.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
PMDI@Cu3(BTC)2 pressed pellet for conductivity · Pellet · Conductivity measured at 298 K by van der Pauw method after peeling film from Cu foil, grinding, pressing a 1.2 cm diameter, 300 um thick pellet under about 1 GPa, and contacting four silver wires with conductive silver paste/plastic.
2021 · Electronic Doping of Metal-Organic Frameworks for High-Performance Flexible Micro-Supercapacitors
TCNQ@Cu3(BTC)2 pressed pellet for conductivity · Pellet · Conductivity measured at 298 K by van der Pauw method after peeling film from Cu foil, grinding, pressing a 1.2 cm diameter, 300 um thick pellet under about 1 GPa, and contacting four silver wires with conductive silver paste/plastic.
2021 · Emergence of Metallic Conductivity in Ordered One-Dimensional Coordination Polymer Thin Films upon Reductive Doping
O2-treated Cu-DMD after H2 reduction · Electrode · H2-treated Cu-DMD exposed to ambient air; separately annealed in flowing O2 at 80-130 deg C and then exposed to air
2021 · Emergence of Metallic Conductivity in Ordered One-Dimensional Coordination Polymer Thin Films upon Reductive Doping
H2/He-reduced Cu-DMD film on interdigitated electrode array · Electrode · Autolab PGSTAT702 potentiostat; voltage sweep -0.5 to 0.5 V starting from 0 V; conductivity estimated from IDA geometry
2021 · Emergence of Metallic Conductivity in Ordered One-Dimensional Coordination Polymer Thin Films upon Reductive Doping
H2/He-reduced Cu-DMD film on interdigitated electrode array · Electrode · Four-electrode geometry width 1 mm and spacing 0.6 mm; impedance Bode plots on IDA arrays in low and high conductivity states
2021 · Enhancing Electrical Conductivity of Semiconducting MOFs via Defect Healing
pristine Co3(HAB)2 · Pellet · Analogue MOF conductivity before ligand treatment.
2021 · Enhancing Electrical Conductivity of Semiconducting MOFs via Defect Healing
HAB-treated Co3(HAB)2 · Pellet · Analogue MOF conductivity after corresponding-ligand treatment.
2021 · Enhancing Electrical Conductivity of Semiconducting MOFs via Defect Healing
pristine Cu3(HAB)2 · Pellet · Room-temperature measurement on pelletised 5 mm diameter circular sample pressed under 1.5 tons.
2021 · Enhancing Electrical Conductivity of Semiconducting MOFs via Defect Healing
HAB-treated Cu3(HAB)2, 10 min · Pellet · Conductivity time course during HAB treatment; value read from Figure 3b.
2021 · Enhancing Electrical Conductivity of Semiconducting MOFs via Defect Healing
HAB-treated Cu3(HAB)2, 15 min · Pellet · Conductivity time course during HAB treatment; value read from Figure 3b.
2021 · Enhancing Electrical Conductivity of Semiconducting MOFs via Defect Healing
HAB-treated Cu3(HAB)2, 30 min · Pellet · Room-temperature conductivity on HAB-treated pelletised sample.
2021 · Enhancing Electrical Conductivity of Semiconducting MOFs via Defect Healing
HAB-treated Cu3(HAB)2, 5 min · Pellet · Conductivity time course during HAB treatment; value read from Figure 3b.
2021 · Enhancing Electrical Conductivity of Semiconducting MOFs via Defect Healing
HAB-treated Cu3(HAB)2, 60 min · Pellet · Conductivity time course during HAB treatment; value read from Figure 3b.
2021 · Enhancing Electrical Conductivity of Semiconducting MOFs via Defect Healing
pristine Cu3(TATHB)2 · Pellet · Analogue MOF conductivity before ligand treatment.
2021 · Enhancing Electrical Conductivity of Semiconducting MOFs via Defect Healing
TATHB-treated Cu3(TATHB)2 · Pellet · Analogue MOF conductivity after corresponding-ligand treatment.
2021 · Exploration of semiconducting properties of Zn(ii)- And Cd(ii)-based coordination polymers with dicarboxylate of a chair-type backbone
Al/CP 1/ITO Schottky diode film · Electrode · Capacitance at saturation used to calculate dielectric constants for CP 1 and CP 2.
2021 · Exploration of semiconducting properties of Zn(ii)- And Cd(ii)-based coordination polymers with dicarboxylate of a chair-type backbone
Al/CP 1/ITO Schottky diode film · Electrode · +/- 1 V dc bias at room temperature (300 K) on fabricated Al/CP 1/ITO device; Cheung dV/dlnJ vs J and H(J) vs J fits.
2021 · Exploration of semiconducting properties of Zn(ii)- And Cd(ii)-based coordination polymers with dicarboxylate of a chair-type backbone
Al/CP 2/ITO Schottky diode film · Electrode · +/- 1 V dc bias at room temperature (300 K) on fabricated Al/CP 2/ITO device; Cheung dV/dlnJ vs J and H(J) vs J fits.
2021 · Fabrication of a halopyridine appended Co(II) based 1D coordination polymer for efficient charge transportation
Al/compound 1/ITO thin-film MS junction · Thin Film · Total conductivity calculated from impedance and fit/discussed using Jonscher's law at room temperature.
2021 · Fabrication of a halopyridine appended Co(II) based 1D coordination polymer for efficient charge transportation
Al/compound 1/ITO thin-film MS junction · Thin Film · Bias voltage +/-1 V applied to Al/compound/ITO metal-semiconductor junction; room-temperature diode parameters extracted from I-V and ln I-V plots.
2021 · From n- To p-Type Material: Effect of Metal Ion on Charge Transport in Metal-Organic Materials
Ni-HITP modified with 1.5:1 Cl/Ni · Pellet · Conductivity compared across chloride precursor ratios.
2021 · From n- To p-Type Material: Effect of Metal Ion on Charge Transport in Metal-Organic Materials
Ni-HITP modified with 3:1 Cl/Ni · Pellet · Conductivity compared across chloride precursor ratios.
2021 · From n- To p-Type Material: Effect of Metal Ion on Charge Transport in Metal-Organic Materials
Ni-HITP modified with 4.5:1 Cl/Ni · Pellet · Conductivity compared across chloride precursor ratios.
2021 · From n- To p-Type Material: Effect of Metal Ion on Charge Transport in Metal-Organic Materials
Ni-HITP pressed pellet · Pellet · Room-temperature pressed-pellet transport; pellet used 30-70 mg material and 5 tons pressing force.
2021 · From n- To p-Type Material: Effect of Metal Ion on Charge Transport in Metal-Organic Materials
Pd-HITP transport sample · Pellet · SI reports conductivity for Pd-HITP; detailed geometry not repeated.
2021 · From n- To p-Type Material: Effect of Metal Ion on Charge Transport in Metal-Organic Materials
a-Pt-HITP pressed pellet · Pellet · Room-temperature pressed-pellet transport for a-Pt-HITP.
2021 · Heterometallic Actinide-Containing Photoresponsive Metal-Organic Frameworks: Dynamic and Static Tuning of Electronic Properties
I2@Th5U-50% · Powder · 10 mg MOF powder pre-dried 20 min in air, pressed in quartz tube; d = 2 mm, l = 1 mm; I-V from -1 to +1 V; dark and after 5 min 365 nm UV where applicable; n = 5 for standard error.
2021 · Heterometallic Actinide-Containing Photoresponsive Metal-Organic Frameworks: Dynamic and Static Tuning of Electronic Properties
I2@Th-65% · Powder · 10 mg MOF powder pre-dried 20 min in air, pressed in quartz tube; d = 2 mm, l = 1 mm; I-V from -1 to +1 V; dark and after 5 min 365 nm UV where applicable; n = 5 for standard error.
2021 · Heterometallic Actinide-Containing Photoresponsive Metal-Organic Frameworks: Dynamic and Static Tuning of Electronic Properties
I2@Th-MOF · Powder · 10 mg MOF powder pre-dried 20 min in air, pressed in quartz tube; d = 2 mm, l = 1 mm; I-V from -1 to +1 V; dark and after 5 min 365 nm UV where applicable; n = 5 for standard error.
2021 · Heterometallic Actinide-Containing Photoresponsive Metal-Organic Frameworks: Dynamic and Static Tuning of Electronic Properties
TCNQ@Th-65% · Powder · 10 mg MOF powder pre-dried 20 min in air, pressed in quartz tube; d = 2 mm, l = 1 mm; I-V from -1 to +1 V; dark and after 5 min 365 nm UV where applicable; n = 5 for standard error.
2021 · Heterometallic Actinide-Containing Photoresponsive Metal-Organic Frameworks: Dynamic and Static Tuning of Electronic Properties
TCNQ@Th-MOF · Powder · 10 mg MOF powder pre-dried 20 min in air, pressed in quartz tube; d = 2 mm, l = 1 mm; I-V from -1 to +1 V; dark and after 5 min 365 nm UV where applicable; n = 5 for standard error.
2021 · Heterometallic Actinide-Containing Photoresponsive Metal-Organic Frameworks: Dynamic and Static Tuning of Electronic Properties
TCNQ@Zr-MOF · Powder · 10 mg MOF powder pre-dried 20 min in air, pressed in quartz tube; d = 2 mm, l = 1 mm; I-V from -1 to +1 V; dark and after 5 min 365 nm UV where applicable; n = 5 for standard error.
2021 · Heterometallic Actinide-Containing Photoresponsive Metal-Organic Frameworks: Dynamic and Static Tuning of Electronic Properties
Th-34% · Powder · 10 mg MOF powder pre-dried 20 min in air, pressed in quartz tube; d = 2 mm, l = 1 mm; I-V from -1 to +1 V; dark and after 5 min 365 nm UV where applicable; n = 5 for standard error.
2021 · Heterometallic Actinide-Containing Photoresponsive Metal-Organic Frameworks: Dynamic and Static Tuning of Electronic Properties
Th5U-50% · Powder · 10 mg MOF powder pre-dried 20 min in air, pressed in quartz tube; d = 2 mm, l = 1 mm; I-V from -1 to +1 V; dark and after 5 min 365 nm UV where applicable; n = 5 for standard error.
2021 · Heterometallic Actinide-Containing Photoresponsive Metal-Organic Frameworks: Dynamic and Static Tuning of Electronic Properties
Th5U-MOF · Powder · 10 mg MOF powder pre-dried 20 min in air, pressed in quartz tube; d = 2 mm, l = 1 mm; I-V from -1 to +1 V; dark and after 5 min 365 nm UV where applicable; n = 5 for standard error.
2021 · Heterometallic Actinide-Containing Photoresponsive Metal-Organic Frameworks: Dynamic and Static Tuning of Electronic Properties
Th-MOF powder · Powder · 10 mg MOF powder pre-dried 20 min in air, pressed in quartz tube; d = 2 mm, l = 1 mm; I-V from -1 to +1 V; dark and after 5 min 365 nm UV where applicable; n = 5 for standard error.
2021 · Immobilizing Redox-Active Tricycloquinazoline into a 2D Conductive Metal–Organic Framework for Lithium Storage
Pressed-pellet Cu-HHTQ sample · Pellet · Pressed pellet measured with Keithley 2002 multimeter; temperature-dependent conductivity.
2021 · Insights into the electric double-layer capacitance of two-dimensional electrically conductive metal-organic frameworks
pressed Cu3(HHTP)2 pellet · Pellet · Pressed between stainless-steel electrodes; loading 1.50-1.57 ton-force cm-2; resistance measured with Keithley 2000 multimeter.
2021 · Interfacial Synthesis of Layer-Oriented 2D Conjugated Metal-Organic Framework Films toward Directional Charge Transport
Cu2[PcCu-O8] macroscopic van der Pauw device · Thin Film · Room temperature 300 K; perpendicular magnetic field swept from -4 T to 4 T
2021 · Interfacial Synthesis of Layer-Oriented 2D Conjugated Metal-Organic Framework Films toward Directional Charge Transport
Cu2[PcCu-O8] local lateral h-BN/FET contact device · Thin Film · Contacts separated 100-500 nm, widths 8 um; representative 400 nm pair; measured in LakeShore Probe station CRX-VF at room temperature and 3e-5 mbar with two Keithley 2450 source meters
2021 · Interfacial Synthesis of Layer-Oriented 2D Conjugated Metal-Organic Framework Films toward Directional Charge Transport
Cu2[PcCu-O8] edge-on MOF film · Thin Film · Ten two-probe devices with 300 um channel length
2021 · Interfacial Synthesis of Layer-Oriented 2D Conjugated Metal-Organic Framework Films toward Directional Charge Transport
Cu2[PcCu-O8] macroscopic van der Pauw device · Thin Film · Lakeshore Hall System 9700A; current scanned -10 nA to 10 nA; temperatures 256-310 K
2021 · Interplay of structural dynamics and electronic effects in an engineered assembly of pentacene in a metal-organic framework
Zn-Pn SURMOF-2 thin film · Thin Film · Excitation at 3.49 eV/355 nm; photon density 8.9 x 10^15 photons cm-2; quantum yield from TAS radical cation peak at 510-600 nm
2021 · Large Single Crystals of Two-Dimensional π-Conjugated Metal-Organic Frameworks via Biphasic Solution-Solid Growth
Ni-CAT-1 single-crystal electron-beam-lithography device · Electrode · Conductivity plotted versus crystal size for both fabrication methods; stencil-mask devices under vacuum, e-beam devices in ambient environment.
2021 · Large Single Crystals of Two-Dimensional π-Conjugated Metal-Organic Frameworks via Biphasic Solution-Solid Growth
Ni-CAT-1 single-crystal basal-plane stencil-mask device · Electrode · Rxy obtained from Ixx-Vxy slope at each magnetic field; magnetic field swept forward and reverse; data averaged over 20 magnetic-field sweeps.
2021 · Large Single Crystals of Two-Dimensional π-Conjugated Metal-Organic Frameworks via Biphasic Solution-Solid Growth
Ni-CAT-1 single-crystal basal-plane stencil-mask device · Electrode · Fig. S15 reports three crystal conductivities, cool-down/warm-up behaviour, and I-V curves at 300-100 K; cooling/heating rate 4 K/min.
2021 · Large Single Crystals of Two-Dimensional π-Conjugated Metal-Organic Frameworks via Biphasic Solution-Solid Growth
Ni-CAT-1 out-of-plane two-probe device · Electrode · Out-of-plane two-probe device image and I-V curve reported in SI.
2021 · Large Single Crystals of Two-Dimensional π-Conjugated Metal-Organic Frameworks via Biphasic Solution-Solid Growth
Ni-CAT-1 pressed-pellet device · Pellet · Polycrystalline pressed pellet compared with single-crystal device; pellet prepared from powder pressed at 6.6 ton-force/cm2.
2021 · Large Single Crystals of Two-Dimensional π-Conjugated Metal-Organic Frameworks via Biphasic Solution-Solid Growth
Ni-CAT-1 single-crystal basal-plane stencil-mask device · Electrode · Conductivity measured with Agilent 4156C or Keithley 2400 plus Agilent 34401A; temperature dependence in LN2 cryo-probe station or He cryostat.
2021 · Large-area synthesis of nanoscopic catalyst-decorated conductive MOF film using microfluidic-based solution shearing
Cu3(HHTP)2 thin film fabricated by MiCS · Thin Film · Conductivity of MiCS Cu3(HHTP)2 film reported in Supplementary Table 1
2021 · Large-area synthesis of nanoscopic catalyst-decorated conductive MOF film using microfluidic-based solution shearing
Pt@Cu3(HHTP)2 thin film, 100 uL/min Pt precursor · Thin Film · Conductivity of MiCS Pt@Cu3(HHTP)2 film reported in Supplementary Table 1
2021 · Layer-by-layer assembled dual-ligand conductive MOF nano-films with modulated chemiresistive sensitivity and selectivity
x mol% HITP doped Cu-HHTP-10C nanofilm series · Thin Film · I-V curves of 0.1, 0.5, 1.0, 5.0 and 10.0 mol% HITP-doped films measured 22 months after fabrication in dry air, 200 sccm.
2021 · Layer-by-layer assembled dual-ligand conductive MOF nano-films with modulated chemiresistive sensitivity and selectivity
pristine Cu-HHTP literature pellet comparator · Pellet · Room-temperature two-probe pellet conductivities cited for pristine Cu-HHTP and Cu-HITP.
2021 · Layer-by-layer assembled dual-ligand conductive MOF nano-films with modulated chemiresistive sensitivity and selectivity
x mol% HITP doped Cu-HHTP-10C nanofilm series · Thin Film · High-resistance thin-film samples measured by two probes; sigma/C0 plotted versus expected HITP dopants.
2021 · Macrocycle-Based Metal-Organic Frameworks with NO2-Driven On/Off Switch of Conductivity
MOF A-covered screen-printed gold electrode sheet · Electrode · AC impedance measured before and after NO2 adsorption on a thin layer of MOF A.
2021 · Macrocycle-Based Metal-Organic Frameworks with NO2-Driven On/Off Switch of Conductivity
MOF A-covered screen-printed gold electrode sheet · Electrode · MOF A and A-NO2 measured in Lake Shore TTPX Cryogenic Probe Station at 25 deg C and 1 bar.
2021 · Missing-Linker 2D Conductive Metal Organic Frameworks for Rapid Gas Detection
aNi-HAB chemiresistive device · Electrode · Voltage sweep approximately -5 to +5 V, current read from SI Figure S4c.
2021 · MOF Nanosheet Reconstructed Two-Dimensional Bionic Nanochannel for Protonic Field-Effect Transistors
Cu-TCPP thin-film H+-FET device · Electrode · Cu-TCPP active-layer transport measured under vacuum, air with varied RH, Ar + 90% RH, and Ar + 90% RH + 5% H2
2021 · MOF Nanosheet Reconstructed Two-Dimensional Bionic Nanochannel for Protonic Field-Effect Transistors
Cu-TCPP thin-film H+-FET device · Electrode · Cu-TCPP thin film with 10 deposition cycles tested in dry air and under 5% H2 plus 90% RH
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-10-OH · Pellet · Hydroxide ion activation energy at 95% RH.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-50-OH · Pellet · Hydroxide ion activation energy for NH2-UiO-66-50-OH at 95% RH.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-0-OH · Pellet · Light on/off cycles at 55 deg C, 95% RH; visible light intensity 50 mW cm^-2.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-100-OH · Pellet · Light on/off cycles at 55 deg C, 95% RH; visible light intensity 50 mW cm^-2.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-10-OH · Pellet · Light on/off cycles at 55 deg C, 95% RH; visible light intensity 50 mW cm^-2.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-50-OH · Pellet · Light on/off cycles at 55 deg C, 95% RH; visible light intensity 50 mW cm^-2.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-10-OH · Pellet · NH2-UiO-66-10-OH at 55 deg C under 95, 85, 75, 65, and 55% RH.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-50-OH · Pellet · NH2-UiO-66-50-OH at 55 deg C under 95, 85, 75, 65, and 55% RH.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-10-OH · Pellet · NH2-UiO-66-10-OH after being placed for two months; 55 deg C, 95% RH light-on/light-off cycles.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-10-OH · Pellet · NH2-UiO-66-10-OH at 45, 55, 65, 75, and 85 deg C under 95% RH.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-50-OH · Pellet · NH2-UiO-66-50-OH at 45, 55, 65, 75, and 85 deg C under 95% RH.
2021 · NH2-UiO-66 Metal-Organic Framework Nanoparticles for Hydroxide Ion Conductive Photoswitches
NH2-UiO-66-10-OH · Pellet · XRD patterns of NH2-UiO-66-10 and NH2-UiO-66-50 before and after KOH/conductivity testing.
2021 · Oriented Growth of In-Oxo Chain Based Metal-Porphyrin Framework Thin Film for High-Sensitive Photodetector
In-TCPP SURMOF-based two-terminal photodetector · Electrode · Responsivity and detectivity under 420 nm irradiation at 1 mW cm-2 and 10 V bias; wavelength response 365-600 nm.
2021 · Oriented growth of semiconducting TCNQ@Cu3(BTC)2MOF on Cu(OH)2: crystallographic orientation and pattern formation toward semiconducting thin-film devices
Cu(OH)2 nanobelt film electrical control · Thin Film · Cu(OH)2 nanobelt film on polyimide measured with Pt pads 100 um apart; voltage swept -10 to 10 V.
2021 · Oriented growth of semiconducting TCNQ@Cu3(BTC)2MOF on Cu(OH)2: crystallographic orientation and pattern formation toward semiconducting thin-film devices
Oriented TCNQ@Cu3(BTC)2 film measured parallel to {111} · Thin Film · Pt electrodes contacted with microprobes; voltage swept from -10 to 10 V using Keithley 4200A-SCS; Pt pads 100 um apart for plotted I-V; conductivity calculated with assumed 300 nm thickness.
2021 · Oriented growth of semiconducting TCNQ@Cu3(BTC)2MOF on Cu(OH)2: crystallographic orientation and pattern formation toward semiconducting thin-film devices
Oriented TCNQ@Cu3(BTC)2 film measured vertical to {111} · Thin Film · Pt electrodes contacted with microprobes; voltage swept from -10 to 10 V using Keithley 4200A-SCS; Pt pads 100 um apart for plotted I-V; conductivity calculated with assumed 300 nm thickness.
2021 · Processable UiO-66 Metal-Organic Framework Fluid Gel and Electrical Conductivity of Its Nanofilm with Sub-100 nm Thickness
Al/UiO-66/Al thin-film devices · Electrode · Measured in conventional oven from 30 to 60 C; activation energy calculated from Arrhenius slope using SI eq S1.
2021 · Processable UiO-66 Metal-Organic Framework Fluid Gel and Electrical Conductivity of Its Nanofilm with Sub-100 nm Thickness
Al/UiO-66/Al thin-film devices · Electrode · Applied voltage -2.0 to 2.0 V, scan rate 50 mV s^-1, room temperature; alligator clips connected to Al electrodes.
2021 · Promoting ethylene production over a wide potential window on Cu crystallites induced and stabilized via current shock and charge delocalization
As-synthesised Cu3(HITP)2 powder · Powder · Room-temperature conductivity of as-synthesised Cu3(HITP)2.
2021 · Quinone-Based Conducting Three-Dimensional Metal-Organic Framework as a Cathode Material for Lithium-Ion Batteries
as-prepared (NBu4)2Fe2(DHBQ)3 powder/solid · Powder · Room-temperature four-point-probe measurement on pristine (NBu4)2Fe2(DHBQ)3.
2021 · Semiconducting properties of pyridyl appended linear dicarboxylate based coordination polymers: Theoretical prediction: Via DFT study
Compound 1 DFT crystal model · Model · Conductivity values are reproduced in this theoretical paper from prior experimental work; exact device fabrication and illumination details are not present in the main text.
2021 · Semiconducting properties of pyridyl appended linear dicarboxylate based coordination polymers: Theoretical prediction: Via DFT study
Compound 2 DFT crystal model · Model · Conductivity values are reproduced in this theoretical paper from prior experimental work; exact device fabrication and illumination details are not present in the main text.
2021 · Semiconducting properties of pyridyl appended linear dicarboxylate based coordination polymers: Theoretical prediction: Via DFT study
Compound 3 DFT crystal model · Model · Conductivity values are reproduced in this theoretical paper from prior experimental work; exact device fabrication and illumination details are not present in the main text.
2021 · Semiconducting properties of pyridyl appended linear dicarboxylate based coordination polymers: Theoretical prediction: Via DFT study
Compound 1 DFT crystal model · Model · Photon energy range 0-16 eV; plotted real and imaginary parts for compounds 1-3. Measurement row is attached to compound 1 model; result names specify compounds 1-3.
2021 · Semiconducting to Metallic Electronic Landscapes in Defects-Controlled 2D π-d Conjugated Coordination Polymer Thin Films
Cu-BHT thin film from solid-vapor interfacial CVD polymerization growth · Thin Film · Temperature-dependent electrical conductivity of S-V CVD Cu-BHT thin film; uncertainty from standard deviation of three data sets
2021 · Semiconducting to Metallic Electronic Landscapes in Defects-Controlled 2D π-d Conjugated Coordination Polymer Thin Films
Cu-BHT thin film from vapor-vapor interfacial CVD polymerization growth · Thin Film · Temperature-dependent electrical conductivity of V-V CVD Cu-BHT thin film; uncertainty from standard deviation of three data sets
2021 · Soft Electrochemical Actuators with a Two-Dimensional Conductive Metal-Organic Framework Nanowire Array
functionalised carbon nanofiber film · Thin Film · CNF control electrode measured with Keithley 2400 at 300 K in ambient atmosphere.
2021 · Soft Electrochemical Actuators with a Two-Dimensional Conductive Metal-Organic Framework Nanowire Array
core-shell Ni-CAT NWAs/CNF electrode · Electrode · Ni-CAT NWAs/CNF and CNF electrodes measured with Keithley 2400 at 300 K in ambient atmosphere.
2021 · Solar-driven ionic power generation: Via a film of nanocellulose @ conductive metal-organic framework
Freestanding CCM film · Thin Film · Electrical resistance measured in a four-point-probe station; Fig. S2e reports I-V curve.
2021 · Solar-driven ionic power generation: Via a film of nanocellulose @ conductive metal-organic framework
Freestanding CCM film · Thin Film · Rectangular CCM pieces (0.2 cm x 0.5 cm) embedded in PDMS; aqueous NaCl at varied concentrations and pH.
2021 · Solar-driven ionic power generation: Via a film of nanocellulose @ conductive metal-organic framework
Freestanding CCM film · Thin Film · NaCl concentration and pH varied; wet-dry interface measured by source meter; evaporation rate varied with air blower.
2021 · Solar-driven ionic power generation: Via a film of nanocellulose @ conductive metal-organic framework
Freestanding CCM film · Thin Film · Film floated on water at about 17 C and illuminated under one sun (1 kW m-2); surface temperature and thermal gradient recorded.
2021 · Sulfur vacancies enriched Nickel-Cobalt sulfides hollow spheres with high performance for All-Solid-State hybrid supercapacitor
r-NiCo2S4-6 HSs · Powder · Intrinsic electrical conductivity inferred from slopes of I-V curves in Fig. S11.
2021 · Synthesis, identification and application of metal organic framework for removal of industrial cationic dyes
ZIF-7 sample for AC measurements · Unknown · sigma_ac calculated as function of temperature and frequency; 310-480 K and 50 Hz-1.2 MHz.
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Co-MOF pressed pellet · Pellet · Co-MOF pressed into around 300 micrometer pellet at 20 MPa; average resistance measured by four-probe instrument; conductivity = 1/(R x t).
2021 · The Different Roles of Cobalt and Manganese in Metal-Organic Frameworks for Supercapacitors
Mn-MOF pressed pellet · Pellet · Mn-MOF pressed into around 300 micrometer pellet at 20 MPa; average resistance measured by four-probe instrument; conductivity = 1/(R x t).
2021 · The Origins of Ion Conductivity in MOF-Ionic Liquids Hybrid Solid Electrolytes
MIL-121/Li · Pellet · Concept 80 / Alpha-A impedance analyser with active ZGS cell; 1e7 to 1e-2 Hz, 0.1 V AC, -90 to 110 deg C, every 20 deg C on cooling
2021 · The Origins of Ion Conductivity in MOF-Ionic Liquids Hybrid Solid Electrolytes
MIL-121/Li + IL · Pellet · Concept 80 / Alpha-A impedance analyser; 1e7 to 1e-2 Hz, 0.1 V AC, -90 to 110 deg C; conductivity from DC plateaus; CPE in parallel to resistor fitted at -30 and 30 deg C
2021 · The Origins of Ion Conductivity in MOF-Ionic Liquids Hybrid Solid Electrolytes
MIL-121 + IL · Pellet · Supplementary conductivity isotherms from 110 to -90 deg C in 20 deg C steps for Li-free MIL-121 with EMIM-TFSI.
2021 · The Origins of Ion Conductivity in MOF-Ionic Liquids Hybrid Solid Electrolytes
MIL-121 + IL + LiTFSI · Pellet · Supplementary conductivity isotherms from 110 to -90 deg C in 20 deg C steps for Li-free MIL-121 with 0.4 M LiTFSI in EMIM-TFSI.
2021 · The Origins of Ion Conductivity in MOF-Ionic Liquids Hybrid Solid Electrolytes
MIL-121/Li + IL + LiTFSI · Pellet · Supplementary conductivity isotherms from 110 to -90 deg C in 20 deg C steps for MIL-121/Li with 0.4 M LiTFSI in EMIM-TFSI.
2021 · Truxone-Based Conductive Metal-Organic Frameworks for the Oxygen Reductive Reaction
pressed truxone-Cu MOF pellet · Pellet · Voltage 0-1 V between two stainless-steel electrodes at 50 mV s-1; temperatures 5-80 deg C; sample pretreated at 150 deg C.
2021 · Two-dimensional d-π conjugated metal-organic framework based on hexahydroxytrinaphthylene
pressed Cu3(HHTN)2 pellet · Pellet · Pressed pellet measured from 298 to 385 K under constant 4.0 V bias; conductivity calculated using sigma = I L/(V A).
2021 · Ultra-Stable Metal-Organic Framework with Concurrent High Proton Conductivity and Fluorescence Sensing for Nitrobenzene
compressed microcrystalline pellet of compound 1 · Pellet · 30 °C; RH varied from 60% to 100%; compact pellet contacted with gold wires and gold paste
2021 · Ultra-Stable Metal-Organic Framework with Concurrent High Proton Conductivity and Fluorescence Sensing for Nitrobenzene
compressed microcrystalline pellet of compound 1 · Pellet · 100% RH; temperature varied from 30 to 70 °C; compact pellet contacted with gold wires and gold paste
2021 · Ultra-Stable Metal-Organic Framework with Concurrent High Proton Conductivity and Fluorescence Sensing for Nitrobenzene
compressed microcrystalline pellet of compound 1 · Pellet · 70 °C and 100% RH for 8 h
2021 · Uniaxially Oriented Electrically Conductive Metal-Organic Framework Nanosheets Assembled at Air/Liquid Interfaces
HATP-water-NS 10-cycle control device · Electrode · HATP-water-NS control with 10 deposition cycles on SiO2/Si.
2021 · Uniaxially Oriented Electrically Conductive Metal-Organic Framework Nanosheets Assembled at Air/Liquid Interfaces
HITP-Ni-NS-2c top-contact device · Electrode · HITP-Ni-NS with 2 deposition cycles on SiO2/Si.
2021 · Uniaxially Oriented Electrically Conductive Metal-Organic Framework Nanosheets Assembled at Air/Liquid Interfaces
HITP-Ni-NS-5c top-contact device · Electrode · Keithley 4200-SCS in the dark; room-temperature planar conductivity; 40 nm Au contacts, channel length 100 um, width 2 mm.
2021 · Vapor-Induced Superionic Conduction of Magnesium Ions in a Metal-Organic Framework
Mg-MOF-74 superset {Mg(TFSI)2}0.15 · Powder · Compressed powder pellet with two porous silver electrodes in a home-made sealed cell; dried under N2 at 130 deg C overnight; measured under dry N2 or anhydrous guest vapours from N2 bubbling over solvents, 19-34 deg C.
2021 · Vapor-Induced Superionic Conduction of Magnesium Ions in a Metal-Organic Framework
Mg(TFSI)2 salt control · Powder · Mg(TFSI)2 control measured under selected guest vapours; MeOH, EtOH, and MeCN conditions could not be measured because of salt deliquescence.
2021 · Why conductivity is not always king-physical properties governing the capacitance of 2D metal-organic framework-based EDLC supercapacitor electrodes: A Ni3(HITP)2case study
HITP_A Ni3(HITP)2 powder batch · Powder · Reported as a physical characteristic of the dry Ni3(HITP)2 batch.
2021 · Why conductivity is not always king-physical properties governing the capacitance of 2D metal-organic framework-based EDLC supercapacitor electrodes: A Ni3(HITP)2case study
HITP_B Ni3(HITP)2 powder batch · Powder · Reported as a physical characteristic of the dry Ni3(HITP)2 batch.
2021 · Why conductivity is not always king-physical properties governing the capacitance of 2D metal-organic framework-based EDLC supercapacitor electrodes: A Ni3(HITP)2case study
HITP_C Ni3(HITP)2 powder batch · Powder · Reported as a physical characteristic of the dry Ni3(HITP)2 batch.
2020 · 2D Semiconducting Metal–Organic Framework Thin Films for Organic Spin Valves
100 nm Cu3(HHTP)2 thin film on glass · Thin Film · 100 nm Cu3(HHTP)2 film on glass with four parallel Au electrodes; temperature-dependent measurement in vacuum.
2020 · 2D Semiconducting Metal–Organic Framework Thin Films for Organic Spin Valves
100 nm Cu3(HHTP)2 thin film on ITO glass · Thin Film · 100 nm Cu3(HHTP)2 film on ITO; point electrodes deposited by thermal evaporation through shadow mask.
2020 · A conductive anionic Co-MOF cage with zeolite framework for supercapacitors
Co-MOF on Ni foam · Electrode · Experimental conductivity data are said to be listed in Supporting Information Table S1; main text reports the calculated average conductivity.
2020 · A Dual-Ligand Porous Coordination Polymer Chemiresistor with Modulated Conductivity and Porosity
Cu3(HHTP)(THQ) powder pellet · Pellet · Powder pellet measured in Ar-filled glove box to avoid humidity and interfering gases; Pt electrodes; temperature-dependent I-V curves.
2020 · A highly oriented conductive MOF thin film-based Schottky diode for self-powered light and gas detection
Ag/Cu3(C18H6(NH)6)2/n-Si/Al Schottky diode with 20 nm EC-MOF · Electrode · I-V curves of Ag/n-Si/Al and Ag/EC-MOF-20 nm/n-Si/Al sandwich devices; Al back electrode forms ohmic contact with n-Si.
2020 · A Light-Responsive Metal–Organic Framework Hybrid Membrane with High On/Off Photoswitchable Proton Conductivity
SSP@ZIF-8-10% membrane · Thin Film · Proton conductivity of ZIF-8 and SSP@ZIF-8 membranes with different SSP contents at 25 degC and 95% RH in the dark.
2020 · A Light-Responsive Metal–Organic Framework Hybrid Membrane with High On/Off Photoswitchable Proton Conductivity
ZIF-8 membrane after external SSP immersion · Thin Film · Pristine ZIF-8 and ZIF-8 after 12 h immersion in 0.03 wt% SSP aqueous solution compared at different temperatures.
2020 · Ag-DNA@ZIF-8 membrane: A proton conductive photoswitch
20 mM Ag-DNA@ZIF-8 · Thin Film · Activation energy extracted for 20 mM Ag-DNA@ZIF-8 from ln(sigma) versus 1000/T.
2020 · Ag-DNA@ZIF-8 membrane: A proton conductive photoswitch
1 mM Ag-DNA@ZIF-8 · Thin Film · 1 mM Ag-DNA@ZIF-8 measured at different relative humidities at 25 C.
2020 · Air-Stability and Carrier Type in Conductive M3(Hexaaminobenzene)2,(M = Co, Ni, Cu)
Ni-HAB pressed-powder pellet · Pellet · Sealed vacuum desiccator under positive pressure flowing nitrogen with wet/dry nitrogen flow control
2020 · Air-Stability and Carrier Type in Conductive M3(Hexaaminobenzene)2,(M = Co, Ni, Cu)
Co-HAB pressed-powder pellet · Pellet · Pressed pellet measured from 25 to 125 degC under nitrogen-filled glovebox and ambient conditions
2020 · Air-Stability and Carrier Type in Conductive M3(Hexaaminobenzene)2,(M = Co, Ni, Cu)
Cu-HAB pressed-powder pellet · Pellet · Pressed pellet measured from 25 to 125 degC under nitrogen-filled glovebox and ambient conditions
2020 · Air-Stability and Carrier Type in Conductive M3(Hexaaminobenzene)2,(M = Co, Ni, Cu)
Ni-HAB pressed-powder pellet · Pellet · Pressed pellet measured from 25 to 125 degC under nitrogen-filled glovebox and ambient conditions
2020 · Application of two Cu(II)-azido based 1D coordination polymers in optoelectronic device: Structural characterization and experimental studies
ITO/complex 1/Al thin-film Schottky device · Thin Film · dV/d(ln I) vs I and H(I) vs I plots under dark and illumination conditions; device parameters listed in rendered SI Table S1.
2020 · Application of two Cu(II)-azido based 1D coordination polymers in optoelectronic device: Structural characterization and experimental studies
ITO/complex 2/Al thin-film Schottky device · Thin Film · dV/d(ln I) vs I and H(I) vs I plots under dark and illumination conditions; device parameters listed in rendered SI Table S2.
2020 · Application of two Cu(II)-azido based 1D coordination polymers in optoelectronic device: Structural characterization and experimental studies
ITO/complex 1/Al thin-film Schottky device · Thin Film · Keithley 4200; dark and 1 Sun illumination; voltage range -1 to +1 V.
2020 · Application of two Cu(II)-azido based 1D coordination polymers in optoelectronic device: Structural characterization and experimental studies
ITO/complex 2/Al thin-film Schottky device · Thin Film · Keithley 4200; dark and 1 Sun illumination; voltage range -1 to +1 V.
2020 · Application of two Cu(II)-azido based 1D coordination polymers in optoelectronic device: Structural characterization and experimental studies
ITO/complex 1/Al thin-film Schottky device · Thin Film · Dark and illumination conditions; Mott-Gurney equation used for mobility; Table S1/S2 values extracted from rendered SI surrogate.
2020 · Application of two Cu(II)-azido based 1D coordination polymers in optoelectronic device: Structural characterization and experimental studies
ITO/complex 2/Al thin-film Schottky device · Thin Film · Dark and illumination conditions; Mott-Gurney equation used for mobility; Table S1/S2 values extracted from rendered SI surrogate.
2020 · Biporous Cd(II) Coordination Polymer via in Situ Disulfide Bond Formation: Self-Healing and Application to Photosensitive Optoelectronic Device
ITO/compound 1/Al sandwich-structured MS junction device · Electrode · Bias voltage within +/-2 V; dark and illumination conditions; photoconductivity measured under 100 mW cm-2 intensity.
2020 · Biporous Cd(II) Coordination Polymer via in Situ Disulfide Bond Formation: Self-Healing and Application to Photosensitive Optoelectronic Device
ITO/Al structured leakage-control device · Electrode · ITO/Al device without coordination polymer compared qualitatively with Al/compound 1/ITO device.
2020 · Conductive Metal-Organic Framework Thin Film Hybrids by Electropolymerization of Monosubstituted Acetylenes
DFT/percolation model of BPA@Cu(BDC) SURMOF · Model · Conductivity model where polymers occupy sites in a cubic lattice defined by the MOF; charges move along chains or hop between polymers; assumes sigma_parallel much greater than sigma_perpendicular.
2020 · Conductive Metal-Organic Framework Thin Film Hybrids by Electropolymerization of Monosubstituted Acetylenes
BPA@Cu(BDC)-SURMOF-2 after electropolymerisation · Electrode · Keithley 2635B SourceMeter; pure nitrogen; sample equilibrated at least 2 h in nitrogen before measurement; room temperature.
2020 · Conductive Metal-Organic Framework Thin Film Hybrids by Electropolymerization of Monosubstituted Acetylenes
Pristine Cu(BDC) SURMOF-2 thin-film device · Electrode · Keithley 2635B SourceMeter; pure nitrogen; sample equilibrated at least 2 h in nitrogen before measurement; room temperature.
2020 · Conductive Metal–Organic Frameworks with Extra Metallic Sites as an Efficient Electrocatalyst for the Hydrogen Evolution Reaction
Compressed Ni3(Ni3.HAHATN)2 nanosheet pellet · Pellet · Compressed pellet of Ni3(Ni3.HAHATN)2 nanosheets measured by four-point probe.
2020 · Conductive MOFs as bifunctional oxygen electrocatalysts for all-solid-state Zn-air batteries
[Ni6(HHTP)3(H2O)x]n powder/crystals · Powder · Room-temperature conductivity of resultant catalyst measured using ST2722 and ST2643.
2020 · Conductive MOFs as bifunctional oxygen electrocatalysts for all-solid-state Zn-air batteries
[Ni5.7Ru0.3(HHTP)3(H2O)x]n powder · Powder · Room-temperature conductivity of Ru-doped Ni-HHTP catalyst measured using ST2722 and ST2643.
2020 · Conjugated Copper–Catecholate Framework Electrodes for Efficient Energy Storage
Pelletised Cu-DBC crystalline powder · Pellet · Keithley 2636B SourceMeter in air at room temperature; voltage scanned -5.0 to 5.0 V; conductivity calculated as sigma = (I/V) x (d/A).
2020 · Conjugated Copper–Catecholate Framework Electrodes for Efficient Energy Storage
Pelletised Cu-DBC crystalline powder · Pellet · 0.59 mm Cu-DBC pellet in air; 273-313 K; temperature raised in 3 C increments every 30 min in sealed chamber.
2020 · Construction of a Succinate-Bridged Cd(II)-Based Two-Dimensional Coordination Polymer for Efficient Optoelectronic Device Fabrication and Explosive Sensing Application
ITO/compound 1/Al sandwich Schottky diode thin-film device · Thin Film · ITO/compound 1/Al Schottky device; -2 to +2 V at room temperature; dark and 1000 W m-2 illumination/photo condition.
2020 · Construction of a Succinate-Bridged Cd(II)-Based Two-Dimensional Coordination Polymer for Efficient Optoelectronic Device Fabrication and Explosive Sensing Application
ITO/compound 1/Al sandwich Schottky diode thin-film device · Thin Film · Dark-condition conductivity at room temperature/303 K, 333 K, 363 K and 393 K.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
Co3(HITP)2/Cu3(HITP)2 blended controls · Powder · Mechanical blend controls measured to compare percolative behaviour with true alloys.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
Co3(HITP)2/Ni3(HITP)2 blended controls · Powder · Mechanical blend controls measured to compare percolative behaviour with true alloys.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
Co3(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co0.51Cu2.49)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co0.71Cu2.29)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co1.09Cu1.91)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co1.59Cu1.41)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co1.83Cu1.17)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co2.47Cu0.53)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co0.60Ni2.40)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co1.14Ni1.86)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co1.54Ni1.45)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co1.83Ni1.17)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co2.38Ni0.62)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
Cu3(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Cu0.50Ni2.50)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Cu1.17Ni1.83)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Cu1.39Ni1.61)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Cu1.63Ni1.37)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Cu2.32Ni0.68)(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
Ni3(HITP)2 powder/pellet · Powder · Pressed MOF powder pellet; 4-probe probe station; at least three pellets from four separate batches averaged when reported.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
Co3(HITP)2 powder/pellet · Powder · PPMS DynaCool four-contact probe cell; data collected over 150-350 K or 400 K with 5 K/min sweeps; Ea from linear least-squares fit.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co0.60Ni2.40)(HITP)2 powder/pellet · Powder · PPMS DynaCool four-contact probe cell; data collected over 150-350 K or 400 K with 5 K/min sweeps; Ea from linear least-squares fit.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co1.14Ni1.86)(HITP)2 powder/pellet · Powder · PPMS DynaCool four-contact probe cell; data collected over 150-350 K or 400 K with 5 K/min sweeps; Ea from linear least-squares fit.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co1.54Ni1.45)(HITP)2 powder/pellet · Powder · PPMS DynaCool four-contact probe cell; data collected over 150-350 K or 400 K with 5 K/min sweeps; Ea from linear least-squares fit.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co1.83Ni1.17)(HITP)2 powder/pellet · Powder · PPMS DynaCool four-contact probe cell; data collected over 150-350 K or 400 K with 5 K/min sweeps; Ea from linear least-squares fit.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
(Co2.38Ni0.62)(HITP)2 powder/pellet · Powder · PPMS DynaCool four-contact probe cell; data collected over 150-350 K or 400 K with 5 K/min sweeps; Ea from linear least-squares fit.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
Cu3(HITP)2 powder/pellet · Powder · PPMS DynaCool four-contact probe cell; data collected over 150-350 K or 400 K with 5 K/min sweeps; Ea from linear least-squares fit.
2020 · Continuous Electrical Conductivity Variation in M3(Hexaiminotriphenylene)2(M = Co, Ni, Cu) MOF Alloys
Ni3(HITP)2 powder/pellet · Powder · PPMS DynaCool four-contact probe cell; data collected over 150-350 K or 400 K with 5 K/min sweeps; Ea from linear least-squares fit.
2020 · Controlling the Thermoelectric Properties of Organometallic Coordination Polymers via Ligand Design
annealed Ni-btt freestanding pellet · Pellet · Average thermoelectric properties at 305 K after annealing at 150 degC for 5 h in air.
2020 · Controlling the Thermoelectric Properties of Organometallic Coordination Polymers via Ligand Design
annealed Ni-diett freestanding pellet · Pellet · Average thermoelectric properties at 305 K after annealing at 150 degC for 5 h in air.
2020 · Controlling the Thermoelectric Properties of Organometallic Coordination Polymers via Ligand Design
annealed Ni-ett freestanding pellet · Pellet · Average thermoelectric properties at 305 K after annealing at 150 degC for 5 h in air.
2020 · Controlling the Thermoelectric Properties of Organometallic Coordination Polymers via Ligand Design
pristine Ni-btt freestanding pellet · Pellet · Freestanding pristine pellet; Figure 4 black data points across approximately 293-363 K for conductivity and 305-385 K for Seebeck coefficient.
2020 · Controlling the Thermoelectric Properties of Organometallic Coordination Polymers via Ligand Design
pristine Ni-diett freestanding pellet · Pellet · Freestanding pristine pellet; Figure 4 black data points across approximately 293-363 K for conductivity and 305-385 K for Seebeck coefficient.
2020 · Controlling the Thermoelectric Properties of Organometallic Coordination Polymers via Ligand Design
pristine Ni-ett freestanding pellet · Pellet · Freestanding pristine pellet; Figure 4 black data points across approximately 293-363 K for conductivity and 305-385 K for Seebeck coefficient.
2020 · Efficient and tunable one-dimensional charge transport in layered lanthanide metal–organic frameworks
HoHHTP pressed pellet · Pellet · Two-contact probe at 302 K in dry N2 glovebox; powder compressed between stainless-steel rods; linear I-V curves collected after repeated tightening/relaxation.
2020 · Efficient and tunable one-dimensional charge transport in layered lanthanide metal–organic frameworks
HoHHTP pressed pellet · Pellet · PPMS DynaCool electrical transport; two cycles of cooling/heating, resistance in AC mode every 5 K and I-V at intervals; presented data above 200 K.
2020 · Efficient and tunable one-dimensional charge transport in layered lanthanide metal–organic frameworks
LaHHTP pressed pellet · Pellet · Two-contact probe at 302 K in dry N2 glovebox; powder compressed between stainless-steel rods; linear I-V curves collected after repeated tightening/relaxation.
2020 · Efficient and tunable one-dimensional charge transport in layered lanthanide metal–organic frameworks
LaHHTP pressed pellet · Pellet · PPMS DynaCool electrical transport; two cycles of cooling/heating, resistance in AC mode every 5 K and I-V at intervals; presented data above 200 K.
2020 · Efficient and tunable one-dimensional charge transport in layered lanthanide metal–organic frameworks
NdHHTP pressed pellet · Pellet · Two-contact probe at 302 K in dry N2 glovebox; powder compressed between stainless-steel rods; linear I-V curves collected after repeated tightening/relaxation.
2020 · Efficient and tunable one-dimensional charge transport in layered lanthanide metal–organic frameworks
NdHHTP pressed pellet · Pellet · PPMS DynaCool electrical transport; two cycles of cooling/heating, resistance in AC mode every 5 K and I-V at intervals; presented data above 200 K.
2020 · Efficient and tunable one-dimensional charge transport in layered lanthanide metal–organic frameworks
YbHHTP pressed pellet · Pellet · Two-contact probe at 302 K in dry N2 glovebox; powder compressed between stainless-steel rods; linear I-V curves collected after repeated tightening/relaxation.
2020 · Efficient and tunable one-dimensional charge transport in layered lanthanide metal–organic frameworks
YbHHTP pressed pellet · Pellet · PPMS DynaCool electrical transport; two cycles of cooling/heating, resistance in AC mode every 5 K and I-V at intervals; presented data above 200 K.
2020 · Electrical Conductivity in a Porous, Cubic Rare-Earth Catecholate
Activated Eu6HOTP2 pressed pellets, batch 1 · Pellet · Pressed pellets in dry nitrogen-filled glovebox; powder compressed between stainless-steel rods; voltage generally swept between -1 and +1 V.
2020 · Electrical Conductivity in a Porous, Cubic Rare-Earth Catecholate
Activated Y6HOTP2 pressed pellets, batch 1 · Pellet · Six Y6HOTP2 pellets measured over five days after activation; powder kept under dry dinitrogen throughout.
2020 · Electrical Conductivity in a Porous, Cubic Rare-Earth Catecholate
Activated Y6HOTP2 pressed pellets, batch 1 · Pellet · Pressed pellets in dry nitrogen-filled glovebox; powder compressed between stainless-steel rods; voltage generally swept between -1 and +1 V; resistance stabilised by repeated pressurised standing and retightening.
2020 · Electrical Conductivity in a Porous, Cubic Rare-Earth Catecholate
Activated Y6HOTP2 pressed pellets, batch 2 · Pellet · Pressed pellets in dry nitrogen-filled glovebox; powder compressed between stainless-steel rods; voltage generally swept between -1 and +1 V.
2020 · Electrical Conductivity in a Porous, Cubic Rare-Earth Catecholate
Activated Y6HOTP2 pressed pellets, batch 3 · Pellet · Pressed pellets in dry nitrogen-filled glovebox; powder compressed between stainless-steel rods; voltage generally swept between -1 and +1 V.
2020 · Electrical Conductivity in a Porous, Cubic Rare-Earth Catecholate
Activated Y6HOTP2 pressed pellets, batch 1 · Pellet · Pressed pellet compared with original activated powder after electrical conductivity measurements.
2020 · Electrically Conductive 3D Metal-Organic Framework Featuring π-Acidic Hexaazatriphenylene Hexacarbonitrile Ligands with Anion-πInteraction and Efficient Charge-Transport Capabilities
In-situ pressed HATHCN ligand pellet · Pellet · Free HATHCN in-situ pressed pellets measured at 293 K under the same two-probe pressed-pellet method as the MOF.
2020 · Electrically Conductive 3D Metal-Organic Framework Featuring π-Acidic Hexaazatriphenylene Hexacarbonitrile Ligands with Anion-πInteraction and Efficient Charge-Transport Capabilities
In-situ pressed [Ag2(HATHCN)(CF3SO3)2]n pellet · Pellet · In-situ pressed pellets measured under ambient conditions at 293 K; two Ag-coated stainless-steel electrodes in Teflon tube; resistance from I-V slope; sigma = L/(R A), A = 0.057 cm2.
2020 · Electrically Conductive 3D Metal-Organic Framework Featuring π-Acidic Hexaazatriphenylene Hexacarbonitrile Ligands with Anion-πInteraction and Efficient Charge-Transport Capabilities
In-situ pressed [Ag2(HATHCN)(CF3SO3)2]n pellet · Pellet · Variable-temperature I-V measurements shown for 293 K initial, 303 K, 313 K, 323 K, 333 K, and returned 293 K; Arrhenius plot used to determine activation energy.
2020 · Electrochemical deposition and thermoelectric characterisation of a semiconducting 2-D metal-organic framework thin film
Cu3(HHTP)2 pressed pellet · Pellet · Four probes A-D placed on pellet
2020 · Electrochemical deposition and thermoelectric characterisation of a semiconducting 2-D metal-organic framework thin film
Cu3(HHTP)2 pressed pellet · Pellet · Ambient conditions; conductivity measured versus 301-316 K; Hall effect carrier concentration
2020 · Electrochemical deposition and thermoelectric characterisation of a semiconducting 2-D metal-organic framework thin film
PMMA-transferred Cu3(HHTP)2 thin film · Thin Film · Electrical contacts between PMMA transferred Cu3(HHTP)2 thin films and instrument probes
2020 · Electrochemical deposition and thermoelectric characterisation of a semiconducting 2-D metal-organic framework thin film
PMMA-transferred Cu3(HHTP)2 thin film · Thin Film · Conductivity versus temperature; Hall carrier concentration
2020 · Emergence of electrical conductivity in a flexible coordination polymer by using chemical reduction
pressed pellet of 1 · Pellet · Pressed pellet, 1 V applied voltage, gold-wire/carbon-paste contacts; conductivity measured under helium atmosphere.
2020 · Emergence of electrical conductivity in a flexible coordination polymer by using chemical reduction
pressed pellet of 2 · Pellet · Temperature-dependent pressed-pellet conductivity; 1 V applied voltage; Arrhenius fit to semiconducting behaviour.
2020 · Enhancement in electrical conductivity of a porous indium based metal-organic framework upon I2 uptake: Combined experimental and theoretical investigations
I2@1 pellet for two-probe I-V · Pellet · Contacts made on either side of iodine-loaded pellet; I-V curve linear.
2020 · Enhancement in electrical conductivity of a porous indium based metal-organic framework upon I2 uptake: Combined experimental and theoretical investigations
compound 1 pellet for two-probe I-V · Pellet · Contacts made on either side of a pellet; pristine compound 1 measured with two instruments.
2020 · High Thermopower in a Zn-Based 3D Semiconductive Metal-Organic Framework
Cold-pressed Zn-HAB pellet · Pellet · Pellets stored under vacuum or nitrogen glovebox; air exposure discussed via PESA-derived HOMO level.
2020 · High Thermopower in a Zn-Based 3D Semiconductive Metal-Organic Framework
Cold-pressed Zn-HAB pellet · Pellet · LakeShore CRX-6.5K probe station; pressure below 2 x 10^-4 mbar; current swept -1.4 to +1.4 uA in 0.4 uA steps; resistances from linear regression of I-V curves.
2020 · Highly Conductive Two-Dimensional Metal-Organic Frameworks for Resilient Lithium Storage with Superb Rate Capability
as-prepared Cu-BHT powder · Powder · room temperature, 25 deg C, JANDEL RM3000+
2020 · Highly Selective CO2 Electroreduction to CH4 by In Situ Generated Cu2O Single-Type Sites on a Conductive MOF: Stabilizing Key Intermediates with Hydrogen Bonding
Cu2O@CuHHTP, -1.2 V 30 min · Electrode · electrical conductivity capacity after electrochemical reduction
2020 · Highly Selective CO2 Electroreduction to CH4 by In Situ Generated Cu2O Single-Type Sites on a Conductive MOF: Stabilizing Key Intermediates with Hydrogen Bonding
Pristine CuHHTP black powder · Powder · room temperature
2020 · Humidity-mediated anisotropic proton conductivity through the 1d channels of co-mof-74
large Co-MOF-74 single crystals · Single Crystal · Linear regression of ln(T sigma) versus T^-1 at 90% r.h.; activation energies reported for c-axis and orthogonal transport.
2020 · Humidity-mediated anisotropic proton conductivity through the 1d channels of co-mof-74
Co-74_1 single crystal · Single Crystal · 25 C, 92% r.h.; current direction along c axis and orthogonal to c axis.
2020 · Humidity-mediated anisotropic proton conductivity through the 1d channels of co-mof-74
Co-74_2 single crystal · Single Crystal · 21 C; along c axis; relative humidity varied from 75% to 90%.
2020 · Humidity-mediated anisotropic proton conductivity through the 1d channels of co-mof-74
Co-74_3 single crystal · Single Crystal · Along c axis; 90% r.h.; temperature varied from 22 C to 30 C.
2020 · Humidity-mediated anisotropic proton conductivity through the 1d channels of co-mof-74
Co-74_4 single crystal · Single Crystal · Orthogonal to c axis; 90% r.h.; temperature varied from 21 C to 30 C.
2020 · Humidity-mediated anisotropic proton conductivity through the 1d channels of co-mof-74
Co-74_5 single crystal · Single Crystal · Along c axis; humidity series at 30 C and temperature series at 90% r.h. from 30 C to 60 C.
2020 · In Situ Growth of Lithiophilic MOF Layer Enabling Dendrite-free Lithium Deposition
Cu-MOF-30 min · Electrode · Conductivity used by authors to rationalise Li plating kinetics; not directly measured in this paper.
2020 · Interdigitated conducting tetrathiafulvalene-based coordination networks
Network 4 as-synthesised pressed pellet · Pellet · Two-probe conductivity; Keithley 2450 sourcemeter; ambient 296 K; voltage swept from -0.5 to +0.5 V. Native/as-synthesised network 4 pressed pellet.
2020 · Interdigitated conducting tetrathiafulvalene-based coordination networks
Network 4 as-synthesised single crystal · Single Crystal · Two-probe conductivity; Keithley 2450 sourcemeter; ambient 296 K; voltage swept from -0.5 to +0.5 V. Native/as-synthesised network 4.
2020 · Interdigitated conducting tetrathiafulvalene-based coordination networks
Network 4 iodine-treated pressed pellet · Pellet · Two-probe conductivity; Keithley 2450 sourcemeter; ambient 296 K; voltage swept from -0.5 to +0.5 V. Iodine-treated network 4 pressed-pellet devices.
2020 · Interdigitated conducting tetrathiafulvalene-based coordination networks
Network 4 iodine-treated single crystal · Single Crystal · Two-probe conductivity; Keithley 2450 sourcemeter; ambient 296 K; voltage swept from -0.5 to +0.5 V. Iodine-treated network 4 measured along b axis.
2020 · Interdigitated conducting tetrathiafulvalene-based coordination networks
Network 4 iodine-treated single crystal · Single Crystal · Two-probe conductivity; Keithley 2450 sourcemeter; ambient 296 K; voltage swept from -0.5 to +0.5 V. Iodine-treated network 4 measured along c axis.
2020 · Interdigitated conducting tetrathiafulvalene-based coordination networks
Network 5 as-synthesised pressed pellet · Pellet · Two-probe conductivity; Keithley 2450 sourcemeter; ambient 296 K; voltage swept from -0.5 to +0.5 V. Native/as-synthesised network 5 pressed pellet.
2020 · Interdigitated conducting tetrathiafulvalene-based coordination networks
Network 5 as-synthesised single crystal · Single Crystal · Two-probe conductivity; Keithley 2450 sourcemeter; ambient 296 K; voltage swept from -0.5 to +0.5 V. Native/as-synthesised network 5.
2020 · Interdigitated conducting tetrathiafulvalene-based coordination networks
Network 5 iodine-treated single crystal · Single Crystal · Two-probe conductivity; Keithley 2450 sourcemeter; ambient 296 K; voltage swept from -0.5 to +0.5 V. Iodine-treated network 5 measured along b axis.
2020 · Interdigitated conducting tetrathiafulvalene-based coordination networks
Network 5 iodine-treated single crystal · Single Crystal · Two-probe conductivity; Keithley 2450 sourcemeter; ambient 296 K; voltage swept from -0.5 to +0.5 V. Iodine-treated network 5 measured along c axis.
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Cd cobaltocene-treated powder · Powder · cobaltocene-treated Cd measured under nitrogen at 302 K
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Cd iodine-solution-treated powder · Powder · I2/toluene-treated Cd measured after 100 degrees C treatment
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Cd iodine-vapour-treated powder · Powder · I2-vapour-treated Cd measured after 32 days
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Cd NOBF4-treated powder · Powder · NOBF4-treated Cd measured under nitrogen at 302 K
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Cd two-contact pressed pellet · Pellet · home-built two-probe in situ press; powder under approximately 200 MPa
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Cd diffraction-quality/single-crystal device crystals · Single Crystal · I-V sweep with Keithley 2450; crystal contacted along c crystallographic axis
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Cd TCNE-treated powder · Powder · TCNE-treated Cd measured after workup
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Mn iodine-vapour-treated powder · Powder · I2-vapour-treated Mn measured after 32 days
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Mn two-contact pressed pellet · Pellet · home-built two-probe in situ press; powder under approximately 200 MPa
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Mn diffraction-quality/single-crystal device crystals · Single Crystal · I-V sweep with Keithley 2450; crystal contacted along c crystallographic axis
2020 · Isoreticular Linker Substitution in Conductive Metal–Organic Frameworks with Through-Space Transport Pathways
Zn two-contact pressed pellet · Pellet · home-built two-probe in situ press; powder under approximately 200 MPa
2020 · Mixed Anionic and Cationic Redox Chemistry in a Tetrathiomolybdate Amorphous Coordination Framework
<Na2MoS4> cold-pressed pellet · Pellet · Two-probe DC I-V from 0.01 to -0.01 V at 2 mV s-1; EIS from 10^6 to 0.1 Hz; temperatures -60 to 80 C in 20 C steps with 30 min stabilisation.
2020 · Mixed Anionic and Cationic Redox Chemistry in a Tetrathiomolybdate Amorphous Coordination Framework
Na2MoS4.3.5H2O cold-pressed pellet · Pellet · Two-probe DC I-V and EIS over -60 to 80 C; EIS fitted with transmission-line model to separate ionic and electronic rails.
2020 · Multifunctional coordination polymers based on copper(i) and mercaptonicotinic ligands: Synthesis, and structural, optical and electrical characterization
CP1 orange/red single crystals · Single Crystal · individual CP1 crystals contacted with graphite conductive ink and two Pt tips; voltage swept from -10.0 to +10.0 V; final value averaged over at least three crystals
2020 · Multifunctional coordination polymers based on copper(i) and mercaptonicotinic ligands: Synthesis, and structural, optical and electrical characterization
CP1 orange/red single crystals · Single Crystal · CP1 measured in the voltage range where crystals are ohmic conductors from 300 to 400 K with warming rate 1.0 K min^-1
2020 · Multifunctional coordination polymers based on copper(i) and mercaptonicotinic ligands: Synthesis, and structural, optical and electrical characterization
CP2 orange/red crystals · Single Crystal · individual CP2 crystals contacted with graphite conductive ink and two Pt tips; voltage swept from -10.0 to +10.0 V; final value averaged over at least three crystals
2020 · Multifunctional coordination polymers based on copper(i) and mercaptonicotinic ligands: Synthesis, and structural, optical and electrical characterization
CP3 yellow crystals from method A · Single Crystal · individual CP3 crystals contacted with graphite conductive ink and two Pt tips; voltage swept from -10.0 to +10.0 V; final value averaged over at least three crystals
2020 · Nanorods of a novel highly conductive 2D metal-organic framework based on perthiolated coronene for thermoelectric conversion
Ni-PTC compressed cuboid pellet for electrical conductivity and Seebeck measurements · Pellet · Temperature-dependent conductivity measured on pressed cuboid pellets; environment controlled by CTI Cryogenics refrigerator.
2020 · Nanorods of a novel highly conductive 2D metal-organic framework based on perthiolated coronene for thermoelectric conversion
Ni-PTC compressed cuboid pellet for electrical conductivity and Seebeck measurements · Pellet · PF = S2 sigma, reported for compressed powder sample.
2020 · Nanorods of a novel highly conductive 2D metal-organic framework based on perthiolated coronene for thermoelectric conversion
Ni-PTC columned pellet for thermal conductivity measurements · Pellet · ZT estimated for compressed powder sample from measured sigma, S and kappa.
2020 · Paramagnetic Conducting Metal–Organic Frameworks with Three-Dimensional Structure
Co-THBQ pressed cuboid pellet · Pellet · Pressed cuboid pellet measured with KEITHLEY 2002 multimeter; temperature range 300-400 K.
2020 · Paramagnetic Conducting Metal–Organic Frameworks with Three-Dimensional Structure
Fe-THBQ pressed cuboid pellet · Pellet · Pressed cuboid pellet measured with KEITHLEY 2002 multimeter; temperature range 300-400 K.
2020 · Paramagnetic Conducting Metal–Organic Frameworks with Three-Dimensional Structure
Mn-THBQ pressed cuboid pellet · Pellet · Pressed cuboid pellet measured with KEITHLEY 2002 multimeter; temperature range 300-400 K.
2020 · Particle size dependence of proton conduction in a cationic lanthanum phosphonate MOF
beta-PCMOF21-Br torque-control pellet · Pellet · Equal portions of beta-PCMOF21-Br equilibrated 3 days at 85 deg C and 95% RH under 0.2-0.5 N m, then increased by 0.05 N m and equilibrated another 3 days before measurement.
2020 · Particle size dependence of proton conduction in a cationic lanthanum phosphonate MOF
as-synthesised PCMOF21-AcO bulk powder · Powder · As-synthesised unsieved powder; 85 deg C, 95% RH, air, 0.4 N m; second cycle result in Table 2.
2020 · Particle size dependence of proton conduction in a cationic lanthanum phosphonate MOF
PCMOF21-AcO >210 um particle fraction · Pellet · >210 um sieved fraction; 85 deg C, 95% RH, air, 0.4 N m; second cycle result in Table 2.
2020 · Particle size dependence of proton conduction in a cationic lanthanum phosphonate MOF
PCMOF21-AcO <38 um particle fraction · Pellet · <38 um sieved fraction; 85 deg C, 95% RH, air, 0.4 N m; second cycle result in Table 2.
2020 · Particle size dependence of proton conduction in a cationic lanthanum phosphonate MOF
PCMOF21-AcO 125 <= x < 180 um particle fraction · Pellet · 125 <= x < 180 um sieved fraction; 85 deg C, 95% RH, air, 0.4 N m; second cycle result in Table 2.
2020 · Phosphonate Metal–Organic Frameworks: A Novel Family of Semiconductors
Hand-picked TUB75 crystals · Single Crystal · Room-temperature measurements; flat side of crystal between 1 mm diameter gold contacts; approximate 1 mm2 flat contact area; crystal orientation varied relative to gold surfaces.
2020 · Proton-Conductive 3D LnIII Metal–Organic Frameworks for Formic Acid Impedance Sensing
pelletised ZZU-1 · Pellet · 98% RH; activation energy from least-squares slope of Arrhenius plots
2020 · Proton-Conductive 3D LnIII Metal–Organic Frameworks for Formic Acid Impedance Sensing
pelletised ZZU-1 · Pellet · Pellet; 1 Hz to 1 MHz, 100 mV, quasi-four-probe Pt electrodes; 25-100 deg C and 68-98% RH
2020 · Proton-Conductive 3D LnIII Metal–Organic Frameworks for Formic Acid Impedance Sensing
pelletised ZZU-2 · Pellet · 98% RH; activation energy from least-squares slope of Arrhenius plots
2020 · Proton-Conductive 3D LnIII Metal–Organic Frameworks for Formic Acid Impedance Sensing
pelletised ZZU-2 · Pellet · Pellet; 1 Hz to 1 MHz, 100 mV, quasi-four-probe Pt electrodes; 25-100 deg C and 68-98% RH
2020 · Quantum spin liquid state in a two-dimensional semiconductive metal−organic framework
Cu3(HHTP)2 pressed pellet with gold-wire four-probe contacts · Pellet · Four gold wires glued to pressed MOF pellet with gold paste; Arrhenius fit to temperature-variable conductivity.
2020 · Quantum spin liquid state in a two-dimensional semiconductive metal−organic framework
Zn3(HHTP)2 pressed pellet with gold-wire four-probe contacts · Pellet · Four gold wires glued to pressed MOF pellet with gold paste; Arrhenius fit to temperature-variable conductivity.
2020 · Semiconducting Supramolecular Organic Frameworks Assembled from a Near-Infrared Fluorescent Macrocyclic Probe and Fullerenes
single crystals of pristine receptor 2 · Single Crystal · Voltage swept between -0.2 and 0.2 V at ambient conditions, 40-60% relative humidity, dark, along crystallographic z axis.
2020 · Semiconducting Supramolecular Organic Frameworks Assembled from a Near-Infrared Fluorescent Macrocyclic Probe and Fullerenes
single crystals of (2*C60)n SOF · Single Crystal · Voltage swept between -0.2 and 0.2 V at ambient conditions, 40-60% relative humidity, dark, along crystallographic z axis.
2020 · Semiconducting Supramolecular Organic Frameworks Assembled from a Near-Infrared Fluorescent Macrocyclic Probe and Fullerenes
single crystals of (2*C70)n SOF · Single Crystal · Voltage swept between -0.2 and 0.2 V at ambient conditions, 40-60% relative humidity, dark, along crystallographic z axis.
2020 · Semiconducting Supramolecular Organic Frameworks Assembled from a Near-Infrared Fluorescent Macrocyclic Probe and Fullerenes
single crystals of (2*C70)n SOF · Single Crystal · Crystalline samples exposed to 400, 500, 600 nm and 500-1000 nm white light 10 s prior to and during conductivity measurements.
2020 · Solid-solid interface growth of conductive metal-organic framework nanowire arrays and their supercapacitor application
Cu3(HHTP)2 nanowire arrays in situ grown on Cu foil · Electrode · Keithley 4200 SCS parameter analyser; Au contacts; measured at 300 K in air without light. Channel dimensions L = 5 um, W = 0.33 um, H = 198 nm from SI Fig. S9 caption.
2020 · Spin crossover in Fe(triazole)-Pt nanoparticle self-assembly structured at the sub-5 nm scale
Pristine PtNP deposit on electrode · Electrode · Pristine PtNP deposit measured at 300 K.
2020 · Spin crossover in Fe(triazole)-Pt nanoparticle self-assembly structured at the sub-5 nm scale
PtNPs-FeL3 self-assembly drop-cast on interdigitated electrodes · Electrode · PtNPs-FeL3 self-assembly measured at 300 K; non-linearity used as Coulomb blockade signature.
2020 · Stabilization of cyclic water tetramers and dimers in the crystal host of 2D coordination networks: electrical conductivity and dielectric studies
compound 1 pressed pellet · Pellet · ln sigma_ac vs ln omega at 293-373 K
2020 · Stabilization of cyclic water tetramers and dimers in the crystal host of 2D coordination networks: electrical conductivity and dielectric studies
compound 2 pressed pellet · Pellet · ln sigma_ac vs ln omega at 293-373 K
2020 · Stabilization of cyclic water tetramers and dimers in the crystal host of 2D coordination networks: electrical conductivity and dielectric studies
compound 1 pressed pellet · Pellet · pressed pellet placed between two circular copper electrodes; measurements in air and dark
2020 · Synthesis of a copper 1,3,5-triamino-2,4,6-benzenetriol metal-organic framework
Iodine-doped Cu3(TABTO)2-Ar pellet · Pellet · Hall measurements on 8 x 8 mm2 and 0.20 mm thick iodine-doped Cu3(TABTO)2-Ar pellet at room temperature.
2020 · Synthesis of a copper 1,3,5-triamino-2,4,6-benzenetriol metal-organic framework
Iodine-doped Cu3(TABTO)2-Ar pellet · Pellet · Activation energy fit from linear region from 30 K to 200 K.
2020 · Synthesis of a copper 1,3,5-triamino-2,4,6-benzenetriol metal-organic framework
Iodine-doped Cu3(TABTO)2-Ar pellet · Pellet · Iodine-doped Cu3(TABTO)2-Ar and Air-1 pellets pressed at 1.2 GPa; Keithley 2636A source meter and 2182 nanovoltmeter.
2020 · Synthesis of a copper 1,3,5-triamino-2,4,6-benzenetriol metal-organic framework
Iodine-doped Cu3(TABTO)2-Ar pellet · Pellet · Reflectance measured from 20 to 25000 cm-1 at room temperature using Bruker Vertex 80v and ex situ metallisation; optical conductivity from KK analysis.
2020 · Synthesis of a copper 1,3,5-triamino-2,4,6-benzenetriol metal-organic framework
Pristine Cu3(TABTO)2-Ar pellet · Pellet · Bulk compressed pristine Cu3(TABTO)2-Ar and Cu3(TABTO)2-Air-1 pellets measured; SI method uses PPMS and Keithley electrometers in vacuum with Ti/Au contacts.
2020 · Synthesis of a copper 1,3,5-triamino-2,4,6-benzenetriol metal-organic framework
Iodine-doped Cu3(TABTO)2-Ar pellet · Pellet · Electrical conductivity plotted from 100 to 330 K for iodine-doped Cu3(TABTO)2-Ar pellet.
2020 · Tuning Electrical- and Photo-Conductivity by Cation Exchange within a Redox-Active Tetrathiafulvalene-Based Metal–Organic Framework
Me2NH2@1 pressed pellet · Pellet · Room temperature, ambient conditions, voltage swept from -1.5 V to 1.5 V; powder pressed at 10 tons; conductive carbon adhesive/gold wires.
2020 · Tuning Electrical- and Photo-Conductivity by Cation Exchange within a Redox-Active Tetrathiafulvalene-Based Metal–Organic Framework
MV@1 pressed pellet · Pellet · Room temperature, ambient conditions, voltage swept from -1.5 V to 1.5 V; powder pressed at 10 tons; conductive carbon adhesive/gold wires.
2020 · Tuning Electrical- and Photo-Conductivity by Cation Exchange within a Redox-Active Tetrathiafulvalene-Based Metal–Organic Framework
TTF@1 pressed pellet · Pellet · Room temperature, ambient conditions, voltage swept from -1.5 V to 1.5 V; powder pressed at 10 tons; conductive carbon adhesive/gold wires.
2020 · Two-Dimensional Conductive Metal-Organic Frameworks Based on Truxene
pressed truxene-Cu cMOF tablet · Pellet · Conductivity data over 5-80 deg C fitted with Arrhenius equation.
2020 · Two-Dimensional Conductive Metal-Organic Frameworks Based on Truxene
pressed truxene-Cu cMOF tablet · Pellet · Voltage 0-1 V between two stainless steel electrodes; scan rate 0.05 V s-1; conductivity calculated as sigma = L/(R*S) from compressed-sample dimensions.
2020 · Two-Dimensional Conductive Ni-HAB as a Catalyst for the Electrochemical Oxygen Reduction Reaction
Ni-HAB-H pellet for four-point probe · Pellet · Cold-isostatically pressed pellet, 3.175 mm diameter and 200-300 um thickness, four tungsten probes 0.75 mm spacing, ca. few 10^-4 mbar for 24 h, dark, Keithley 4200 SCS, 25 C.
2020 · Two-Dimensional Conductive Ni-HAB as a Catalyst for the Electrochemical Oxygen Reduction Reaction
Ni-HAB-L pellet for four-point probe · Pellet · Cold-isostatically pressed pellet, 3.175 mm diameter and 200-300 um thickness, four tungsten probes 0.75 mm spacing, ca. few 10^-4 mbar for 24 h, dark, Keithley 4200 SCS, 25 C.
2020 · Ultrafast in Situ Synthesis of Large-Area Conductive Metal-Organic Frameworks on Substrates for Flexible Chemiresistive Sensing
Cu-BHT film reaction-time series · Thin Film · Conductivity versus reaction time at room temperature
2020 · Ultrasensitive Detection of Electrolyte Leakage from Lithium-Ion Batteries by Ionically Conductive Metal-Organic Frameworks
IC-MOF chemicapacitor/chemiresistor sensor with gold electrodes · Electrode · IC-MOF sensor stored in ambient atmosphere for 6 months, then I-V and DMC responses remeasured.
2020 · Ultrasensitive Detection of Electrolyte Leakage from Lithium-Ion Batteries by Ionically Conductive Metal-Organic Frameworks
ethanethiol-treated IC-MOF sensor · Electrode · IC-MOF sensor exposed to ethanethiol, then I-V and 200 ppm DMC response measured; vacuum-heated state also compared.
2020 · Ultrathin two-dimensional conjugated metal-organic framework single-crystalline nanosheets enabled by surfactant-assisted synthesis
bulk HHB-Cu powder · Powder · Bulk HHB-Cu pellet form, about 0.25 mm thick, measured from 246 to 310 K; reported 300 K value in main text.
2020 · Ultrathin two-dimensional conjugated metal-organic framework single-crystalline nanosheets enabled by surfactant-assisted synthesis
HHB-Cu nanosheets · Nanosheet · Lakeshore Hall System 9700A; silver-conductive-glue contacts; temperature-dependent conductivity from 243 to 310 K; Ohmic contact checked by I-V curves.
2020 · Ultrathin two-dimensional π-d conjugated coordination polymer Co3(hexaaminobenzene)2 nanosheets for highly efficient oxygen evolution
Co-HAB-HNs · Nanosheet · Conductivity value for Co-HAB-HNs is reported in discussion as a reason for poorer OER kinetics.
2020 · Ultrathin two-dimensional π-d conjugated coordination polymer Co3(hexaaminobenzene)2 nanosheets for highly efficient oxygen evolution
Co-HAB-NSs · Nanosheet · Pellets of Co-HAB-NSs, 1 cm diameter and 300 micrometre thickness, pressed at 10 MPa for 30 s; measured at room temperature.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
Cu-BHT four-terminal electrical devices 1-4 · Thin Film · Electrical conductivity measured as a function of temperature for Devices 1-4.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
Cu-BHT Seebeck/electrical devices 5-7 · Thin Film · Extra leads generate a temperature gradient for Seebeck measurement; S and sigma measured on Devices 5, 6, and 7.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
Chip 10 Dev 1 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
Chip 10 Dev 4 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
Chip 11 Dev 1 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
Chip 11 Dev 2 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
Chip 11 Dev 3 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
Chip 11 Dev 4 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
P11_T2 Device 7 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
P11_T2 Device 8 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
P7_T3_1_C25 Device 2 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
RT sample 2b spot 2 Dev 1 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
Sample 1 Dev 2 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
Sample 3 Dev 1 · Thin Film · Room-temperature conductivity for a Cu-BHT device not shown in the main text; length and width from optical image, thickness from AFM before dry etch.
2020 · Utilization of counter anions for charge transportation in the electrical device fabrication of Zn(ii) metal-organic frameworks
ITO/compound 1/Al Schottky diode · Thin Film · Conductivity vs frequency split into dc plateau and ac dispersive regions.
2020 · Utilization of counter anions for charge transportation in the electrical device fabrication of Zn(ii) metal-organic frameworks
ITO/compound 2/Al Schottky diode · Thin Film · Conductivity vs frequency split into dc plateau and ac dispersive regions.
2020 · Valence-Dependent Electrical Conductivity in a 3D Tetrahydroxyquinone-Based Metal-Organic Framework
FeTHQ as-prepared pressed pellet · Pellet · Cold-isostatic pressed FeTHQ pellet measured under vacuum with 0.3 mm contact spacing and 25 um BeCu contacts.
2020 · Valence-Dependent Electrical Conductivity in a 3D Tetrahydroxyquinone-Based Metal-Organic Framework
FeTHQ_ox · Pellet · Air-oxidised FeTHQ pellet conductivity compared with the same batch of as-prepared FeTHQ.
2020 · Valence-Dependent Electrical Conductivity in a 3D Tetrahydroxyquinone-Based Metal-Organic Framework
FeTHQ_red0.5 · Pellet · Reduced FeTHQ_red0.5 pellet conductivity from Figure 5a.
2020 · Valence-Dependent Electrical Conductivity in a 3D Tetrahydroxyquinone-Based Metal-Organic Framework
FeTHQ_red2 · Pellet · Reduced FeTHQ_red2 pellet conductivity from Figure 5a.
2020 · Valence-Dependent Electrical Conductivity in a 3D Tetrahydroxyquinone-Based Metal-Organic Framework
FeTHQ_red4 · Pellet · Reduced FeTHQ_red4 pellet conductivity from Figure 5a.
2020 · Valence-Dependent Electrical Conductivity in a 3D Tetrahydroxyquinone-Based Metal-Organic Framework
FeTHQ_redox0.5 · Pellet · FeTHQ_redox0.5 pellet conductivity from Figure S14a after air oxidation followed by sodium naphthalenide reduction.
2020 · Valence-Dependent Electrical Conductivity in a 3D Tetrahydroxyquinone-Based Metal-Organic Framework
FeTHQ_redox2 · Pellet · FeTHQ_redox2 pellet conductivity from Figure S14a after air oxidation followed by sodium naphthalenide reduction.
2020 · Valence-Dependent Electrical Conductivity in a 3D Tetrahydroxyquinone-Based Metal-Organic Framework
FeTHQ as-prepared pressed pellet · Pellet · Temperature-dependent pellet conductivity fitted in two ranges, 240-340 K and 200-240 K.
2019 · A Copper Coordination Polymer with Matching Energy Level for Modifying Hole Transport Layers to Improve the Performance of Perovskite Solar Cells
Cu-bix-doped HTL concentration series · Thin Film · Conductivity of HTL films with different amounts of Cu-bix; data in Figure S2b.
2019 · A highly crystalline anthracene-based MOF-74 series featuring electrical conductivity and luminescence
ANMOF-74(Co) pellet · Pellet · Pressed 1 cm diameter pellet from 100 mg MOF bulk material; ECOPIA Model HMS 3000 Hall measurement setup with SPCB-1 spring clip board; probe spacing adjusted to 5 mm.
2019 · A highly crystalline anthracene-based MOF-74 series featuring electrical conductivity and luminescence
ANMOF-74(Mg) pellet · Pellet · Pressed 1 cm diameter pellet from 100 mg MOF bulk material; ECOPIA Model HMS 3000 Hall measurement setup with SPCB-1 spring clip board; probe spacing adjusted to 5 mm.
2019 · A highly crystalline anthracene-based MOF-74 series featuring electrical conductivity and luminescence
ANMOF-74(Mn) pellet · Pellet · Pressed 1 cm diameter pellet from 100 mg MOF bulk material; ECOPIA Model HMS 3000 Hall measurement setup with SPCB-1 spring clip board; probe spacing adjusted to 5 mm.
2019 · A highly crystalline anthracene-based MOF-74 series featuring electrical conductivity and luminescence
ANMOF-74(Ni) pellet · Pellet · Pressed 1 cm diameter pellet from 100 mg MOF bulk material; ECOPIA Model HMS 3000 Hall measurement setup with SPCB-1 spring clip board; probe spacing adjusted to 5 mm.
2019 · A highly crystalline anthracene-based MOF-74 series featuring electrical conductivity and luminescence
ANMOF-74(Zn) pellet · Pellet · Pressed 1 cm diameter pellet from 100 mg MOF bulk material; ECOPIA Model HMS 3000 Hall measurement setup with SPCB-1 spring clip board; probe spacing adjusted to 5 mm.
2019 · A highly crystalline anthracene-based MOF-74 series featuring electrical conductivity and luminescence
MOF-74(Co) control pellet · Pellet · Activated/vacuum dried regular MOF-74 powder compressed into pellet and measured by four-point probe van der Pauw method.
2019 · A highly crystalline anthracene-based MOF-74 series featuring electrical conductivity and luminescence
MOF-74(Mg) control pellet · Pellet · Activated/vacuum dried regular MOF-74 powder compressed into pellet and measured by four-point probe van der Pauw method.
2019 · A highly crystalline anthracene-based MOF-74 series featuring electrical conductivity and luminescence
MOF-74(Mn) control pellet · Pellet · Activated/vacuum dried regular MOF-74 powder compressed into pellet and measured by four-point probe van der Pauw method.
2019 · A highly crystalline anthracene-based MOF-74 series featuring electrical conductivity and luminescence
MOF-74(Ni) control pellet · Pellet · Activated/vacuum dried regular MOF-74 powder compressed into pellet and measured by four-point probe van der Pauw method.
2019 · A highly crystalline anthracene-based MOF-74 series featuring electrical conductivity and luminescence
MOF-74(Zn) control pellet · Pellet · Activated/vacuum dried regular MOF-74 powder compressed into pellet and measured by four-point probe van der Pauw method.
2019 · A Highly Proton-Conductive 3D Ionic Cadmium-Organic Framework for Ammonia and Amines Impedance Sensing
MOF 1 cylindrical pellet for proton conductivity · Pellet · PARSTAT 2273; AC voltage 100 mV; 0.1-1 MHz; cylindrical pellets with Pt electrodes; equilibrated at RH for 18 h; 25-100 C and 68-98% RH.
2019 · A Highly Proton-Conductive 3D Ionic Cadmium-Organic Framework for Ammonia and Amines Impedance Sensing
MOF 1 cylindrical pellet for proton conductivity · Pellet · Ea from least-squares fits of Arrhenius slopes at 68 and 98% RH.
2019 · A Li+ conductive metal organic framework electrolyte boosts the high-temperature performance of dendrite-free lithium batteries
Optimised ILE@MOF ionogel, 1.5 g ILE per 1.0 g MOF · Thin Film · SS/ILE@MOF/SS cell, -10 to 80 deg C, 10 to 10^5 Hz; Arrhenius plots for varied ILE amounts.
2019 · A semiconducting layered metal-organic framework magnet
compressed K3Fe2[PcFe-O8] pellet · Pellet · Hall resistance measured under magnetic field at 300 K.
2019 · A semiconducting layered metal-organic framework magnet
air-oxidised K3Fe2[PcFe-O8] · Pellet · K3Fe2[PcFe-O8] aged in air for one week; conductivity remeasured and compared with pristine.
2019 · A semiconducting layered metal-organic framework magnet
compressed K3Fe2[PcFe-O8] pellet · Pellet · Four-probe silver-wire contacts on compressed pellet; I-V curves from 10 nA to 100 uA; temperature range 5-400 K by helium cooling.
2019 · A two-dimensional semiconducting covalent organic framework with nickel(II) coordination for high capacitive performance
Ni-COF black powder · Powder · Powder conductivity recorded on a Suzhou Jingge ST2253 by four-probe method.
2019 · A two-dimensional semiconducting covalent organic framework with nickel(II) coordination for high capacitive performance
Ni-COF thin film on quartz · Thin Film · Ni-COF thin film on quartz measured under temperature control using a Keithley 4200-SCS parameter analyser.
2019 · Bottom-Up Fabrication of 1D Cu-based Conductive Metal–Organic Framework Nanowires as a High-Rate Anode towards Efficient Lithium Storage
Cu-CAT literature conductivity sample · Unknown · Conductivity estimated to vary with specific crystallisation; not measured first-hand in this paper.
2019 · Bunching and Immobilization of Ionic Liquids in Nanoporous Metal-Organic Framework
MD model of [BMIM][NTf2] in HKUST-1 · Model · NPT at 1 atm and 300 K; timestep 0.25 fs; Nose-Hoover thermostat and Nose-Hoover-Andersen barostat; external electric fields 2.5, 5.0, 7.5 and 10 V nm^-1.
2019 · Cellulose Nanofiber @ Conductive Metal-Organic Frameworks for High-Performance Flexible Supercapacitors
CNF@c-MOF-CNT nanopaper · Electrode · SI Figure S20; figure-only supplementary CNT composite.
2019 · Cellulose Nanofiber @ Conductive Metal-Organic Frameworks for High-Performance Flexible Supercapacitors
CNF@Ni-HITP nanopaper · Electrode · Conductivity of CNF@c-MOF nanopapers, pressed pure c-MOF pellets, and direct-mixed CNF-c-MOF papers.
2019 · Cellulose Nanofiber @ Conductive Metal-Organic Frameworks for High-Performance Flexible Supercapacitors
CNF@Ni-HITP-15 nanopaper · Electrode · Conductivity values estimated visually from SI Figure S16e.
2019 · Chemiresistive Detection of Gaseous Hydrocarbons and Interrogation of Charge Transport in Cu[Ni(2,3-pyrazinedithiolate) 2 ] by Gas Adsorption
Pressed-pellet Cu[Ni(pdt)2] transport sample · Pellet · Ar-filled glovebox; activated Cu[Ni(pdt)2] pressed in a two-contact PEEK screw cell; Bio-Logic VMP-3; 1 MHz to 0.01 Hz; 100 mV sinus amplitude; 0 mV dc bias.
2019 · Chemiresistive Detection of Gaseous Hydrocarbons and Interrogation of Charge Transport in Cu[Ni(2,3-pyrazinedithiolate) 2 ] by Gas Adsorption
Acetonitrile-vapour exposed Cu[Ni(pdt)2].xCH3CN · Pellet · Cu[Ni(pdt)2] exposed to saturated acetonitrile vapour at room temperature for 12 h.
2019 · Chemiresistive Detection of Gaseous Hydrocarbons and Interrogation of Charge Transport in Cu[Ni(2,3-pyrazinedithiolate) 2 ] by Gas Adsorption
Hydrocarbon-dosed Cu[Ni(pdt)2] pellet · Pellet · Pressed pellet in custom conductivity cell attached to Micromeritics 3-Flex; room-temperature steady-state conductivities of Cu[Ni(pdt)2].nCxHy measured under constant current as a function of pressure; baseline at 1 ubar.
2019 · Chemiresistive Detection of Gaseous Hydrocarbons and Interrogation of Charge Transport in Cu[Ni(2,3-pyrazinedithiolate) 2 ] by Gas Adsorption
Pressed-pellet Cu[Ni(pdt)2] transport sample · Pellet · Guest-free activated Cu[Ni(pdt)2] pressed pellet measured at room temperature.
2019 · Conductive 2D metal-organic framework for high-performance cathodes in aqueous rechargeable zinc batteries
Cu3(HHTP)2 powder pressed pellet · Pellet · Pellet in home-built in situ pellet press connected to Keithley 4200-SCS; voltage sweep at 25 deg C.
2019 · Conductive 2D metal-organic framework for high-performance cathodes in aqueous rechargeable zinc batteries
Cu3(HHTP)2 single crystal literature reference · Single Crystal · Single-crystal conductivity value cited from prior reference 28; not measured first-hand in this paper.
2019 · Conductive metal–organic framework with redox metal center as cathode for high rate performance lithium ion battery
Cu3(HHTP)2 crystalline powder · Powder · Intrinsic conductivity attributed to extended 2D pi-conjugation.
2019 · Diverse π-π Stacking motifs modulate electrical conductivity in tetrathiafulvalene-based metal-organic frameworks
Pressed pellet device of compound 1 · Pellet · Ambient atmosphere at 296 K; at least two pellets from five batches; voltage sweep -0.5 to +0.5 V or -1 to +1 V.
2019 · Diverse π-π Stacking motifs modulate electrical conductivity in tetrathiafulvalene-based metal-organic frameworks
Pressed pellet device of compound 2 · Pellet · Ambient atmosphere at 296 K; at least two pellets from five batches; voltage sweep -0.5 to +0.5 V or -1 to +1 V.
2019 · Diverse π-π Stacking motifs modulate electrical conductivity in tetrathiafulvalene-based metal-organic frameworks
Pressed pellet device of compound 3 · Pellet · Ambient atmosphere at 296 K; at least two pellets from five batches; voltage sweep -0.5 to +0.5 V or -1 to +1 V.
2019 · Diverse π-π Stacking motifs modulate electrical conductivity in tetrathiafulvalene-based metal-organic frameworks
Pressed pellet device of compound 1 · Pellet · Dynamic vacuum around 1e-5 Torr; screw cell; 250-350 K for 1 and 2, 295-350 K for 3; Arrhenius analysis.
2019 · Diverse π-π Stacking motifs modulate electrical conductivity in tetrathiafulvalene-based metal-organic frameworks
Pressed pellet device of compound 2 · Pellet · Dynamic vacuum around 1e-5 Torr; screw cell; 250-350 K for 1 and 2, 295-350 K for 3; Arrhenius analysis.
2019 · Diverse π-π Stacking motifs modulate electrical conductivity in tetrathiafulvalene-based metal-organic frameworks
Pressed pellet device of compound 3 · Pellet · Dynamic vacuum around 1e-5 Torr; screw cell; 250-350 K for 1 and 2, 295-350 K for 3; Arrhenius analysis.
2019 · Efficient MOF-Sensitized Solar Cells Featuring Solvothermally Grown [100]-Oriented Pillared Porphyrin Framework-11 Films on ZnO/FTO Surfaces
C60-doped [100]-oriented PPF-11/ZnO-FTO film · Electrode · Method not described in supplied text; reported qualitatively for C60-doped PPF-11/ZnO films
2019 · Efficient MOF-Sensitized Solar Cells Featuring Solvothermally Grown [100]-Oriented Pillared Porphyrin Framework-11 Films on ZnO/FTO Surfaces
C60-doped [100]-oriented PPF-11/ZnO-FTO film · Electrode · Liquid-junction DSSC under simulated 1-sun AM 1.5 illumination, 100 mW/cm2; Pt-FTO counter electrode; I-/I3- electrolyte in propylene carbonate; 0.2 cm2 active area
2019 · Efficient MOF-Sensitized Solar Cells Featuring Solvothermally Grown [100]-Oriented Pillared Porphyrin Framework-11 Films on ZnO/FTO Surfaces
drop-cast PPF-11 on TCPP/ZnO-FTO · Electrode · Liquid-junction DSSC under simulated 1-sun AM 1.5 illumination, 100 mW/cm2; Pt-FTO counter electrode; I-/I3- electrolyte in propylene carbonate; 0.2 cm2 active area
2019 · Efficient MOF-Sensitized Solar Cells Featuring Solvothermally Grown [100]-Oriented Pillared Porphyrin Framework-11 Films on ZnO/FTO Surfaces
drop-cast PPF-11 on ZnO-FTO · Electrode · Liquid-junction DSSC under simulated 1-sun AM 1.5 illumination, 100 mW/cm2; Pt-FTO counter electrode; I-/I3- electrolyte in propylene carbonate; 0.2 cm2 active area
2019 · Efficient MOF-Sensitized Solar Cells Featuring Solvothermally Grown [100]-Oriented Pillared Porphyrin Framework-11 Films on ZnO/FTO Surfaces
[100]-oriented PPF-11 film on TCPP-coated ZnO-FTO · Electrode · Liquid-junction DSSC under simulated 1-sun AM 1.5 illumination, 100 mW/cm2; Pt-FTO counter electrode; I-/I3- electrolyte in propylene carbonate; 0.2 cm2 active area
2019 · Efficient MOF-Sensitized Solar Cells Featuring Solvothermally Grown [100]-Oriented Pillared Porphyrin Framework-11 Films on ZnO/FTO Surfaces
TCPP/ZnO-FTO film · Electrode · Liquid-junction DSSC under simulated 1-sun AM 1.5 illumination, 100 mW/cm2; Pt-FTO counter electrode; I-/I3- electrolyte in propylene carbonate; 0.2 cm2 active area
2019 · Efficient MOF-Sensitized Solar Cells Featuring Solvothermally Grown [100]-Oriented Pillared Porphyrin Framework-11 Films on ZnO/FTO Surfaces
blank ZnO-FTO film · Electrode · Liquid-junction DSSC under simulated 1-sun AM 1.5 illumination, 100 mW/cm2; Pt-FTO counter electrode; I-/I3- electrolyte in propylene carbonate; 0.2 cm2 active area
2019 · Enhancement of Electrical Conductivity due to Structural Distortion from Linear to Nonlinear Dicarboxylato-Bridged Zn(II) 1D-Coordination Polymers
Compound 1 ITO/film/Ag two-probe conductivity sample · Thin Film · Spin-coated ITO/compound/silver two-probe sample; Keithley 2635B source meter; room temperature, open atmosphere.
2019 · Enhancement of Electrical Conductivity due to Structural Distortion from Linear to Nonlinear Dicarboxylato-Bridged Zn(II) 1D-Coordination Polymers
Compound 1 ITO/compound/Al Schottky thin-film device · Thin Film · Agilent 4295A LCR impedance spectroscopy; main text states frequency range 40 Hz to 10 MHz at room temperature under dark conditions.
2019 · Enhancement of Electrical Conductivity due to Structural Distortion from Linear to Nonlinear Dicarboxylato-Bridged Zn(II) 1D-Coordination Polymers
Compound 1 ITO/compound/Al Schottky thin-film device · Thin Film · ITO/compound/Al Schottky device; Keithley 2635B source meter, -2 V to +2 V under dark room-temperature ambient conditions; thermionic-emission and SCLC analyses.
2019 · Enhancement of Electrical Conductivity due to Structural Distortion from Linear to Nonlinear Dicarboxylato-Bridged Zn(II) 1D-Coordination Polymers
Compound 2 ITO/film/Ag two-probe conductivity sample · Thin Film · Spin-coated ITO/compound/silver two-probe sample; Keithley 2635B source meter; room temperature, open atmosphere.
2019 · Enhancement of Electrical Conductivity due to Structural Distortion from Linear to Nonlinear Dicarboxylato-Bridged Zn(II) 1D-Coordination Polymers
Compound 2 ITO/compound/Al Schottky thin-film device · Thin Film · Agilent 4295A LCR impedance spectroscopy; main text states frequency range 40 Hz to 10 MHz at room temperature under dark conditions.
2019 · Enhancement of Electrical Conductivity due to Structural Distortion from Linear to Nonlinear Dicarboxylato-Bridged Zn(II) 1D-Coordination Polymers
Compound 2 ITO/compound/Al Schottky thin-film device · Thin Film · ITO/compound/Al Schottky device; Keithley 2635B source meter, -2 V to +2 V under dark room-temperature ambient conditions; thermionic-emission and SCLC analyses.
2019 · Functionality in metal-organic framework minerals: Proton conductivity, stability and potential for polymorphism
ST1 compacted pellet · Pellet · Arrhenius plots for ST1 at 90% RH, ST2 at 70% RH and ZH at 90% RH.
2019 · Functionality in metal-organic framework minerals: Proton conductivity, stability and potential for polymorphism
ST1 compacted pellet · Pellet · Relative humidity sweep at 25 deg C; frequency 1 Hz to 10 MHz; temperature/humidity controlled chamber.
2019 · Functionality in metal-organic framework minerals: Proton conductivity, stability and potential for polymorphism
ST2 compacted pellet · Pellet · Relative humidity sweep at 25 deg C; ST2 measured only up to 70% RH because of deliquescence.
2019 · Functionality in metal-organic framework minerals: Proton conductivity, stability and potential for polymorphism
ZH compacted pellet · Pellet · Relative humidity sweep at 25 deg C; frequency 1 Hz to 10 MHz; temperature/humidity controlled chamber.
2019 · Guest-Assisted Proton Conduction in the Sulfonic Mesoporous MIL-101 MOF
Anhydrous MIL-101(Cr)-NH-(CH2)3SO3H powder · Powder · Anhydrous sample after in situ heating at 383 K overnight; frequency 1 Hz to 1 MHz; 20 mV ac voltage.
2019 · Highly Electroconductive Metal-Organic Framework: Tunable by Metal Ion Sorption Quantity
TMU-60-Cd compressed pellet · Pellet · Cd2+-adsorbed dry pressed pellet, room temperature; 1 cm diameter, 0.2 mm thickness.
2019 · Highly Electroconductive Metal-Organic Framework: Tunable by Metal Ion Sorption Quantity
pristine TMU-60 compressed pellet · Pellet · Dry pressed pellet, room temperature; 1 cm diameter, 0.2 mm thickness; straight-line probe geometry.
2019 · Highly Electroconductive Metal-Organic Framework: Tunable by Metal Ion Sorption Quantity
TMU-60 exposed to Zn(II), Co(II), Cu(II), or Pb(II) · Pellet · TMU-60 exposed to Zn(II), Co(II), Cu(II), or Pb(II), then measured by four-point probe.
2019 · Influence of Axial Linkers on Polymerization in Paddle-Wheel Cu(II) Coordination Polymers for the Application of Optoelectronics Devices
compound 1 Al/compound/ITO Schottky thin-film device · Thin Film · 40 Hz-10 MHz at room temperature; dark condition; dc conductivity extrapolated from low-frequency AC conductivity plot.
2019 · Influence of Axial Linkers on Polymerization in Paddle-Wheel Cu(II) Coordination Polymers for the Application of Optoelectronics Devices
compound 2 Al/compound/ITO Schottky thin-film device · Thin Film · 40 Hz-10 MHz at room temperature; dark condition; dc conductivity extrapolated from low-frequency AC conductivity plot.
2019 · Influence of Axial Linkers on Polymerization in Paddle-Wheel Cu(II) Coordination Polymers for the Application of Optoelectronics Devices
compound 1 Al/compound/ITO Schottky thin-film device · Thin Film · Bias -1 to +1 V; dark and AM 1.5 light irradiation; white-light irradiance about 1000 W m-2; room temperature.
2019 · Influence of Axial Linkers on Polymerization in Paddle-Wheel Cu(II) Coordination Polymers for the Application of Optoelectronics Devices
compound 2 Al/compound/ITO Schottky thin-film device · Thin Film · Bias -1 to +1 V; dark and AM 1.5 light irradiation; white-light irradiance about 1000 W m-2; room temperature.
2019 · Integration of a (–Cu–S–) n plane in a metal–organic framework affords high electrical conductivity
Annealed compound 1 sample 1 · Single Crystal · Sample 1 annealed at 50 C for 24 h; conductivity followed during heating/cooling and over 18 h.
2019 · Integration of a (–Cu–S–) n plane in a metal–organic framework affords high electrical conductivity
Compound 1 single-crystal device, sample 3 · Single Crystal · FIB-deposited Pt contacts on single-crystal device; I-V curve at 300 K.
2019 · Integration of a (–Cu–S–) n plane in a metal–organic framework affords high electrical conductivity
Compound 1 single-crystal device, sample 1 · Single Crystal · FIB-deposited Pt contacts on single-crystal device; I-V curve at 300 K.
2019 · Integration of a (–Cu–S–) n plane in a metal–organic framework affords high electrical conductivity
Compound 1 single-crystal device, sample 2 · Single Crystal · FIB-deposited Pt contacts on single-crystal device; I-V curve at 300 K.
2019 · Integration of a (–Cu–S–) n plane in a metal–organic framework affords high electrical conductivity
Compound 1 single-crystal device, sample 1 · Single Crystal · LakeShore Cryotronics TTP4 cryogenic probe station; Keithley 4200-SCS; 110-300 K; 0.1 V reported in Fig. 3c.
2019 · Li + Ion-Conducting Sulfonate-Based Neutral Metal-Organic Framework
Bu4NClO4-treated Cu(I)-sulfonate MOF pellet · Pellet · Ambient conditions, ca. 20 deg C and 40% RH; frequency range 10^5-10^-1 Hz; ac perturbation 1000 mV.
2019 · Li + Ion-Conducting Sulfonate-Based Neutral Metal-Organic Framework
LiClO4-treated Cu(I)-sulfonate MOF pellet · Pellet · Ambient conditions, ca. 20 deg C and 40% RH; frequency range 10^5-10^-1 Hz; ac perturbation 1000 mV.
2019 · Li + Ion-Conducting Sulfonate-Based Neutral Metal-Organic Framework
LiClO4 salt pellet control · Pellet · Same pellet/electrode conditions as MOF samples.
2019 · Li + Ion-Conducting Sulfonate-Based Neutral Metal-Organic Framework
Pristine Cu(I)-sulfonate MOF in situ pressed pellet · Pellet · Ambient conditions, ca. 20 deg C and 40% RH; frequency range 10^5-10^-1 Hz; ac perturbation 1000 mV.
2019 · Metal organic framework doped Spiro-OMeTAD with increased conductivity for improving perovskite solar cell performance
HTM control film without In10 · Thin Film · Linear current-density versus voltage plot for HTM based film; device geometry not reported.
2019 · Metal organic framework doped Spiro-OMeTAD with increased conductivity for improving perovskite solar cell performance
HTM/In10-2 film · Thin Film · Linear current-density versus voltage plot for HTM/In10-2 based film; device geometry not reported.
2019 · Metal organic framework doped Spiro-OMeTAD with increased conductivity for improving perovskite solar cell performance
HTM/In10-4 film · Thin Film · Linear current-density versus voltage plot for HTM/In10-4 based film; device geometry not reported.
2019 · Metal organic framework doped Spiro-OMeTAD with increased conductivity for improving perovskite solar cell performance
HTM/In10-6 film · Thin Film · Linear current-density versus voltage plot for HTM/In10-6 based film; device geometry not reported.
2019 · Multifunctional coordination polymers based on copper with modified nucleobases, easily modulated in size and conductivity
CP1 turquoise needle-shaped single crystals · Single Crystal · Graphite paste contacts and 25 um wolframium wires; voltage swept from +10 to -10 V.
2019 · Multifunctional coordination polymers based on copper with modified nucleobases, easily modulated in size and conductivity
CP1 exposed to iodine vapour · Single Crystal · CP1 exposed to iodine vapour at ambient temperature and pressure for different times; same electrical method and voltage range as pristine crystals.
2019 · Multifunctional coordination polymers based on copper with modified nucleobases, easily modulated in size and conductivity
CP1 turquoise needle-shaped single crystals · Single Crystal · Conductivity versus temperature from 300 K to 380 K; activation energy from ln(conductivity) versus 1/T.
2019 · Multifunctional coordination polymers based on copper with modified nucleobases, easily modulated in size and conductivity
CP2 light-blue single crystals · Single Crystal · Graphite paste contacts and 25 um wolframium wires; voltage swept from +10 to -10 V.
2019 · Multifunctional coordination polymers based on copper with modified nucleobases, easily modulated in size and conductivity
CP3 yellow single crystals · Single Crystal · Graphite paste contacts and 25 um wolframium wires; voltage swept from +10 to -10 V.
2019 · Novel semiconducting iron–quinizarin metal–organic framework for application in supercapacitors*
pressed pellet of FeQ for four-contact conductivity · Pellet · Four gold wire connections made with silver-doped epoxy paint and soldered onto a puck; resistance measured over 2-400 K
2019 · One‐Pot hydrothermal synthesis of 1D copper (II) coordination polymers involving in-situ decarboxylation
CP 1 pressed conductivity pellet · Pellet · Pressed pellet, 25 C, five parallel measurements averaged.
2019 · One‐Pot hydrothermal synthesis of 1D copper (II) coordination polymers involving in-situ decarboxylation
CP 2 pressed conductivity pellet · Pellet · Pressed pellet, 25 C, five parallel measurements averaged.
2019 · Oriented Thin Films of Electroactive Triphenylene Catecholate-Based Two-Dimensional MetalOrganic Frameworks
ITO/Ni-CAT-1/Al photovoltaic device · Electrode · J-V under AM 1.5G illumination calibrated to 100 mW cm^-2 using Solar Light Model 16S simulator and Keithley 2400 SourceMeter.
2019 · Oriented Thin Films of Electroactive Triphenylene Catecholate-Based Two-Dimensional MetalOrganic Frameworks
Co-CAT-1 thin film on quartz · Thin Film · Two-probe I-V on films grown on 1.0 cm x 1.2 cm quartz; electrodes around 5 mm apart.
2019 · Oriented Thin Films of Electroactive Triphenylene Catecholate-Based Two-Dimensional MetalOrganic Frameworks
Ni-CAT-1 thin film on quartz · Thin Film · Two-probe I-V on films grown on 1.0 cm x 1.2 cm quartz; electrodes around 5 mm apart.
2019 · Oriented Thin Films of Electroactive Triphenylene Catecholate-Based Two-Dimensional MetalOrganic Frameworks
Oriented Co-CAT-1 thin film on glass · Thin Film · ECOPIA Model HMS 3000; films grown on glass substrates; current 25 nA; d = 0.2 um.
2019 · Oriented Thin Films of Electroactive Triphenylene Catecholate-Based Two-Dimensional MetalOrganic Frameworks
Co-CAT-1 pressed pellet · Pellet · ECOPIA Model HMS 3000 Hall setup; SPCB-1 spring clip board; probe distance adjusted to 5 mm.
2019 · Oriented Thin Films of Electroactive Triphenylene Catecholate-Based Two-Dimensional MetalOrganic Frameworks
Cu-CAT-1 pressed pellet · Pellet · ECOPIA Model HMS 3000 Hall setup; SPCB-1 spring clip board; probe distance adjusted to 5 mm.
2019 · Oriented Thin Films of Electroactive Triphenylene Catecholate-Based Two-Dimensional MetalOrganic Frameworks
Oriented Ni-CAT-1 thin film on glass · Thin Film · ECOPIA Model HMS 3000; films grown on glass substrates; current 25 nA; d = 0.2 um.
2019 · Oriented Thin Films of Electroactive Triphenylene Catecholate-Based Two-Dimensional MetalOrganic Frameworks
Ni-CAT-1 pressed pellet · Pellet · ECOPIA Model HMS 3000 Hall setup; SPCB-1 spring clip board; probe distance adjusted to 5 mm.
2019 · Porous Molecular Conductor: Electrochemical Fabrication of Through-Space Conduction Pathways among Linear Coordination Polymers
PMC-1 pressed pellet · Pellet · Pressed pellet; diameter 3 mm and thickness 200-400 um; variable-temperature data shown in Figure 4.
2019 · Porous Molecular Conductor: Electrochemical Fabrication of Through-Space Conduction Pathways among Linear Coordination Polymers
PMC-1 single crystal · Single Crystal · Variable-temperature conductivity in PPMS MODEL 6000 liquid He cryostat; Keithley 2611 sourcemeter; cooling/heating rate 2 K/min; measured along pi-stacked columnar c axis.
2019 · Porous Molecular Conductor: Electrochemical Fabrication of Through-Space Conduction Pathways among Linear Coordination Polymers
PMC-1h pressed pellet · Pellet · Pressed pellet of PMC-1h; variable-temperature data shown in Figure 4.
2019 · Porous Molecular Conductor: Electrochemical Fabrication of Through-Space Conduction Pathways among Linear Coordination Polymers
PMC-1s pressed pellet · Pellet · Pressed pellet conductivity reported in SI narrative.
2019 · Pressure-induced metallicity and piezoreductive transition of metal-centres in conductive 2-dimensional metal-organic frameworks
Ni3(HIB)2 bulk literature sample context · Unknown · Contextual conductivity from prior experimental reports; not measured in this computational paper.
2019 · Pressure-induced metallicity and piezoreductive transition of metal-centres in conductive 2-dimensional metal-organic frameworks
Ni3(HITP)2 bulk literature sample context · Unknown · Contextual conductivity from prior experimental reports; not measured in this computational paper.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 1 as-synthesized black powder · Powder · As-synthesized compound 1; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 1 oxidatively treated solid · Powder · Oxidatively treated compound 1; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 1 reductively doped solid · Powder · Reductively doped compound 1; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 2 as-synthesized black powder · Powder · As-synthesized compound 2; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 2 oxidatively treated solid · Powder · Oxidatively treated compound 2; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Compound 2 reductively doped solid · Powder · Reductively doped compound 2; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
2 precipitated from DMF solution without reductant · Powder · DMF-solution precipitated compound 2 without reductant; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
Partially reduced 2 precipitated from DMF solution · Powder · Solution-reduced, Et2O-precipitated compound 2; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
[Fe4S4(SPh)4][TBA]2 precursor control · Powder · [Fe4S4(SPh)4][TBA]2 molecular precursor control; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Redox-Active 1D Coordination Polymers of Iron-Sulfur Clusters
[Fe4S4(SPh)4][TMA]2 precursor control · Powder · [Fe4S4(SPh)4][TMA]2 molecular precursor control; pressed pellet/solid clamped between brass electrodes; room temperature; under N2; triplicate separate batches where stated.
2019 · Self-assembly and optoelectronic properties of isoreticular MOF nanocrystals
glass/ITO/IRMOF-8 microstructures/Cu thin-film device · Electrode · Electrical conductivity calculated from slopes of ohmic regions of multiple I-V curves; measurements conducted immediately after Cu cathode deposition.
2019 · Single Crystals of Electrically Conductive Two-Dimensional Metal-Organic Frameworks: Structural and Electrical Transport Properties
Exfoliated Cu3(HHTP)2 flakes · Nanosheet · Exfoliated Cu3(HHTP)2 flake devices measured at 295 K; SI table lists two flake devices.
2019 · Single Crystals of Electrically Conductive Two-Dimensional Metal-Organic Frameworks: Structural and Electrical Transport Properties
Cu3(HHTP)2 pellets from rod and particle batches · Pellet · Pellet conductivities reported for the Cu3(HHTP)2 particle batch used to exfoliate flakes and for the rod batch.
2019 · Single Crystals of Electrically Conductive Two-Dimensional Metal-Organic Frameworks: Structural and Electrical Transport Properties
Cu3(HHTP)2 rods · Single Crystal · Cu3(HHTP)2 rod devices measured at 295 K; SI table lists three rod devices.
2019 · Single Crystals of Electrically Conductive Two-Dimensional Metal-Organic Frameworks: Structural and Electrical Transport Properties
Polycrystalline Ni3(HITP)2 film device · Thin Film · Polycrystalline Ni3(HITP)2 film measured as comparison to single rods.
2019 · Single Crystals of Electrically Conductive Two-Dimensional Metal-Organic Frameworks: Structural and Electrical Transport Properties
Single-rod Ni3(HITP)2 electrical devices · Single Crystal · Representative single Ni3(HITP)2 rod device measured at 295 K and 1.4 K; VT conductance extended from 295 K down to 0.3 K; additional Ni rod devices shown in SI Figure 2.
2019 · Three-Dimensional-Coordination Polymer of Zn(II)-Carboxylate: Structural Elucidation, Photoelectrical Conductivity, and Biological Activity
compound 1 thin-film Schottky diode · Thin Film · Conductivity measured from the slope of resultant I-V graph; normal temperature and ambient conditions.
2019 · Three-Dimensional-Coordination Polymer of Zn(II)-Carboxylate: Structural Elucidation, Photoelectrical Conductivity, and Biological Activity
compound 1 thin-film Schottky diode · Thin Film · ITO/compound 1/Al device; voltage range -1 to +1 V; dark and light conditions; normal temperature and ambient conditions.
2019 · Three-Dimensional-Coordination Polymer of Zn(II)-Carboxylate: Structural Elucidation, Photoelectrical Conductivity, and Biological Activity
ppmh ligand thin-film Schottky diode · Thin Film · Conductivity measured from the slope of resultant I-V graph; normal temperature and ambient conditions.
2019 · Three-Dimensional-Coordination Polymer of Zn(II)-Carboxylate: Structural Elucidation, Photoelectrical Conductivity, and Biological Activity
ppmh ligand thin-film Schottky diode · Thin Film · ppmh-based SBD; voltage range -1 to +1 V; dark and light conditions.
2019 · Tunable electrical conductivity of a new 3D MOFs: Cu-TATAB
Cu-TATAB pressed pellet · Pellet · Pressed pellet; both pellet faces painted with silver paint; room-temperature air-condition measurement.
2019 · Tunable electrical conductivity of a new 3D MOFs: Cu-TATAB
TCNQ@Cu-TATAB pressed pellet · Pellet · Pressed pellet; both pellet faces painted with silver paint; room-temperature air-condition measurement.
2019 · Tunable electrical conductivity of a new 3D MOFs: Cu-TATAB
TCNQ@Cu-TATAB pressed pellet · Pellet · Temperature-dependent I-V curves from approximately 303-363 K; ln(sigma) plotted versus T^-1/4 for d = 3.
2018 · A coronene-based semiconducting two-dimensional metal-organic framework with ferromagnetic behavior
compressed PTC-Fe pellet · Pellet · Pellet I-V curves measured from -1.0 to +1.0 V.
2018 · A coronene-based semiconducting two-dimensional metal-organic framework with ferromagnetic behavior
compressed PTC-Fe pellet · Pellet · Conductivity measured from 20 to 320 K; plotted as sigma(T), ln(sigma) versus 1/T, and ln(sigma) versus T^-1/4.
2018 · A coronene-based semiconducting two-dimensional metal-organic framework with ferromagnetic behavior
compressed PTC-Fe pellet · Pellet · Bulk compressed pellet; approximately 0.3 mm thick; pressed at approximately 1 GPa; Cu wires/carbon paint contacts; vacuum.
2018 · A coronene-based semiconducting two-dimensional metal-organic framework with ferromagnetic behavior
compressed PTC-Fe pellet · Pellet · Compressed pellet vertical conductivity measured at room temperature in response to reviewer query.
2018 · A new semiconducting coordination polymer consisting of copper(I)-iodide and 3-pyridinecarboxaldehyde
Yellow needle-shaped single crystals of 1 · Single Crystal · 6517A electrometer; gold electrodes pasted on both sides of one single crystal; low-voltage ohmic region fitted.
2018 · A Water-Stable Proton-Conductive Barium(II)-Organic Framework for Ammonia Sensing at High Humidity
Pressed pellet of MOF 1 · Pellet · Continuous conductivity testing for 8 h at 100 deg C and 98% RH.
2018 · A Water-Stable Proton-Conductive Barium(II)-Organic Framework for Ammonia Sensing at High Humidity
MOF 1 pellet during humid NH3 exposure · Pellet · 30 deg C, 75/85/93/98% RH, 1-25 ppm NH3; conductivities calculated from impedances.
2018 · A Water-Stable Proton-Conductive Barium(II)-Organic Framework for Ammonia Sensing at High Humidity
Pressed pellet of MOF 1 · Pellet · Pressed pellet equilibrated at least 18 h under controlled RH; conductivity from Nyquist semicircle fitting using sigma = T/(RS).
2018 · Bioinspired fiber-like porous Cu/N/C electrocatalyst facilitating electron transportation toward oxygen reaction for metal-air batteries
CuNC (MOF) · Powder · Four-probe electric measurements of powder-derived samples; table does not state pellet geometry.
2018 · Bioinspired fiber-like porous Cu/N/C electrocatalyst facilitating electron transportation toward oxygen reaction for metal-air batteries
CuNC NPs · Powder · Four-probe electric measurements of powder-derived samples; table does not state pellet geometry.
2018 · Effect on Schottky behaviour of 1D coordination polymers by altering para-substituents on benzoate ligands
Al/compound 1/ITO Schottky diode · Thin Film · Bias from -1 V to +1 V at room temperature under dark and light conditions; table values correspond to device Schottky analysis.
2018 · Effect on Schottky behaviour of 1D coordination polymers by altering para-substituents on benzoate ligands
Al/compound 2/ITO Schottky diode · Thin Film · Bias from -1 V to +1 V at room temperature under dark and light conditions; table values correspond to device Schottky analysis.
2018 · Electron delocalization and charge mobility as a function of reduction in a metal-organic framework
Fe2(BDP)3 single-microcrystal FET device · Single Crystal · Single Fe2(BDP)3 crystal; 80-300 K Arrhenius analysis.
2018 · Electron delocalization and charge mobility as a function of reduction in a metal-organic framework
KxFe2(BDP)3/PMMA FP-TRMC films · Thin Film · 25 C under N2; 355 nm Nd:YAG laser pulses; 6.5e15 photons cm-2 pulse-1; microwave ca. 9.1 GHz.
2018 · Electron delocalization and charge mobility as a function of reduction in a metal-organic framework
Pressed pellets of KxFe2(BDP)3 · Pellet · Four-point pressed pellet conductivity for K0.2Fe2(BDP)3 and impedance/Nyquist plots for K0.2 and K0.4 pellets.
2018 · Electron delocalization and charge mobility as a function of reduction in a metal-organic framework
Stepwise-reduced KxFe2(BDP)3 single-microcrystal FET devices · Single Crystal · Device 1 measured as a function of K insertion; source-drain IV curves before and after reduction.
2018 · Encapsulating ionic liquids into POM-based MOFs to improve their conductivity for superior lithium storage
PMo10V2-ILs@MIL-100 crystals · Powder · Powder pellets pressed at approximately 1 GPa.
2018 · Encapsulating ionic liquids into POM-based MOFs to improve their conductivity for superior lithium storage
PMo10V2@MIL-100 crystals · Powder · Powder pellets pressed at approximately 1 GPa.
2018 · Fabrication of an Active Electronic Device Using a Hetero-bimetallic Coordination Polymer
X-ray quality crystalline [(NCS)Pb(H2O)LNi(NCS)]n · Single Crystal · Current-voltage measurement at sequential applied bias within +/-10 V.
2018 · Fabrication of an Active Electronic Device Using a Hetero-bimetallic Coordination Polymer
ITO/[(NCS)Pb(H2O)LNi(NCS)]n/Al thin-film Schottky device · Thin Film · I-V recorded from -2 to +2 V under dark and AM 1.5G illumination at room temperature under ambient conditions.
2018 · Fabrication of an Active Electronic Device Using a Hetero-bimetallic Coordination Polymer
ITO/[(NCS)Pb(H2O)LNi(NCS)]n/Al thin-film Schottky device · Thin Film · Photodetector metrics derived for the Schottky device under AM 1.5G illumination versus dark.
2018 · High electrical conductivity and high porosity in a Guest@MOF material: Evidence of TCNQ ordering within Cu3BTC2 micropores
liquid-infiltrated TCNQ@Cu3BTC2, x approximately 0.4 · Powder · Liquid-infiltrated TCNQ@Cu3BTC2 pressed pellet; low-potential measurement used for conductivity because +-1 V sweep is non-ohmic.
2018 · High electrical conductivity and high porosity in a Guest@MOF material: Evidence of TCNQ ordering within Cu3BTC2 micropores
10% CuTCNQ/Cu3BTC2 physical mixture · Pellet · Physical mixtures of 1% and 10% CuTCNQ in pristine Cu3BTC2 compared with pristine CuTCNQ.
2018 · High electrical conductivity and high porosity in a Guest@MOF material: Evidence of TCNQ ordering within Cu3BTC2 micropores
pristine Cu3BTC2 · Powder · Same air-tight press-cell method as VPI series.
2018 · High electrical conductivity and high porosity in a Guest@MOF material: Evidence of TCNQ ordering within Cu3BTC2 micropores
0.8TCNQ@Cu3BTC2 after sonication · Powder · 0.8TCNQ@Cu3BTC2 and Cu(TCNQ) measured before and after 1 h sonication in hexane.
2018 · High electrical conductivity and high porosity in a Guest@MOF material: Evidence of TCNQ ordering within Cu3BTC2 micropores
VPI xTCNQ@Cu3BTC2 concentration series · Powder · Powders (~70 mg) pressed in air-tight press cell at 3 t (375 MPa) for 2 min; I-V curves swept from -5 V to 5 V at 100 mV s^-1; conductivity calculated as sigma = (I/V)(d/A).
2018 · High Proton Mobility with High Directionality in Isolated Channels of MOF-74
pH 11 NH4OH-treated Co-MOF-74 crystals before electrode configuration · Single Crystal · Dimensions used in sigma = l/(R*A) for c-axis single crystal, a-axis single crystal, and pellet EIS geometries.
2018 · High Proton Mobility with High Directionality in Isolated Channels of MOF-74
pH 3 H2SO4-treated Co-MOF-74 crystals before electrode configuration · Single Crystal · Dimensions used in sigma = l/(R*A) for c-axis single crystal, a-axis single crystal, and pellet EIS geometries.
2018 · High Proton Mobility with High Directionality in Isolated Channels of MOF-74
pH 5 H2SO4-treated Co-MOF-74 crystals before electrode configuration · Single Crystal · Dimensions used in sigma = l/(R*A) for c-axis single crystal, a-axis single crystal, and pellet EIS geometries.
2018 · High Proton Mobility with High Directionality in Isolated Channels of MOF-74
pH 7 H2O-coordinating Co-MOF-74 crystals before electrode configuration · Single Crystal · Dimensions used in sigma = l/(R*A) for c-axis single crystal, a-axis single crystal, and pellet EIS geometries.
2018 · High Proton Mobility with High Directionality in Isolated Channels of MOF-74
pH 9 NH4OH-treated Co-MOF-74 crystals before electrode configuration · Single Crystal · Dimensions used in sigma = l/(R*A) for c-axis single crystal, a-axis single crystal, and pellet EIS geometries.
2018 · High Proton Mobility with High Directionality in Isolated Channels of MOF-74
pH 11 NH4OH-treated Co-MOF-74 single crystal, c-axis EIS geometry · Single Crystal · c/a and c/pellet conductivity ratios calculated/reported for pH-controlled Co-MOF-74 at 30, 45, 60, 75, and 90 deg C under 95% RH.
2018 · High Proton Mobility with High Directionality in Isolated Channels of MOF-74
pH 3 H2SO4-treated Co-MOF-74 single crystal, c-axis EIS geometry · Single Crystal · c/a and c/pellet conductivity ratios calculated/reported for pH-controlled Co-MOF-74 at 30, 45, 60, 75, and 90 deg C under 95% RH.
2018 · High Proton Mobility with High Directionality in Isolated Channels of MOF-74
pH 5 H2SO4-treated Co-MOF-74 single crystal, c-axis EIS geometry · Single Crystal · c/a and c/pellet conductivity ratios calculated/reported for pH-controlled Co-MOF-74 at 30, 45, 60, 75, and 90 deg C under 95% RH.
2018 · High Proton Mobility with High Directionality in Isolated Channels of MOF-74
pH 7 H2O-coordinating Co-MOF-74 single crystal, c-axis EIS geometry · Single Crystal · c/a and c/pellet conductivity ratios calculated/reported for pH-controlled Co-MOF-74 at 30, 45, 60, 75, and 90 deg C under 95% RH.
2018 · High Proton Mobility with High Directionality in Isolated Channels of MOF-74
pH 9 NH4OH-treated Co-MOF-74 single crystal, c-axis EIS geometry · Single Crystal · c/a and c/pellet conductivity ratios calculated/reported for pH-controlled Co-MOF-74 at 30, 45, 60, 75, and 90 deg C under 95% RH.
2018 · High-mobility band-like charge transport in a semiconducting two-dimensional metal–organic framework
Laser-ablated Hall-bar Fe3(THT)2(NH4)3 device · Thin Film · Conductance measured between parallel contact pairs without magnetic field; measurements in dark under high vacuum.
2018 · High-mobility band-like charge transport in a semiconducting two-dimensional metal–organic framework
70 nm two-probe Fe3(THT)2(NH4)3 film device · Thin Film · Au top contacts on SiO2/Si; room-temperature thickness series 20 nm to 1.7 um under vacuum; low-temperature measurements from 4.2 K while warming.
2018 · Highly Conducting Neutral Coordination Polymer with Infinite Two-Dimensional Silver-Sulfur Networks
free-standing Ag-BHT film · Thin Film · Film transferred onto insulated glass or quartz; four parallel gold electrodes deposited by low-temperature vacuum evaporation; current 100 uA; 12-400 K.
2018 · Highly Conducting Neutral Coordination Polymer with Infinite Two-Dimensional Silver-Sulfur Networks
pristine Ag-BHT pellet · Pellet · Pristine pellet prepared under 30 MPa and measured to compare physical form with film/reduced pellet.
2018 · Highly Conducting Neutral Coordination Polymer with Infinite Two-Dimensional Silver-Sulfur Networks
reduced Ag-BHT pellet · Pellet · Reduced Ag-BHT conductivity measured on a pellet sample; variable-temperature conductivity shown from 12 to 400 K.
2018 · Highly Conductive 2D Metal-Organic Framework Thin Film Fabricated by Liquid-Liquid Interfacial Reaction Using One-Pot-Synthesized Benzenehexathiol
Ag3BHT2 powder-pressed thick film · Pellet · Pressed 7 mm disk; current from 10 to 20 mA; conductivity calculated using SEM thickness.
2018 · Highly Conductive 2D Metal-Organic Framework Thin Film Fabricated by Liquid-Liquid Interfacial Reaction Using One-Pot-Synthesized Benzenehexathiol
Ag3BHT2 thin film · Thin Film · Current from 10 to 20 mA; conductivity calculated using film thickness from SEM cross-section.
2018 · Highly Conductive 2D Metal-Organic Framework Thin Film Fabricated by Liquid-Liquid Interfacial Reaction Using One-Pot-Synthesized Benzenehexathiol
Au3BHT2 powder-pressed thick film · Pellet · Pressed 7 mm disk; current from 10 to 20 mA; conductivity calculated using SEM thickness.
2018 · Highly Conductive 2D Metal-Organic Framework Thin Film Fabricated by Liquid-Liquid Interfacial Reaction Using One-Pot-Synthesized Benzenehexathiol
Au3BHT2 thin film · Thin Film · Thin film on Si/SiO2; current from 10 to 20 mA; conductivity calculated using SEM thickness.
2018 · Increased Electrical Conductivity in a Mesoporous Metal-Organic Framework Featuring Metallacarboranes Guests
spin-coated NiCB@NU-1000 thin film · Thin Film · EIS in 0.1 M TBAPF6 in DCM at 0 V vs Ag/AgCl/KCl (3 M), 10 mV amplitude, spectra from 800 kHz to 0.5 Hz; conductivity calculated from sigma = l/(R A).
2018 · Increased Electrical Conductivity in a Mesoporous Metal-Organic Framework Featuring Metallacarboranes Guests
NiCB@NU-1000/IDE · Electrode · I-V curves measured in air at room temperature on bare IDE, NU-1000/IDE, NiCB/IDE, and NiCB@NU-1000/IDE.
2018 · Increased Electrical Conductivity in a Mesoporous Metal-Organic Framework Featuring Metallacarboranes Guests
NiCB@NU-1000 pellet · Pellet · Pellets sandwiched between two conductive FTO substrates; resistance obtained from I-V slope and conductivity calculated with pellet thickness and cross-section area.
2018 · Modular O2 electroreduction activity in triphenylene-based metal-organic frameworks
Ni3(HHTP)2 MOF powder · Powder · MOF powder pressed between two stainless steel rods inside a glass capillary; pellet resistance measured with a multimeter.
2018 · Nanopore-induced host-guest charge transfer phenomena in a metal-organic framework
Pressed pellet of compound 1 · Pellet · Pressed pellet under vacuum; no current detected even at 50 V.
2018 · Nanopore-induced host-guest charge transfer phenomena in a metal-organic framework
Pressed pellet of compound 2 · Pellet · Pressed pellet under vacuum; no current detected even at 50 V.
2018 · Nanopore-induced host-guest charge transfer phenomena in a metal-organic framework
Pressed pellet of compound 1 · Pellet · 97% relative humidity exposure; current range -2 to 2 microA.
2018 · Nanopore-induced host-guest charge transfer phenomena in a metal-organic framework
Pressed pellet of compound 2 · Pellet · 97% relative humidity exposure; current range -2 to 2 microA.
2018 · Novel Topology in Semiconducting Tetrathiafulvalene Lanthanide Metal-Organic Frameworks
Lu6(TTFTB)5 pressed pellet devices · Pellet · Two-contact probe measurements at 296 K in ambient atmosphere on pressed pellets; voltage swept between -1 and +1 V using Keithley 2450 sourcemeter; pellet thickness measured after measurement.
2018 · Novel Topology in Semiconducting Tetrathiafulvalene Lanthanide Metal-Organic Frameworks
Yb6(TTFTB)5 pressed pellet devices · Pellet · Two-contact probe measurements at 296 K in ambient atmosphere on pressed pellets; voltage swept between -1 and +1 V using Keithley 2450 sourcemeter; pellet thickness measured after measurement.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P3 poly[Ni-tto] · Pellet · More than 30 P3 batches; SI Fig. SA5 shows scatter.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P1 poly[Kx(Ni-ett)] · Pellet · 300 K compressed pellets pressed under different pressure.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P3 poly[Ni-tto] · Pellet · 300 K compressed pellets pressed under different pressure.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P1 poly[Kx(Ni-ett)] · Pellet · Conductivity monitored under ambient atmosphere over about one month.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P3 poly[Ni-tto] · Pellet · Conductivity monitored under ambient atmosphere over about one month.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P1 poly[Kx(Ni-ett)] · Pellet · Main Table 3 comparison of obtained polymers.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P1methanol poly[Kx(Ni-ett)] · Pellet · Main Table 3 comparison of obtained polymers; ambient pellet measurements unless temperature dependence under vacuum is specified.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P2 strongly charged poly[Kx(Ni-ett)] · Pellet · Main Table 3 comparison of obtained polymers.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P2-ox post-polymerisation oxidised poly[Kx(Ni-ett)] · Pellet · Main Table 3 comparison of obtained polymers.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P3 poly[Ni-tto] · Pellet · Main Table 3 comparison of obtained polymers and Fig. 1 temperature dependence.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P1 poly[Kx(Ni-ett)] · Pellet · Compressed pellets measured at 300-380 K; figure-only series.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P1methanol poly[Kx(Ni-ett)] · Pellet · Compressed pellets measured at 300-380 K; figure-only series.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P3 poly[Ni-tto] · Pellet · Compressed pellets measured at 300-380 K; hysteresis observed.
2018 · Polyethenetetrathiolate or polytetrathiooxalate? Improved synthesis, a comparative analysis of a prominent thermoelectric polymer and implications to the charge transport mechanism
P3 annealed poly[Ni-tto] · Pellet · P3 pellet annealed 1 h at 110 C before 300-380 K measurements.
2018 · Probing charge transfer characteristics in a donor-acceptor metal-organic framework by Raman spectroelectrochemistry and pressure-dependence studies
pressed pellet [(Zn(DMF))2(TTFTC)(DPNI)] · Pellet · Pressed pellet between FTO plates with conductive silver epoxy; AMETEK Solartron Analytical Modulab Potentiostat; potential range +3 to -3 V; sweep rate 10 mV s^-1; room temperature.
2018 · Selective reduction of CO2 by conductive MOF nanosheets as an efficient co-catalyst under visible light illumination
Literature Ni3(HITP)2 polycrystalline film · Thin Film · Polycrystalline Ni3(HITP)2 film; details not provided in this paper.
2018 · Selective reduction of CO2 by conductive MOF nanosheets as an efficient co-catalyst under visible light illumination
Literature Ni3(HITP)2 pressed pellet · Pellet · Pressed Ni3(HITP)2 pellet; details not provided in this paper.
2018 · Semiconducting lanthanide polymers of pyridine-2,6-dicarboxylate: Hydrothermal synthesis, structural characterization, electrical conductivity and luminescence properties
compound 1 pressed pellet · Pellet · Pressed pellet measured as solid phase at room temperature.
2018 · Semiconducting lanthanide polymers of pyridine-2,6-dicarboxylate: Hydrothermal synthesis, structural characterization, electrical conductivity and luminescence properties
compound 2 pressed pellet · Pellet · Pressed pellet measured as solid phase at 25 C.
2018 · Stabilization of Hexaaminobenzene in a 2D Conductive Metal-Organic Framework for High Power Sodium Storage
Pressed Co-HAB-D pellet · Pellet · Cold-isostatically pressed pellets, 3.175 mm diameter and 200-300 um thickness; four tungsten probes spaced 0.75 mm; evacuated to ca. few 10^-4 mbar for 24 h; data collected in dark at 25 C using Keithley 4200 SCS.
2018 · Surface Morphology and Electrical Properties of Cu3BTC2 Thin Films before and after Reaction with TCNQ
Cu(TCNQ) film from 50-cycle Cu3BTC2 device · Electrode · Voltage swept between -1 and 1 V under ambient conditions; current measured with DL 1211 current preamplifier.
2018 · Synthesis and Electric Properties of a Two-Dimensional Metal-Organic Framework Based on Phthalocyanine
pelletised Cu-CuPc · Pellet · 150 mV applied; air; 25 to 80 C; temperature manually raised in 3 C increments every 15 min
2018 · Synthesis and Electric Properties of a Two-Dimensional Metal-Organic Framework Based on Phthalocyanine
pelletised Cu-CuPc · Pellet · I-V in air at room temperature; voltage scanned 0 to 300 mV
2018 · Synthesis of a Cd(ii) based 1D coordination polymer by: In situ ligand generation and fabrication of a photosensitive electronic device
Al/compound 1/ITO Schottky barrier diode thin film · Thin Film · -2 V to +2 V under dark and light conditions at room temperature.
2018 · Synthetic Routes for a 2D Semiconductive Copper Hexahydroxybenzene Metal-Organic Framework
Cu-HHB pressed pellet conductivity sample · Pellet · Pressed pellet measured with Keithley 4200 SCS in nitrogen-filled glovebox; current swept -14 nA to +14 nA; temperature ramped 25 C to 105 C at 3 C/min with 5 min soaks every 10 C; activation energy fit over 300-380 K.
2018 · Synthetic Routes for a 2D Semiconductive Copper Hexahydroxybenzene Metal-Organic Framework
Cu-THQ pressed pellet conductivity sample · Pellet · Conductivity-temperature plot for Cu-THQ; assumed same pellet/device protocol described in Section 5 unless otherwise stated.
2018 · Two isostructural linear coordination polymers: The size of the metal ion impacts the electrical conductivity
ITO/compound 2/Al thin-film Schottky device · Electrode · Dark and AM 1.5G illumination; room temperature and ambient conditions.
2018 · Two isostructural linear coordination polymers: The size of the metal ion impacts the electrical conductivity
ITO/compound 1/Al thin-film Schottky device · Electrode · Dark and AM 1.5G illumination; room temperature and ambient conditions.
2017 · 2D Conductive Iron-Quinoid Magnets Ordering up to Tc = 105 K via Heterogenous Redox Chemistry
compound 1 pressed pellet · Pellet · Ambient-temperature pressed pellet conductivity in dinitrogen-filled glovebox using home-built press and Keithley 6517B electrometer
2017 · 2D Conductive Iron-Quinoid Magnets Ordering up to Tc = 105 K via Heterogenous Redox Chemistry
compound 1a pressed pellet · Pellet · Ambient-temperature pressed pellet conductivity in dinitrogen-filled glovebox
2017 · 2D Conductive Iron-Quinoid Magnets Ordering up to Tc = 105 K via Heterogenous Redox Chemistry
compound 2 pressed pellet · Pellet · Ambient-temperature pressed pellet conductivity; CHI 760c or Keithley methods described
2017 · 2D Conductive Iron-Quinoid Magnets Ordering up to Tc = 105 K via Heterogenous Redox Chemistry
compound 3 pressed pellet · Pellet · Ambient-temperature pressed pellet I-V measurement for Zn analogue
2017 · 2D Conductive Iron-Quinoid Magnets Ordering up to Tc = 105 K via Heterogenous Redox Chemistry
compound 1 pressed pellet · Pellet · Variable-temperature dc conductivity between 110 and 300 K, dark, ca. 1e-5 Torr for 1 and 1a
2017 · 2D Conductive Iron-Quinoid Magnets Ordering up to Tc = 105 K via Heterogenous Redox Chemistry
compound 1a pressed pellet · Pellet · Variable-temperature dc conductivity between 110 and 300 K, dark, ca. 1e-5 Torr
2017 · 2D Conductive Iron-Quinoid Magnets Ordering up to Tc = 105 K via Heterogenous Redox Chemistry
compound 2 pressed pellet · Pellet · Variable-temperature dc conductivity between 300 and 160 K for 2
2017 · A Microporous and Naturally Nanostructured Thermoelectric Metal-Organic Framework with Ultralow Thermal Conductivity
pressed pellet of Ni3(HITP)2 · Pellet · Measured at 25, 30, 35, 40, and 45 C in a 4-arm probe station; pellet on 300 nm SiO2/Si wafer with four gold wires and carbon paste contacts; desolvated at 150 C for 2 h, then measured in the dark under dynamic vacuum.
2017 · A stable porphyrinic metal-organic framework pore-functionalized by high-density carboxylic groups for proton conduction
BUT-83 pressed powder plate for proton conduction · Pellet · Least-square fit of Arrhenius plot slope for BUT-83 proton conduction.
2017 · A stable porphyrinic metal-organic framework pore-functionalized by high-density carboxylic groups for proton conduction
BUT-83 after one-month impedance test · Powder · BUT-83 tested over 30 days at 25 deg C and 97% RH.
2017 · A stable porphyrinic metal-organic framework pore-functionalized by high-density carboxylic groups for proton conduction
BUT-83 pressed powder plate for proton conduction · Pellet · Humidity-dependent proton conductivity from 33% to 97% RH at 25 deg C; standard saturated salt solutions controlled RH.
2017 · A stable porphyrinic metal-organic framework pore-functionalized by high-density carboxylic groups for proton conduction
Co(DpyDtolP) powder · Powder · Co(DpyDtolP) powder measured at 25 deg C and 97% RH.
2017 · A stable porphyrinic metal-organic framework pore-functionalized by high-density carboxylic groups for proton conduction
Co(DpyDtolP) single crystal literature sample · Single Crystal · Previously reported Co(DpyDtolP) single crystal containing only water molecules at room temperature.
2017 · Cation dependent charge transport in linear dicarboxylate based isotypical 1D coordination polymers
Device-a, Al/compound 1/ITO · Thin Film · Bias from -6 V to +6 V at room temperature, dark and illumination.
2017 · Cation dependent charge transport in linear dicarboxylate based isotypical 1D coordination polymers
Device-b, Al/compound 2/ITO · Thin Film · Bias from -6 V to +6 V at room temperature, dark and illumination.
2017 · Cation dependent charge transport in linear dicarboxylate based isotypical 1D coordination polymers
Device-a, Al/compound 1/ITO · Thin Film · Forward-bias regions analysed from dark I-V; dielectric constant for compound 1 taken as 10.26.
2017 · Cation dependent charge transport in linear dicarboxylate based isotypical 1D coordination polymers
Device-b, Al/compound 2/ITO · Thin Film · Forward-bias regions analysed from dark I-V; dielectric constant for compound 2 taken as 5.99.
2017 · Colossal Increase in Electric Current and High Rectification Ratio in a Photoconducting, Self-Cleaning, and Luminescent Schottky Barrier NMOF Diode
H2OPE-C12 ligand control conductivity film · Thin Film · H2OPE-C12 control film measured under dark and light by same conductivity protocol
2017 · Colossal Increase in Electric Current and High Rectification Ratio in a Photoconducting, Self-Cleaning, and Luminescent Schottky Barrier NMOF Diode
ITO/H2OPE-C12/Al ligand control diode · Electrode · ITO/H2OPE-C12/Al control device measured under dark and light
2017 · Colossal Increase in Electric Current and High Rectification Ratio in a Photoconducting, Self-Cleaning, and Luminescent Schottky Barrier NMOF Diode
NMOF-1 spin-coated planar conductivity film · Electrode · Keithley 2400 source meter; room temperature/open atmosphere; dark and light conditions
2017 · Colossal Increase in Electric Current and High Rectification Ratio in a Photoconducting, Self-Cleaning, and Luminescent Schottky Barrier NMOF Diode
ITO/NMOF-1/Al Schottky barrier diode · Electrode · ITO/NMOF-1/Al SBD measured from -1 to +1 V under dark and AM 1.5 irradiation; transient photocurrent at 1 V bias
2017 · Conductive Metal–Organic Framework Nanowire Array Electrodes for High-Performance Solid-State Supercapacitors
Pressed Cu-CAT powder pellet · Pellet · Pressed MOF powder pellets measured with Keithley 4200 in air at 297 K in the dark; pellets pressed at about 1 GPa.
2017 · Conductive Metal–Organic Framework Nanowire Array Electrodes for High-Performance Solid-State Supercapacitors
MIL-100 pressed powder pellet · Pellet · Pressed low-conductivity MOF powder pellet measured by two-probe method in air at 297 K in the dark.
2017 · Conductive Metal–Organic Framework Nanowire Array Electrodes for High-Performance Solid-State Supercapacitors
MIL-101 pressed powder pellet · Pellet · Pressed low-conductivity MOF powder pellet measured by two-probe method in air at 297 K in the dark.
2017 · Conductive Metal–Organic Framework Nanowire Array Electrodes for High-Performance Solid-State Supercapacitors
UiO-66 pressed powder pellet · Pellet · Pressed low-conductivity MOF powder pellet measured by two-probe method in air at 297 K in the dark.
2017 · Conductive Metal–Organic Framework Nanowire Array Electrodes for High-Performance Solid-State Supercapacitors
ZIF-67 pressed powder pellet · Pellet · Pressed low-conductivity MOF powder pellet measured by two-probe method in air at 297 K in the dark.
2017 · Conductive Metal–Organic Framework Nanowire Array Electrodes for High-Performance Solid-State Supercapacitors
ZIF-8 pressed powder pellet · Pellet · Pressed low-conductivity MOF powder pellet measured by two-probe method in air at 297 K in the dark.
2017 · Controllable proton-conducting pathways: Via situating polyoxometalates in targeting pores of a metal-organic framework
TETA@3 · Powder · RH dependence of TETA@3 at 25 C from SI Fig. S19; values read visually from the plotted log(sigma/S cm^-1) axis.
2017 · Controllable proton-conducting pathways: Via situating polyoxometalates in targeting pores of a metal-organic framework
TETA@3 · Powder · TETA@3 held at 80 C and 100% RH; SI Fig. S20 plots log(sigma/S cm^-1) versus time for about 14 days.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP polyhedron control · Powder · Electrical conductivity measured with KEITHLEY model 2000 multimeter; sample pressed into slice.
2017 · CoP nanoparticles embedded in P and N co-doped carbon as efficient bifunctional electrocatalyst for water splitting
CoP@PNC · Powder · Electrical conductivity measured with KEITHLEY model 2000 multimeter; sample pressed into slice.
2017 · Direct Observation of Confined I−⋅⋅⋅I2⋅⋅⋅I− Interactions in a Metal–Organic Framework: Iodine Capture and Sensing
Activated compound 1 single crystals · Single Crystal · Two ends of single crystals connected to Keithley 2400 with platinum wires and conductive silver paste; I-V curves scanned at voltage ranges set by resistance/sensitivity.
2017 · Direct Observation of Confined I−⋅⋅⋅I2⋅⋅⋅I− Interactions in a Metal–Organic Framework: Iodine Capture and Sensing
I2@1 iodine-loaded crystals · Single Crystal · Iodine-loaded I2@1 single-crystal conductivity compared with compound 1.
2017 · Direct Observation of Confined I−⋅⋅⋅I2⋅⋅⋅I− Interactions in a Metal–Organic Framework: Iodine Capture and Sensing
I2@1 iodine-loaded crystals · Single Crystal · Conductivity of I2@1 monitored after iodine removal and recharging; PXRD also tracked crystallinity after cycling.
2017 · Direct Observation of Confined I−⋅⋅⋅I2⋅⋅⋅I− Interactions in a Metal–Organic Framework: Iodine Capture and Sensing
I2@1 photoelectric device · Electrode · I2@1 powder-device current-voltage curves from -2 to 2 V in darkness and under illumination; current switching measured with light on/off.
2017 · Direct Observation of Confined I−⋅⋅⋅I2⋅⋅⋅I− Interactions in a Metal–Organic Framework: Iodine Capture and Sensing
I2@1 iodine-loaded crystals · Single Crystal · Single-crystal two-point-probe devices placed in thermostat; I-V curves scanned over 293-353 K; activation energy calculated from Arrhenius relation.
2017 · Drawing sensors with ball-milled blends of metal-organic frameworks and graphite
pure Co3HHTP2 compressed pellet · Pellet · compressed pure MOF pellet, about 90 mg, 6 mm diameter; hydraulic press 1000 psi for 1 min
2017 · Drawing sensors with ball-milled blends of metal-organic frameworks and graphite
Co3HHTP2/graphite blended pellet · Pellet · compressed M3HHTP2/graphite pellet; Table S1 cited
2017 · Drawing sensors with ball-milled blends of metal-organic frameworks and graphite
pure Cu3HHTP2 compressed pellet · Pellet · compressed pure MOF pellet, about 90 mg, 6 mm diameter; hydraulic press 1000 psi for 1 min
2017 · Drawing sensors with ball-milled blends of metal-organic frameworks and graphite
Cu3HHTP2/graphite blended pellet · Pellet · compressed M3HHTP2/graphite pellet; Table S1 cited
2017 · Drawing sensors with ball-milled blends of metal-organic frameworks and graphite
Cu3HHTP2/graphite blend stored six months · Pellet · Cu3HHTP2/graphite blend stored in vial under ambient conditions for six months
2017 · Drawing sensors with ball-milled blends of metal-organic frameworks and graphite
pure Fe3HHTP2 compressed pellet · Pellet · compressed pure MOF pellet, about 90 mg, 6 mm diameter; hydraulic press 1000 psi for 1 min
2017 · Drawing sensors with ball-milled blends of metal-organic frameworks and graphite
Fe3HHTP2/graphite blended pellet · Pellet · compressed M3HHTP2/graphite pellet; Table S1 cited
2017 · Drawing sensors with ball-milled blends of metal-organic frameworks and graphite
pure Ni3HHTP2 compressed pellet · Pellet · compressed pure MOF pellet, about 90 mg, 6 mm diameter; hydraulic press 1000 psi for 1 min
2017 · Drawing sensors with ball-milled blends of metal-organic frameworks and graphite
Ni3HHTP2/graphite blended pellet · Pellet · compressed M3HHTP2/graphite pellet; Table S1 cited
2017 · Drawing sensors with ball-milled blends of metal-organic frameworks and graphite
paper chip with four M3HHTP2/graphite blends · Electrode · I-V plots for Cu, Co, Ni and Fe M3HHTP2/graphite blend devices
2017 · Electrical semiconduction modulated by light in a cobalt and naphthalene diimide metal-organic framework
MOF-CoNDI-py-2 single-crystal four-pad device · Electrode · Two spring-loaded probes; dark current curves for every pair of pads in Supplementary Fig. 6.
2017 · Electrochemical synthesis of metal organic framework films with proton conductive property
PTA-free HKUST-1 control · Thin Film · PTA-free HKUST-1 control at 24 deg C under controlled RH.
2017 · Fluorescent metal-organic frameworks for selective sensing of toxic cations (Tl3+, Hg2+) and highly oxidizing anions ((CrO4)2−, (Cr2O7)2−, (MnO4)−)
compound I powdered single-crystal pellet with silver paint contacts · Pellet · Conductivity measured over 200-300 K; single crystals powdered and pressed into 0.4 cm diameter pellets with 0.034-0.045 cm thickness.
2017 · Fluorescent metal-organic frameworks for selective sensing of toxic cations (Tl3+, Hg2+) and highly oxidizing anions ((CrO4)2−, (Cr2O7)2−, (MnO4)−)
compound II powdered single-crystal pellet with silver paint contacts · Pellet · Conductivity measured over 200-300 K; single crystals powdered and pressed into 0.4 cm diameter pellets with 0.034-0.045 cm thickness.
2017 · Giant Enhancement of Carrier Mobility in Bimetallic Coordination Polymers
Cr-BTC xerogel pressed pellet · Pellet · Room-temperature four-probe dc measurement on pressed xerogel pellet using Keithley 6221 and 2182A.
2017 · Giant Enhancement of Carrier Mobility in Bimetallic Coordination Polymers
Fe-BTC xerogel pressed pellet · Pellet · Room-temperature four-probe dc measurement on pressed xerogel pellet using Keithley 6221 and 2182A.
2017 · Giant Enhancement of Carrier Mobility in Bimetallic Coordination Polymers
Fe-BTC-Cr 1:1 xerogel pressed pellet · Pellet · Room-temperature four-probe dc measurement on pressed xerogel pellet.
2017 · Giant Enhancement of Carrier Mobility in Bimetallic Coordination Polymers
Fe-BTC-Cr 1:2 xerogel pressed pellet · Pellet · Room-temperature four-probe dc measurement on pressed xerogel pellet.
2017 · Giant Enhancement of Carrier Mobility in Bimetallic Coordination Polymers
Fe-BTC-Cr 2:1 xerogel pressed pellet · Pellet · Room-temperature four-probe dc measurement on pressed xerogel pellet.
2017 · Giant Enhancement of Carrier Mobility in Bimetallic Coordination Polymers
1:1 Fe-BTC + Cr-BTC mechanical mixture pressed pellet · Pellet · Room-temperature current-voltage measurement of pressed mechanical mixture pellet.
2017 · High-κ Samarium-Based Metal-Organic Framework for Gate Dielectric Applications
compound 1 silver-coated pellet · Pellet · Frequency-dependent conductivity measured at different temperatures; SI Table S2 gives intercept and slope from conductivity vs frequency fits.
2017 · Intercatenated Coordination Polymers (ICPs) of Carboxylato Bridged Zn(II)-Isoniazid and Their Electrical Conductivity
Pressed pellet of 1 with silver-paste electrodes · Pellet · Frequency-dependent capacitance recorded with Agilent 4294A LCR meter; impedance and phase evaluated from 40 Hz to 11 MHz at room temperature.
2017 · Intercatenated Coordination Polymers (ICPs) of Carboxylato Bridged Zn(II)-Isoniazid and Their Electrical Conductivity
Pressed pellet of 2 with silver-paste electrodes · Pellet · Frequency-dependent capacitance recorded with Agilent 4294A LCR meter; impedance and phase evaluated from 40 Hz to 11 MHz at room temperature.
2017 · Intercatenated Coordination Polymers (ICPs) of Carboxylato Bridged Zn(II)-Isoniazid and Their Electrical Conductivity
Pressed pellet of 3 with silver-paste electrodes · Pellet · Frequency-dependent capacitance recorded with Agilent 4294A LCR meter; impedance and phase evaluated from 40 Hz to 11 MHz at room temperature.
2017 · Intercatenated Coordination Polymers (ICPs) of Carboxylato Bridged Zn(II)-Isoniazid and Their Electrical Conductivity
ITO/1/Al Schottky thin-film device · Thin Film · Keithley 2400 SourceMeter; applied bias swept within +/-2 V under dark condition.
2017 · Intercatenated Coordination Polymers (ICPs) of Carboxylato Bridged Zn(II)-Isoniazid and Their Electrical Conductivity
ITO/2/Al Schottky thin-film device · Thin Film · Keithley 2400 SourceMeter; applied bias swept within +/-2 V under dark condition.
2017 · Intercatenated Coordination Polymers (ICPs) of Carboxylato Bridged Zn(II)-Isoniazid and Their Electrical Conductivity
ITO/3/Al Schottky thin-film device · Thin Film · Keithley 2400 SourceMeter; applied bias swept within +/-2 V under dark condition.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Cd(1,2,3-triazolate)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Co2Cl2(BTDD)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Co2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Co(1,2,3-triazolate)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Cu2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Cu(1,2,3-triazolate)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Fe2Cl2(BTDD)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Fe2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Fe2(DSBDC)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Fe(1,2,3-triazolate)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mg2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mg(1,2,3-triazolate)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mn2Cl2(BTDD)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mn2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mn2(DSBDC)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mn(1,2,3-triazolate)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Ni2Cl2(BTDD)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Ni2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Zn2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Zn(1,2,3-triazolate)2 · Pellet · Pressed pellets measured at 300 K, under N2 atmosphere, in the dark; Fe-based MOFs measured with Keithley 2450, other metals with Keithley 6517B electrometer.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Cd(1,2,3-triazolate)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Co2Cl2(BTDD)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Co2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Co(1,2,3-triazolate)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Cu2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Cu(1,2,3-triazolate)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Fe2Cl2(BTDD)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Fe2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Fe2(DSBDC)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Fe(1,2,3-triazolate)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mg2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mg(1,2,3-triazolate)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mn2Cl2(BTDD)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mn2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mn2(DSBDC)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Mn(1,2,3-triazolate)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Ni2Cl2(BTDD)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Ni2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Zn2(DOBDC)(DMF)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Is iron unique in promoting electrical conductivity in MOFs?
pressed pellet of Zn(1,2,3-triazolate)2 · Pellet · Pressed pellets measured from 300 to 350 K at 10 K intervals, in vacuum and in the dark; 300 K conductivities normalised to room-temperature values.
2017 · Layer-by-Layer Assembled Conductive Metal–Organic Framework Nanofilms for Room-Temperature Chemiresistive Sensing
Cu3(HHTP)2-40C thin-film device · Electrode · I-V curves measured from 200 K to 300 K; log sigma plotted versus 1/T.
2017 · Multiple-Hydrogen-Bond Approach to Uncommon Pd(III) Oxidation State: A Pd-Br Chain with High Conductivity and Thermal Stability
Copper-luster rod-like single crystals of compound 3 · Single Crystal · Measured along the chain direction (b axis) in a liquid He cryostat of a Quantum Design PPMS MODEL 6000 with 1 K/min cooling rate; electrical leads attached with carbon paste.
2017 · Multiple-Hydrogen-Bond Approach to Uncommon Pd(III) Oxidation State: A Pd-Br Chain with High Conductivity and Thermal Stability
Copper-luster rod-like single crystals of compound 3 · Single Crystal · UV-Vis-NIR reflectivity spectra recorded on a specially designed spectrometer with 25 cm grating monochromator and optical microscope.
2017 · Nanosheets of Two-Dimensional Magnetic and Conducting Fe(II)/Fe(III) Mixed-Valence Metal-Organic Frameworks
compound 1 black hexagonal prismatic single crystals · Single Crystal · Current along hexagonal faces, parallel to ab plane; four single crystals; 2-300 K; Ohmic voltage range.
2017 · Nanosheets of Two-Dimensional Magnetic and Conducting Fe(II)/Fe(III) Mixed-Valence Metal-Organic Frameworks
compound 1 black hexagonal prismatic single crystals · Single Crystal · Current perpendicular to hexagonal faces, along c direction; four single crystals; 2-300 K; Ohmic voltage range.
2017 · Nanosheets of Two-Dimensional Magnetic and Conducting Fe(II)/Fe(III) Mixed-Valence Metal-Organic Frameworks
compound 2 black single crystals · Single Crystal · Current along hexagonal faces, parallel to ab plane; four single crystals; 2-300 K; Ohmic voltage range.
2017 · Nanosheets of Two-Dimensional Magnetic and Conducting Fe(II)/Fe(III) Mixed-Valence Metal-Organic Frameworks
compound 2 black single crystals · Single Crystal · Current perpendicular to hexagonal faces, along c direction; four single crystals; 2-300 K; Ohmic voltage range.
2017 · Novel Solid-State Solar Cell Based on Hole-Conducting MOF-Sensitizer Demonstrating Power Conversion Efficiency of 2.1%
Co-DAPV film on glass · Thin Film · Resistivity of Co-DAPV film in dark/ambient condition and under 1 sun illumination.
2017 · Novel Solid-State Solar Cell Based on Hole-Conducting MOF-Sensitizer Demonstrating Power Conversion Efficiency of 2.1%
iodine-induced hole-doped Co-NDC film on glass · Thin Film · Iodine-induced hole-doped Co-NDC film measured under similar conditions as comparison.
2017 · Novel Solid-State Solar Cell Based on Hole-Conducting MOF-Sensitizer Demonstrating Power Conversion Efficiency of 2.1%
Co-DAPV film on glass · Thin Film · Current density-bias curves for glass, glass/Co-NDC, glass/Co-DAPV in dark, and glass/Co-DAPV under light.
2017 · Synthesis and structural characterization of a Cu(II)-based 1D coordination polymer and its application in Schottky devices
ITO/compound 1/Al Schottky device thin film · Thin Film · Keithley 2400 source meter; +/-1 V range; ITO/Material/Al sandwiched Schottky structure.
2017 · Synthesis of ordered carbonaceous frameworks from organic crystals
Ni2-CPDPy873(1) · Powder · Temperature-dependent resistance; high-resistance samples by two-electrode method; low-resistance Ni2-CPDPy973(1) by four-probe method.
2017 · TCNQ-doped Cu-metal organic framework as a novel conductometric immunosensing platform for the quantification of prostate cancer antigen
antibody-TCNQ-Cu3(BTC)2-SPE · Electrode · After physical adsorption of antibodies on TCNQ-Cu3(BTC)2-SPE.
2017 · TCNQ-doped Cu-metal organic framework as a novel conductometric immunosensing platform for the quantification of prostate cancer antigen
Cu3(BTC)2 thin film on gold SPE · Electrode · SPE exposed to PBS buffer; room temperature; average of triplicate readings stated for reported measurements.
2017 · TCNQ-doped Cu-metal organic framework as a novel conductometric immunosensing platform for the quantification of prostate cancer antigen
24 h TCNQ-Cu3(BTC)2 SPE · Electrode · After 24 h TCNQ incubation; SPE exposed to PBS buffer.
2017 · TCNQ-doped Cu-metal organic framework as a novel conductometric immunosensing platform for the quantification of prostate cancer antigen
48 h TCNQ-Cu3(BTC)2 SPE · Electrode · After 48 h TCNQ incubation; SPE exposed to PBS buffer.
2017 · TCNQ-doped Cu-metal organic framework as a novel conductometric immunosensing platform for the quantification of prostate cancer antigen
TCNQ-Cu3(BTC)2 SPE incubation-time series · Electrode · Cu3(BTC)2 thin films on SPEs incubated with TCNQ for 0, 6, 12, 18, 24, 30, 36, 42, 48, 54 and 60 h; conductance tabulated in SI Table S1.
2017 · Thermally Driven Resistive Switching in Solution-Processable Thin Films of Coordination Polymers
Ag-TCNQ thin film on SAM/Au · Thin Film · EGaIn, Ti and Pt contacts; -5 to +5 V I-V, low-voltage fits over -0.3 to +0.3 V
2017 · Thermally Driven Resistive Switching in Solution-Processable Thin Films of Coordination Polymers
Ag-TCNQ thin film on SAM/Au · Thin Film · EGaIn top electrodes; resistance fitted over -0.3 to +0.3 V at 300 K, 400 K, then 300 K
2017 · Thermally Driven Resistive Switching in Solution-Processable Thin Films of Coordination Polymers
pressed pellet of powder Cu-TCNQ · Pellet · Pressed Cu-TCNQ pellet measured at 300 K, 370 K and after cooling to 300 K with direct pins
2017 · Thermally Driven Resistive Switching in Solution-Processable Thin Films of Coordination Polymers
pressed pellet of powder Cu-TCNQ · Pellet · Pressed Cu-TCNQ pellet measured at 300 K, 370 K and after cooling to 300 K using EGaIn contacts
2017 · Thermally Driven Resistive Switching in Solution-Processable Thin Films of Coordination Polymers
Cu-TCNQ thin film on SAM/Au · Thin Film · Cu-TCNQ thin film measured at 300 K, heating at 370 K and cooling back to 300 K.
2017 · Two-dimensional metal-organic frameworks with high thermoelectric efficiency through metal ion selection
Pt3(HITP)2 monolayer computational model · Model · Rectangular 2x2 unit cell; 10 replicas; constant energy dynamics for 3.2 ns after equilibration at 300 K; sheet-to-sheet spacing 0.3 nm.
2017 · Ultrathin metal-organic framework array for efficient electrocatalytic water splitting
Pressed NiFe-MOF nanosheet thin film for four-point-probe conductivity · Thin Film · MOF nanosheets scratched from nickel foam and pressed into film/pellet; Signatone four-point probe.
2016 · Coordination environments and π-conjugation in dense lithium coordination polymers
Compound 1 pale yellow plates · Single Crystal · Conductivity measured on single crystals of compounds 1-6; experimental geometry not specified in this article
2016 · Electrical conductivity and electroluminescence of a new anthracene-based metal-organic framework with π-conjugated zigzag chains
Single-crystal NNU-27 conductivity device · Single Crystal · Three cycles sweeping voltage from -5 V to 5 V for the same single crystal.
2016 · Electrical conductivity and electroluminescence of a new anthracene-based metal-organic framework with π-conjugated zigzag chains
Single-crystal NNU-27 conductivity device · Single Crystal · Single crystal immobilised between two conducting silver-resin contacts; measurements in dark under ambient/room-temperature air; voltage swept from -5 V to 5 V.
2016 · Electrochemical oxygen reduction catalysed by Ni3 (hexaiminotriphenylene)2
Ni3(HITP)2 thin film on glassy carbon electrode · Electrode · Cited as intrinsic electrical conductivity for Ni3(HITP)2.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Pressed pellet, direct-contact probe · Pellet · 297 K, air RH 35%, dark; currents +/-1 to +/-20 nA; four gold-plated tungsten probes, 1.50 mm spacing.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Pressed pellet, in situ press · Pellet · 297 K assumed/room temperature, air RH 40%, dark; 9 pellets with variable thickness; electrometer in ohmmeter mode.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Pressed pellet, direct-contact probe · Pellet · Same pellet/environment as four-point probe; 10 nA current; voltage measured with nanovoltmeter; approximately square peripheral probe placement.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Pressed pellet, wire-paste cuboid · Pellet · 297 K, air RH 46%, dark; voltage sweep -1 to 1 V; carbon paste/gold-wire contacts.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Pressed pellet, wire-paste cuboid · Pellet · Same environmental conditions as two-contact wire-paste pressed pellet; current sweep -100 to 100 nA.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Single-crystal alloy-contact devices · Single Crystal · 297 K, air RH 44%, dark; -1 to 1 V sweep; five crystals tested.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Single-crystal wire-paste devices for environmental tests · Single Crystal · 297 K, dark; air RH 41%; five air-vacuum cycles; chamber evacuated to about 2e-5 torr.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Single-crystal bottom-contact devices · Single Crystal · 297 K, air RH 35-45%, dark; current sweeps on three devices.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Single-crystal probe-paste devices, sigma_parallel_c · Single Crystal · 297 K assumed room temperature, air RH 35-45%, dark; -0.1 to 0.1 V sweep.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Single-crystal probe-paste devices, sigma_perpendicular_c · Single Crystal · 297 K assumed room temperature, air RH 35-45%, dark; -0.1 to 0.1 V sweep.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Single-crystal probe-wire-paste devices · Single Crystal · 297 K, air RH 35-45%, dark; -1 to 1 V sweep; conductivity parallel to c axis.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Single-crystal wire-paste devices for environmental tests · Single Crystal · Air RH 36-43%, dark; temperature stepped from 296 to 310 K in 1 K increments, 30 min per step.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Single-crystal top-contact devices · Single Crystal · 297 K, air RH 39%, dark; -1 to 1 V sweep; three devices tested.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Single-crystal wire-paste devices · Single Crystal · 297 K, air RH 30-50%, dark; mostly -0.1 to 0.1 V sweeps; conductivity parallel to c axis.
2016 · Measuring and Reporting Electrical Conductivity in Metal-Organic Frameworks: Cd2(TTFTB) as a Case Study
Single-crystal wire-paste devices · Single Crystal · 297 K, air RH 37%, dark; -10 to 10 nA current sweep; conductivity parallel to c axis.
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
C60-exposed BMOF film · Thin Film · BMOF film soaked in C60 solution for 7 d
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
DFDNB-loaded BMOF film · Thin Film · BMOF/ZnO device soaked in 30 mM DFDNB/MeNO2 for 24 h
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
DNT-loaded BMOF film · Thin Film · BMOF/ZnO device soaked in 30 mM DNT/MeNO2 for 24 h
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
MV2+-loaded BMOF film · Thin Film · BMOF/ZnO device soaked in 30 mM MV2+/MeNO2; measured under same conditions as pristine device
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
Pristine BMOF film on ZnO · Thin Film · BMOF/ZnO devices measured before guest infiltration at 25 C; BMOF component resistance extracted from device and bare ZnO resistances
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
Bare annealed ZnO film · Thin Film · Bare ZnO-glass device measured under ambient conditions (25 C).
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
MV2+-loaded BMOF film · Thin Film · quick washing of doped films and prolonged 72 h soaking in fresh solvents
2016 · Modulating the electrical conductivity of metal-organic framework films with intercalated guest π-systems
MV2+-loaded BMOF film · Thin Film · MV2+ solution 30 mM/MeNO2; conductivity reported after 24 h, 48 h and 70 h soaking.
2016 · Superexchange Charge Transport in Loaded Metal Organic Frameworks
TCNQ/HKUST-1 computational model · Model · Electronic coupling matrix elements and reorganisation energies for HOMO and LUMO transport pathways in TCNQ/F4-TCNQ loaded HKUST-1.
2016 · Superexchange Charge Transport in Loaded Metal Organic Frameworks
F4-TCNQ-loaded HKUST-1 SURMOF, 5 spray cycles · Thin Film · F4-TCNQ-loaded SURMOF measured in Hg/HDT//SURMOF/CMMT/Au geometry; bias swept as for pristine samples; 5-10 positions averaged.
2016 · Superexchange Charge Transport in Loaded Metal Organic Frameworks
Pristine HKUST-1 SURMOF, 5 spray cycles · Thin Film · Passivated mercury-drop top electrode, conductive Au bottom electrode; Hg/HDT//SURMOF/CMMT/Au junction; bias swept -0.5 to -0.01 V and 0.01 to 0.5 V; 5-10 positions averaged.
2016 · Superexchange Charge Transport in Loaded Metal Organic Frameworks
TCNQ-loaded HKUST-1 SURMOF, 5 spray cycles · Thin Film · TCNQ-loaded SURMOF measured in Hg/HDT//SURMOF/CMMT/Au geometry; bias swept as for pristine samples; 5-10 positions averaged.
2015 · A porous proton-relaying metal-organic framework material that accelerates electrochemical hydrogen evolution
benzoate-modified NU-1000 pellet · Pellet · Benzoate-modified NU-1000 pellet exposed to H2O vapour; compared with pristine NU-1000.
2015 · A porous proton-relaying metal-organic framework material that accelerates electrochemical hydrogen evolution
NU-1000 pellet · Pellet · NU-1000 pellet exposed to H2O vapour at ambient temperature; AC signal 20 mV, 500 kHz to 0.5 Hz.
2015 · A two-dimensional π-d conjugated coordination polymer with extremely high electrical conductivity and ambipolar transport behaviour
General Cu-BHT thin-film samples · Thin Film · Cu-BHT films with thickness 15-500 nm measured by four-probe method.
2015 · A two-dimensional π-d conjugated coordination polymer with extremely high electrical conductivity and ambipolar transport behaviour
60 nm Cu-BHT film · Thin Film · ST2263 Double Testing Digital Four-probe Tester; constant current 100 uA at room temperature; 11 x 11 mm2 glass substrate; in-line probes with 1 mm spacing and 3 N force.
2015 · A two-dimensional π-d conjugated coordination polymer with extremely high electrical conductivity and ambipolar transport behaviour
Cu-BHT film for temperature-dependent four-probe conductivity · Thin Film · Constant current 1 uA; PPMS sealed chamber swept from 300 K to 2 K with temperature deviation <0.01 K; Ohmic I-V checked.
2015 · Benign preparation of metal–organic frameworks of trimesic acid and Cu, Co or Ni for potential sensor applications
TMA-Co(II) pressed MOF disk · Pellet · Pressed MOF disk dried at 70 deg C under vacuum for 12 h; transverse current path; Keithley 2400 electrometer; top and bottom conductive carbon-tape electrodes fully overlapping.
2015 · Benign preparation of metal–organic frameworks of trimesic acid and Cu, Co or Ni for potential sensor applications
TMA-Cu(II) pressed MOF disk · Pellet · Pressed MOF disk dried at 70 deg C under vacuum for 12 h; transverse current path; Keithley 2400 electrometer; top and bottom conductive carbon-tape electrodes fully overlapping.
2015 · Benign preparation of metal–organic frameworks of trimesic acid and Cu, Co or Ni for potential sensor applications
TMA-Ni(II) pressed MOF disk · Pellet · Pressed MOF disk dried at 70 deg C under vacuum for 12 h; transverse current path; Keithley 2400 electrometer; top and bottom conductive carbon-tape electrodes fully overlapping.
2015 · Cation-dependent intrinsic electrical conductivity in isostructural tetrathiafulvalene-based microporous metal-organic frameworks
Cd2(TTFTB) dark red needle single crystals · Single Crystal · Ambient conditions; gold-wire method; two gold wires attached onto both ends of the c axis with carbon paste; 22 crystals from 4 or 5 synthetic batches.
2015 · Cation-dependent intrinsic electrical conductivity in isostructural tetrathiafulvalene-based microporous metal-organic frameworks
Co2(TTFTB) dark red single crystals · Single Crystal · Ambient conditions; gold-wire method; two gold wires attached onto both ends of the c axis with carbon paste; 22 crystals from 4 or 5 synthetic batches.
2015 · Cation-dependent intrinsic electrical conductivity in isostructural tetrathiafulvalene-based microporous metal-organic frameworks
Mn2(TTFTB) dark red single crystals · Single Crystal · Ambient conditions; gold-wire method; two gold wires attached onto both ends of the c axis with carbon paste; 24 crystals from 4 or 5 synthetic batches.
2015 · Cation-dependent intrinsic electrical conductivity in isostructural tetrathiafulvalene-based microporous metal-organic frameworks
Zn2(TTFTB) single crystals · Single Crystal · Ambient conditions; carbon-paste-probe method with tungsten needle probes because crystals were commonly shorter than 300 um; 20 crystals from 4 or 5 synthetic batches.
2015 · Cation-dependent intrinsic electrical conductivity in isostructural tetrathiafulvalene-based microporous metal-organic frameworks
Zn2(TTFTB) single crystals · Single Crystal · Two gold leads attached parallel to the ab plane; optical contact geometry shown in SI Figure S9.
2015 · Cation-dependent intrinsic electrical conductivity in isostructural tetrathiafulvalene-based microporous metal-organic frameworks
Cd2(TTFTB) dark red needle single crystals · Single Crystal · Four-point probe check along the TTF-column/c-axis direction; conditions otherwise not fully detailed.
2015 · Cation-dependent intrinsic electrical conductivity in isostructural tetrathiafulvalene-based microporous metal-organic frameworks
Co2(TTFTB) dark red single crystals · Single Crystal · Four-point probe check along the TTF-column/c-axis direction; conditions otherwise not fully detailed.
2015 · Cation-dependent intrinsic electrical conductivity in isostructural tetrathiafulvalene-based microporous metal-organic frameworks
Mn2(TTFTB) dark red single crystals · Single Crystal · Four-point probe check along the TTF-column/c-axis direction; conditions otherwise not fully detailed.
2015 · Chemiresistive Sensor Arrays from Conductive 2D Metal-Organic Frameworks
Drop-cast Cu3(HHTP)2 chemiresistor on interdigitated Au/corundum · Electrode · Chemiresistor device fabricated on interdigitated gold electrodes; current plotted against applied potential.
2015 · Chemiresistive Sensor Arrays from Conductive 2D Metal-Organic Frameworks
Drop-cast Cu3(HITP)2 chemiresistor on interdigitated Au/corundum · Electrode · Chemiresistor device fabricated on interdigitated gold electrodes; current plotted against applied potential.
2015 · Chemiresistive Sensor Arrays from Conductive 2D Metal-Organic Frameworks
Drop-cast Ni3(HITP)2 chemiresistor on interdigitated Au/corundum · Electrode · Chemiresistor device fabricated on interdigitated gold electrodes; current plotted against applied potential.
2015 · Chemiresistive Sensor Arrays from Conductive 2D Metal-Organic Frameworks
Cu3(HHTP)2 pressed pellet / powder · Pellet · Pressed pellet measured at room temperature using a home-built press.
2015 · Chemiresistive Sensor Arrays from Conductive 2D Metal-Organic Frameworks
Cu3(HITP)2 pressed pellet / powder · Pellet · Pressed pellet measured at room temperature using a home-built press.
2015 · Chemiresistive Sensor Arrays from Conductive 2D Metal-Organic Frameworks
Ni3(HITP)2 pressed pellet / powder · Pellet · Pressed pellet measured at room temperature using a home-built press.
2015 · Co-Ca Phosphonate Showing Humidity-Sensitive Single Crystal to Single Crystal Structural Transformation and Tunable Proton Conduction Properties
Pressed CoCa.nH2O pellet for proton conductivity · Pellet · Pressed pellet measured at 25 C under different RH from 40% to 95%; frequency range 1 MHz to 0.1 Hz.
2015 · Confinement of single polysilane chains in coordination nanospaces
polycrystalline 1a-PMPrS in PMMA matrix on quartz for TRMC · Thin Film · 355 nm Nd:YAG laser pulse, 1.0 x 10^16 photons cm-2, microwave frequency about 9.1 GHz, power 3 mW, room temperature.
2015 · Confinement of single polysilane chains in coordination nanospaces
polycrystalline 1b-PMPrS in PMMA matrix on quartz for TRMC · Thin Film · 355 nm Nd:YAG laser pulse, 1.0 x 10^16 photons cm-2, microwave frequency about 9.1 GHz, power 3 mW, room temperature.
2015 · Cu3(hexaiminotriphenylene)2: An electrically conductive 2D metal-organic framework for chemiresistive sensing
Pressed pellet of bulk Cu3(HITP)2 · Pellet · Room-temperature pressed pellet; SI says home-built press with powder between two 2 mm steel rods in a glass capillary.
2015 · Electronic Conductivity, Ferrimagnetic Ordering, and Reductive Insertion Mediated by Organic Mixed-Valence in a Ferric Semiquinoid Metal-Organic Framework
Pressed pellet of 1 · Pellet · Home-built two-electrode screw cell, contact area 0.04757 cm2; I-V profiles collected with Bio-Logic SP200; Ohm's law used to determine sigma.
2015 · Electronic Conductivity, Ferrimagnetic Ordering, and Reductive Insertion Mediated by Organic Mixed-Valence in a Ferric Semiquinoid Metal-Organic Framework
Pressed pellet of 2 · Pellet · Home-built two-electrode screw cell, contact area 0.04757 cm2; I-V profiles collected with Bio-Logic SP200; Ohm's law used to determine sigma.
2015 · Facile interfacial charge transfer across hole doped cobalt-based MOFs/TiO2 nano-hybrids making MOFs light harvesting active layers in solar cells
Iodine-treated Co-BDC/TiO2/FTO photoanode · Electrode · 1 sun (100 mW cm^-2) white-light irradiation; I3-/I- liquid electrolyte; Pt-coated FTO counter electrode.
2015 · Facile interfacial charge transfer across hole doped cobalt-based MOFs/TiO2 nano-hybrids making MOFs light harvesting active layers in solar cells
Pristine Co-BDC/TiO2/FTO photoanode · Electrode · 1 sun (100 mW cm^-2) white-light irradiation; I3-/I- liquid electrolyte; Pt-coated FTO counter electrode.
2015 · Facile interfacial charge transfer across hole doped cobalt-based MOFs/TiO2 nano-hybrids making MOFs light harvesting active layers in solar cells
Iodine-treated Co-NDC/TiO2/FTO photoanode · Electrode · 1 sun (100 mW cm^-2) white-light irradiation; I3-/I- liquid electrolyte; Pt-coated FTO counter electrode.
2015 · Facile interfacial charge transfer across hole doped cobalt-based MOFs/TiO2 nano-hybrids making MOFs light harvesting active layers in solar cells
Pristine Co-NDC/TiO2/FTO photoanode · Electrode · 1 sun (100 mW cm^-2) white-light irradiation; I3-/I- liquid electrolyte; Pt-coated FTO counter electrode.
2015 · Facile interfacial charge transfer across hole doped cobalt-based MOFs/TiO2 nano-hybrids making MOFs light harvesting active layers in solar cells
Iodine-treated Co-NDC LBL film on amine-functionalised glass · Thin Film · Co-based MOF LBL film on amine-functionalised glass slide; sample size 1 x 1 cm^2.
2015 · Highly Polarizable Triiodide Anions (I3-) as Cross-Linkers for Coordination Polymers: Closing the Semiconductive Band Gap
black needle-like single crystals of compound 1 · Single Crystal · Needle-like single crystals measured in a two-probe station; Figure S6 shows I-A curve and probe configuration photographs.
2015 · Highly Polarizable Triiodide Anions (I3-) as Cross-Linkers for Coordination Polymers: Closing the Semiconductive Band Gap
TCuI comparison sample · Unknown · Sample geometry and measurement details not specified in this paper; value used as comparison to compound 1.
2015 · Lithium Ion Diffusion in a Metal-Organic Framework Mediated by an Ionic Liquid
ELT-bulk · Unknown · Solartron 1260 impedance/gain-phase analyser and 1296 dielectric interface; 1 Hz to 1 MHz; liquid in Kapton washer between stainless steel electrodes; cooled below 210 K then measured stepwise during heating.
2015 · Lithium Ion Diffusion in a Metal-Organic Framework Mediated by an Ionic Liquid
ELT@Z100 · Pellet · Powder pressed into pellet with carbon sheet electrodes on both faces; 1 Hz to 1 MHz; cooled below 210 K then measured stepwise during heating.
2015 · Lithium Ion Diffusion in a Metal-Organic Framework Mediated by an Ionic Liquid
ELT@Z75 · Pellet · Powder pressed into pellet with carbon sheet electrodes on both faces; 1 Hz to 1 MHz; cooled below 210 K then measured stepwise during heating.
2015 · Lithium Ion Diffusion in a Metal-Organic Framework Mediated by an Ionic Liquid
ET-bulk · Unknown · Solartron 1260 impedance/gain-phase analyser and 1296 dielectric interface; 1 Hz to 1 MHz; liquid in Kapton washer between stainless steel electrodes; cooled below 210 K then measured stepwise during heating.
2015 · Lithium Ion Diffusion in a Metal-Organic Framework Mediated by an Ionic Liquid
ET@Z100 · Pellet · Powder pressed into pellet with carbon sheet electrodes on both faces; 1 Hz to 1 MHz; cooled below 210 K then measured stepwise during heating.
2015 · Lithium Ion Diffusion in a Metal-Organic Framework Mediated by an Ionic Liquid
ET@Z75 · Pellet · Powder pressed into pellet with carbon sheet electrodes on both faces; 1 Hz to 1 MHz; cooled below 210 K then measured stepwise during heating.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Fe2(DOBDC)(DMF)2 · Pellet · Guest-free pressed pellet measured at 297 K.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Fe2(DOBDC)(DMF)2.x(DMF) · Pellet · Pressed pellet measured at 297 K.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Fe2(DSBDC)(DMF)2 · Pellet · Guest-free pressed pellet measured at 297 K.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Fe2(DSBDC)(DMF)2.x(DMF) · Pellet · Pressed pellet measured at 297 K; area normalised; Fe samples measured with Keithley 2450.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Mn2(DOBDC)(DMF)2 · Pellet · Guest-free pressed pellet measured at 297 K.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Mn2(DOBDC)(DMF)2.x(DMF) · Pellet · Pressed pellet measured at 297 K.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Mn2(DSBDC)(DMF)2 · Pellet · Guest-free pressed pellet measured at 297 K.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Mn2(DSBDC)(DMF)2.x(DMF) · Pellet · Pressed pellet measured at 297 K; less conductive Mn samples measured with Keithley 6517B electrometer.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Fe2(DOBDC)(DMF)2 · Pellet · Guest-free pellet measured 200-420 K.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Fe2(DSBDC)(DMF)2 · Pellet · Guest-free powder pressed into 7 mm pellet with 4 tons mass; Ag paste contacts; measured 200-420 K.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Mn2(DOBDC)(DMF)2 · Pellet · Guest-free pellet measured 210-420 K.
2015 · Million-fold electrical conductivity enhancement in Fe2(DEBDC) versus Mn2(DEBDC) (E = S, O)
Mn2(DSBDC)(DMF)2 · Pellet · Guest-free pellet; high resistance limited measurement to 320-420 K.
2015 · Photoinduced Charge-Carrier Generation in Epitaxial MOF Thin Films: High Efficiency as a Result of an Indirect Electronic Band Gap?
Pd porphyrin Zn-SURMOF 2, 1 um FP-TRMC/TAS film · Thin Film · 355 nm Nd:YAG excitation, 5-8 ns pulse, 4.6-9.1 x 10^15 photons cm-2 pulse-1; microwave frequency 9.1 GHz and 3 mW; ambient room temperature.
2015 · Synthesis, conductivity, and electromagnetic wave absorption properties of chiral poly Schiff bases and their silver complexes
Complex 1a pressed tablet / dried black powder · Pellet · Pressed tablet, approximately 1 mm thick, prepared at 15 MPa; room temperature.
2015 · Synthesis, conductivity, and electromagnetic wave absorption properties of chiral poly Schiff bases and their silver complexes
Complex 1b pressed tablet / dried black powder · Pellet · Pressed tablet, approximately 1 mm thick, prepared at 15 MPa; room temperature.
2015 · Synthesis, conductivity, and electromagnetic wave absorption properties of chiral poly Schiff bases and their silver complexes
Complex 2a pressed tablet / dried black powder · Pellet · Pressed tablet, approximately 1 mm thick, prepared at 15 MPa; room temperature.
2015 · Synthesis, conductivity, and electromagnetic wave absorption properties of chiral poly Schiff bases and their silver complexes
Complex 3a pressed tablet / dried brown powder · Pellet · Pressed tablet, approximately 1 mm thick, prepared at 15 MPa; room temperature.
2015 · Synthesis, conductivity, and electromagnetic wave absorption properties of chiral poly Schiff bases and their silver complexes
Complex 4a pressed tablet / dried black powder · Pellet · Pressed tablet, approximately 1 mm thick, prepared at 15 MPa; room temperature.
2015 · Synthesis, conductivity, and electromagnetic wave absorption properties of chiral poly Schiff bases and their silver complexes
Polymer 1 pressed tablet / dried gray powder · Pellet · Pressed tablet, approximately 1 mm thick, prepared at 15 MPa; room temperature.
2015 · Synthesis, conductivity, and electromagnetic wave absorption properties of chiral poly Schiff bases and their silver complexes
Polymer 2 pressed tablet / dried brown powder · Pellet · Pressed tablet, approximately 1 mm thick, prepared at 15 MPa; room temperature.
2015 · Synthesis, conductivity, and electromagnetic wave absorption properties of chiral poly Schiff bases and their silver complexes
Polymer 3 pressed tablet / dried buff powder · Pellet · Pressed tablet, approximately 1 mm thick, prepared at 15 MPa; room temperature.
2015 · Synthesis, conductivity, and electromagnetic wave absorption properties of chiral poly Schiff bases and their silver complexes
Polymer 4 pressed tablet / dried gray powder · Pellet · Pressed tablet, approximately 1 mm thick, prepared at 15 MPa; room temperature.
2015 · Thin film thermoelectric metal-organic framework with high seebeck coefficient and low thermal conductivity
TCNQ-infiltrated Cu3(BTC)2 thin-film region A on quartz · Thin Film · Several TCNQ@Cu3(BTC)2 devices with channel lengths 85-160 um measured at seven temperatures.
2015 · Thin film thermoelectric metal-organic framework with high seebeck coefficient and low thermal conductivity
TCNQ-infiltrated Cu3(BTC)2 thin-film region A on quartz · Thin Film · Conductivity measured between 10 and 40 deg C using computer-controlled voltage/current source and current amplifier.
2015 · Thin film thermoelectric metal-organic framework with high seebeck coefficient and low thermal conductivity
TCNQ-infiltrated Cu3(BTC)2 thin-film region A on quartz · Thin Film · Representative I-V measurements on infiltrated region A, transition region B and uninfiltrated region C.
2015 · Thin film thermoelectric metal-organic framework with high seebeck coefficient and low thermal conductivity
TCNQ-infiltrated Cu3(BTC)2 thin-film region A on quartz · Thin Film · Power factor p = S^2 sigma evaluated over the 10-40 deg C temperature range.
2015 · Topochemical conversion of a dense metal-organic framework from a crystalline insulator to an amorphous semiconductor
Compound 3 powder pellet · Pellet · Hokuto HZ5000 electrochemical system, scan rate 10 mV s-1, 25 deg C.
2015 · Tunneling Electrical Connection to the Interior of Metal-Organic Frameworks
AgNC@Rb-CD-MOF from 10 mM AgNO3 · Single Crystal · Alternating irradiation cycles; 1.48 W/cm2; Ar pressure ~2 atm; wavelength cut-on filter experiment in Figure S5b
2015 · Tunneling Electrical Connection to the Interior of Metal-Organic Frameworks
AgNC@Rb-CD-MOF from 10 mM AgNO3 · Single Crystal · Constant temperature 352 K; white-light intensity varied from 314 to 595 mW/cm2 and beyond in Figure 3d
2015 · Tunneling Electrical Connection to the Interior of Metal-Organic Frameworks
AgNC@Rb-CD-MOF from 2 mM AgNO3 · Single Crystal · Samples prepared from 2, 5 and 10 mM AgNO3; conductivity measured under 430 mW/cm2 light irradiation
2015 · Tunneling Electrical Connection to the Interior of Metal-Organic Frameworks
AgNC@Rb-CD-MOF from 10 mM AgNO3 · Single Crystal · Constant light intensity 314 mW/cm2; sample temperature varied using heating stage and K20 controller
2015 · Tunneling Electrical Connection to the Interior of Metal-Organic Frameworks
AgNC@Rb-CD-MOF from 10 mM AgNO3 · Single Crystal · High-vacuum MMR chamber <0.1 mTorr; AgNC@Rb-CD-MOF from 10 mM AgNO3; dark and white-light irradiation
2015 · Tunneling Electrical Connection to the Interior of Metal-Organic Frameworks
AgNC@MIL-53 thin-film device on glass with Au electrodes · Thin Film · AgNC@MIL-53 film; dark at 298, 326 and 352 K; photocurrent at 326 and 352 K under 595 mW/cm2 white light
2015 · Tunneling Electrical Connection to the Interior of Metal-Organic Frameworks
Blank Rb-CD-MOF single crystals · Single Crystal · High-vacuum MMR chamber <0.1 mTorr; dark and white-light irradiation up to 1.48 W/cm2
2014 · Bulk protonic conductivity in a cephalopod structural protein
Wild-type reflectin A1 thin film on SiO2/Si with gold electrodes · Thin Film · Bias limited to +/-1.5 V; dry RH <50% and humidified RH 90%; ambient controlled humidity.
2014 · Bulk protonic conductivity in a cephalopod structural protein
Wild-type reflectin A1 thin film with palladium hydride electrodes · Thin Film · Measured at RH 60-90% and +/-1.5 V; Pd converted to PdHx in situ by H2 exposure.
2014 · Bulk protonic conductivity in a cephalopod structural protein
DE->A mutant reflectin A1 thin film with PdHx electrodes · Thin Film · RH 90%, +/-1.5 V; forward and reverse scans shown.
2014 · Characterization of a copper phosphate triazole metal organic framework material (Cu3PO4(C2N3H 2)2OH) and oxygen evolution studies
Sintered Cu3PO4(C2N3H2)2OH pellet electrode · Pellet · Sintered pellet measured under helium over 10^2-10^5 Hz; conductivity plotted as log sigma vs 1000/T.
2014 · Control of crystalline proton-conducting pathways by water-induced transformations of hydrogen-bonding networks in a metal-organic framework
pressed pellets of hydrated 1·nH2O · Pellet · frequency range 1 Hz to 100 MHz; RH controlled from 40 to 98% in incubator; bulk conductivity estimated by semicircle fittings of Nyquist plots
2014 · Control of crystalline proton-conducting pathways by water-induced transformations of hydrogen-bonding networks in a metal-organic framework
as-synthesised 1·3H2O crystals · Single Crystal · single crystal mounted on quartz rod in oxygen-free copper cylindrical TE011 cavity at 16.3 GHz; electric field parallel to 2-D layer; sample coated with paraffin to avoid dehydration
2014 · Design and synthesis of hydroxide ion-conductive metal-organic frameworks based on salt inclusion
NBu4-ZIF-8-OH compacted pellet · Pellet · Relative humidity over 96%; temperature-dependent conductivity shown in inset of Figure 4.
2014 · Dielectric relaxation processes, electronic structure, and band gap engineering of MFU-4-type metal-organic frameworks: Towards a rational design of semiconducting microporous materials
Co-MFU-4 powder heated at 280 C under vacuum · Powder · MFU-4 heated at 280 C and Co-MFU-4 compared at several frequencies; 0.01 Hz used as dc estimate at high temperature.
2014 · Facile synthesis and characterization of trimesic acid-Cu based metal organic frameworks
TMA-Cu(CH3COOH)2 (DIW) · Powder · Room temperature transverse current path on pressed dry MOF disk
2014 · Facile synthesis and characterization of trimesic acid-Cu based metal organic frameworks
TMA-Cu(CH3COOH)2 (EtOH) · Powder · Room temperature transverse current path on pressed dry MOF disk
2014 · Facile synthesis and characterization of trimesic acid-Cu based metal organic frameworks
TMA-CuCl2 (DIW) · Powder · Room temperature transverse current path on pressed dry MOF disk
2014 · Facile synthesis and characterization of trimesic acid-Cu based metal organic frameworks
TMA-Cu(NO3)2 (DIW) · Powder · Room temperature transverse current path on pressed dry MOF disk
2014 · Facile synthesis and characterization of trimesic acid-Cu based metal organic frameworks
TMA-Cu(NO3)2 (EtOH) · Powder · Room temperature transverse current path on pressed dry MOF disk
2014 · Facile synthesis and characterization of trimesic acid-Cu based metal organic frameworks
TMA-Cu(SO4)2 (DIW) · Powder · Room temperature transverse current path on pressed dry MOF disk
2014 · Facile synthesis and characterization of trimesic acid-Cu based metal organic frameworks
TMA-Cu(SO4)2 (EtOH) · Powder · Room temperature transverse current path on pressed dry MOF disk
2014 · Immobilization of N-(3-aminopropyl)-imidazole through MOFs in proton conductive membrane for elevated temperature anhydrous applications
6% encapsulated MOFs membrane · Thin Film · a.c. current amplitude 0.1 mA; frequency range 1 MHz to 50 Hz; heating/cooling 1-2 deg C/min from ambient to 160 deg C and back in air
2014 · Immobilization of N-(3-aminopropyl)-imidazole through MOFs in proton conductive membrane for elevated temperature anhydrous applications
PBI membrane · Thin Film · PBI membrane conductivity compared with 6% encapsulated-MOF membrane at investigated temperatures
2014 · Immobilization of N-(3-aminopropyl)-imidazole through MOFs in proton conductive membrane for elevated temperature anhydrous applications
membranes with MOFs:encapsulated MOFs ratio series · Thin Film · Membranes with total MOF loading 6% and varied ratios of MOFs to encapsulated MOFs; conductivity read from Fig. 11 at 160 deg C
2014 · Redox control and high conductivity of nickel bis(dithiolene) complex π-nanosheet: A potential organic two-dimensional topological insulator
ox-1 single microflake van der Pauw sample · Nanosheet · Home-made four-tip tungsten system under SEM; microflakes on HMDS-modified silicon wafer; measured from low to high temperatures; sample thickness 1 um by AFM.
2014 · Reversible iodine absorption of nonporous coordination polymer Cu(TCNQ)
Cu(TCNQ)In (n = 3.7) compaction pellet from liquid-phase reaction · Pellet · compaction pellet of Cu(TCNQ)In n = 3.7 at room temperature
2014 · Reversible iodine absorption of nonporous coordination polymer Cu(TCNQ)
Cu(TCNQ)In (n = 3.7) compaction pellet from liquid-phase reaction · Pellet · compaction pellet of Cu(TCNQ)In n = 3.7; conductivity plotted versus 1/T
2014 · Solid-state structural transformation doubly triggered by reaction temperature and time in 3D metal-organic frameworks: Great enhancement of stability and gas adsorption
activated I2@IFMC-69 pressed powder film · Pellet · Activated I2@IFMC-69 ground and pressed into 1 mm thickness film.
2014 · Solid-state structural transformation doubly triggered by reaction temperature and time in 3D metal-organic frameworks: Great enhancement of stability and gas adsorption
activated IFMC-69 pressed powder film · Pellet · Activated IFMC-69 ground and pressed into 1 mm thickness film.
2014 · Solvothermal preparation of an electrocatalytic metalloporphyrin MOF thin film and its redox hopping charge-transfer mechanism
CoPIZA/FTO thin film electrode · Electrode · Solartron SI 1260 impedance analyser with Zplot 2.9; sample between two gold-plated stainless steel electrodes in Solartron 12960 holder; 3.2 MHz to 100 Hz and 16 mHz to 0.1 Hz ranges; 10 mV AC amplitude; conductivity from high-frequency intercept of Nyquist plot.
2014 · Structural, magnetic and electrical properties of one-dimensional tetraamidatodiruthenium compounds
Compound 1 single crystals and microcrystalline powder · Single Crystal · 300-400 K; Pt wires (25 um) with graphite paste; Quantum Design PPMS-9, Keithley 2400 source meter and Keithley 6514 electrometer; 10 or 20 V in Ohmic range; 0.5 K min-1 cooling/warming.
2014 · Structural, magnetic and electrical properties of one-dimensional tetraamidatodiruthenium compounds
Compound 4 single crystals and microcrystalline powder · Single Crystal · 300-400 K; Pt wires (25 um) with graphite paste; Quantum Design PPMS-9, Keithley 2400 source meter and Keithley 6514 electrometer; 10 or 20 V in Ohmic range; 0.5 K min-1 cooling/warming.
2014 · Structural, magnetic and electrical properties of one-dimensional tetraamidatodiruthenium compounds
Compound 7 single crystals · Single Crystal · 300-400 K; Pt wires (25 um) with graphite paste; Quantum Design PPMS-9, Keithley 2400 source meter and Keithley 6514 electrometer; 10 or 20 V in Ohmic range; 0.5 K min-1 cooling/warming.
2014 · Synthesis, characterisation and thermal degradation behaviour of some coordination polymers by using TG-DTG and DTA techniques
I2-doped Co(II)-fbpmpc pellet · Pellet · Iodine vapour doping for various times at 30 C; maximum value reported after conductivity levelled off.
2014 · Synthesis, characterisation and thermal degradation behaviour of some coordination polymers by using TG-DTG and DTA techniques
I2-doped Cu(II)-fbpmpc pellet · Pellet · Iodine vapour doping for various times at 30 C; maximum value reported after conductivity levelled off.
2014 · Synthesis, characterisation and thermal degradation behaviour of some coordination polymers by using TG-DTG and DTA techniques
I2-doped fbpmpc ligand pellet · Pellet · Powder pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity plotted versus doping time at 30 C.
2014 · Synthesis, characterisation and thermal degradation behaviour of some coordination polymers by using TG-DTG and DTA techniques
I2-doped Mn(II)-fbpmpc pellet · Pellet · Iodine vapour doping for various times at 30 C; maximum value reported after conductivity levelled off.
2014 · Synthesis, characterisation and thermal degradation behaviour of some coordination polymers by using TG-DTG and DTA techniques
I2-doped Ni(II)-fbpmpc pellet · Pellet · Iodine vapour doping for various times at 30 C; maximum value reported after conductivity levelled off.
2014 · Tunable electrical conductivity in metal-organic framework thin-film devices
TCNQ-infiltrated Cu3(BTC)2 thin-film device · Thin Film · Several devices monitored as TCNQ exposure time increased up to roughly 200 h
2014 · Tunable electrical conductivity in metal-organic framework thin-film devices
F4-TCNQ-infiltrated Cu3(BTC)2 thin-film device · Thin Film · Guest identity varied; F4-TCNQ measured immediately after infiltration; H4-TCNQ nonconjugated guest
2014 · Tunable electrical conductivity in metal-organic framework thin-film devices
As-grown Cu3(BTC)2.xH2O thin-film device on Pt/SiO2 · Thin Film · As-grown hydrated Cu3(BTC)2 thin-film device measured in air
2014 · Tunable electrical conductivity in metal-organic framework thin-film devices
TCNQ-infiltrated Cu3(BTC)2 thin-film device · Thin Film · TCNQ-infiltrated devices after 72 h exposure to saturated TCNQ/CH2Cl2 solution
2014 · Tunable electrical conductivity in metal-organic framework thin-film devices
TCNQ-infiltrated Cu3(BTC)2 thin-film device · Thin Film · Several TCNQ-infiltrated devices tracked in ambient atmosphere
2014 · Tunable electrical conductivity in metal-organic framework thin-film devices
TCNQ-infiltrated Cu3(BTC)2 thin-film device · Thin Film · Conductivity measured from about 125 K to 300 K; Arrhenius plot of sigma versus 1/T
2013 · Alkali-metal-regulated construction of superhydrophilic ZnII and CdII coordination polymers with perhalogenated terephthalate ligands
Complex 5 aqueous solution · Unknown · 10^-3 M aqueous solution at 25 deg C
2013 · Alkali-metal-regulated construction of superhydrophilic ZnII and CdII coordination polymers with perhalogenated terephthalate ligands
Complex 6 aqueous solution · Unknown · 10^-3 M aqueous solution at 25 deg C
2013 · Bi-porous metal-organic framework with hydrophilic and hydrophobic channels: Selective gas sorption and reversible iodine uptake studies
iodine-loaded compound 1' subset nI2 · Pellet · Room-temperature current-voltage characteristics; Ohmic linear fits after iodine inclusion.
2013 · Bi-porous metal-organic framework with hydrophilic and hydrophobic channels: Selective gas sorption and reversible iodine uptake studies
guest-free activated compound 1' · Pellet · Room-temperature current-voltage characteristics; Ohmic linear fits.
2013 · Crystal structure and carrier transport properties of a new semiconducting 2D coordination polymer with a 3,5-dimethylpiperidine dithiocarbamate ligand
Complex 1 bulk sample for FP-TRMC · Powder · 355 nm Nd:YAG THG laser, 6.1 mJ cm-2 pulse-1 (5.6 x 10^15 photons cm-2 pulse-1), isotropic polarisation; microwave frequency about 9.1 GHz and power 3 mW; room temperature.
2013 · Crystal structure and carrier transport properties of a new semiconducting 2D coordination polymer with a 3,5-dimethylpiperidine dithiocarbamate ligand
Single crystal of 1 on Au electrodes / SiO2 substrate · Electrode · Single crystal on Au electrodes / SiO2 substrate, covered by gold paste; 50 micrometre interelectrode gap; 6 micrometre crystal thickness; room temperature.
2013 · Electrical bistability around room temperature in an unprecedented one-dimensional coordination magnetic polymer
Ten contacted single crystals of compound 1 · Single Crystal · Ten single crystals measured from 400 to 2 K in Quantum Design PPMS-9 with Keithley 2400 source-meter and Keithley 6514 electrometer; 25 um Pt wires attached with graphite paste; 10 or 20 V constant voltage; 1 K/min cooling/warming cycles.
2013 · Electrical bistability around room temperature in an unprecedented one-dimensional coordination magnetic polymer
Ten contacted single crystals of compound 1 · Single Crystal · Single crystal of compound 1 at 300 K; bias swept from -10 to +10 V, showing linear Ohmic behaviour.
2013 · Mn2(2,5-disulfhydrylbenzene-1,4-dicarboxylate): A microporous metal-organic framework with infinite (-Mn-S-)∞ chains and high intrinsic charge mobility
Activated 1/PMMA FP-TRMC film · Thin Film · 25 deg C ambient; 355 nm Nd:YAG excitation; 1.4e16 photons/cm2 per pulse; microwave power 3 mW and frequency about 9.1 GHz.
2013 · Mn2(2,5-disulfhydrylbenzene-1,4-dicarboxylate): A microporous metal-organic framework with infinite (-Mn-S-)∞ chains and high intrinsic charge mobility
Methanol-exchanged 1/PMMA FP-TRMC film · Thin Film · 25 deg C ambient; 355 nm Nd:YAG excitation; 1.4e16 photons/cm2 per pulse; microwave power 3 mW and frequency about 9.1 GHz.
2013 · Two one-dimensional germanium(IV) coordination polymers based on macrocyclic tetraaza[14]annulene with notable semiconducting property
pressed-pellet powder compaction of compound 1 · Pellet · Pressed-pellet powder compaction measured from 200 to 300 K; Fig. 4 plots conductivity versus temperature.
2013 · Two one-dimensional germanium(IV) coordination polymers based on macrocyclic tetraaza[14]annulene with notable semiconducting property
pressed-pellet powder compaction of compound 2 · Pellet · Pressed-pellet powder compaction measured from 200 to 300 K; Fig. 4 plots conductivity versus temperature.
2012 · Dye-sensitized solar cells with new one-dimensional halide-bridged Cu(I)-Ni(II) heterometal coordination polymers containing hexamethylene dithiocarbamate ligand
1a powder-pressed pellet · Pellet · Powder-pressed pellet between 13 mm brass electrodes; 250-400 K; applied DC voltage 100 V.
2012 · Dye-sensitized solar cells with new one-dimensional halide-bridged Cu(I)-Ni(II) heterometal coordination polymers containing hexamethylene dithiocarbamate ligand
1b powder-pressed pellet · Pellet · Powder-pressed pellet between 13 mm brass electrodes; 250-400 K; applied DC voltage 100 V.
2012 · Dye-sensitized solar cells with new one-dimensional halide-bridged Cu(I)-Ni(II) heterometal coordination polymers containing hexamethylene dithiocarbamate ligand
2a comparator coordination polymer · Powder · Comparator values cited from prior work and repeated in this paper.
2012 · Dye-sensitized solar cells with new one-dimensional halide-bridged Cu(I)-Ni(II) heterometal coordination polymers containing hexamethylene dithiocarbamate ligand
2b comparator coordination polymer · Powder · Comparator values cited from prior work and repeated in this paper.
2012 · Dye-sensitized solar cells with new one-dimensional halide-bridged Cu(I)-Ni(II) heterometal coordination polymers containing hexamethylene dithiocarbamate ligand
3 comparator coordination polymer · Powder · Comparator values cited from prior work and repeated in this paper.
2012 · High charge mobility in a tetrathiafulvalene-based microporous metal-organic framework
Compound 1/PMMA blend film for FP-TRMC · Thin Film · 25 deg C, ambient conditions, 40/60 wt% MOF/PMMA film; microwave power 3 mW, ~9.1 GHz; 355 nm Nd:YAG third-harmonic pulses; excitation density SI 6.4 x 10^15 cm^-2 photons per pulse; main figure caption 6.5 x 10^15 cm^-2.
2012 · Novel semiconducting metal-organic framework: Synthesis, structural characterisation and electrical conductivity studies of manganese based two dimensional coordination polymer
[Mn(mu-pz)(mu-Cl)2]n pellet · Pellet · sigma_dc calculated from inverse resistance multiplied by pellet thickness/area; temperature dependence fitted to Arrhenius behaviour.
2012 · Organic thermoelectric materials and devices based on p- and n-type poly(metal 1,1,2,2-ethenetetrathiolate)s
poly[(Bu4N)x(Ni-ett)] · Pellet · Corrected Table 1 values at 300 K.
2012 · Organic thermoelectric materials and devices based on p- and n-type poly(metal 1,1,2,2-ethenetetrathiolate)s
poly[(C14Me3N)x(Ni-ett)] · Pellet · Corrected Table 1 values at 300 K.
2012 · Organic thermoelectric materials and devices based on p- and n-type poly(metal 1,1,2,2-ethenetetrathiolate)s
poly[Cux(Cu-ett)] black powder / compressed cuboid · Pellet · Corrected Table 1 values at 300 K.
2012 · Organic thermoelectric materials and devices based on p- and n-type poly(metal 1,1,2,2-ethenetetrathiolate)s
poly[Kx(Ni-ett)] · Pellet · Corrected Table 1 values at 300 K.
2012 · Organic thermoelectric materials and devices based on p- and n-type poly(metal 1,1,2,2-ethenetetrathiolate)s
poly[Nax(Cu-ett)] · Pellet · Corrected Table 1 values at 300 K.
2012 · Organic thermoelectric materials and devices based on p- and n-type poly(metal 1,1,2,2-ethenetetrathiolate)s
poly[Nax(Ni-ett)] black powder / compressed cuboid · Pellet · Corrected Table 1 values at 300 K.
2012 · Organic thermoelectric materials and devices based on p- and n-type poly(metal 1,1,2,2-ethenetetrathiolate)s
poly[Nix(Ni-ett)] · Pellet · Corrected Table 1 values at 300 K.
2012 · Organic thermoelectric materials and devices based on p- and n-type poly(metal 1,1,2,2-ethenetetrathiolate)s
poly[Cux(Cu-ett)] black powder / compressed cuboid · Pellet · Measured from about 230 to 400 K for ZT range reported; Figure 2 includes comparative trends.
2012 · Organic thermoelectric materials and devices based on p- and n-type poly(metal 1,1,2,2-ethenetetrathiolate)s
poly[Kx(Ni-ett)] · Pellet · Measured from 220 to 440 K; TGA limited measurements above 440 K.
2012 · Organic thermoelectric materials and devices based on p- and n-type poly(metal 1,1,2,2-ethenetetrathiolate)s
poly[Nax(Ni-ett)] black powder / compressed cuboid · Pellet · Measured from 220 to 440 K; TGA limited measurements above 440 K.
2012 · Porous, conductive metal-triazolates and their structural elucidation by the charge-flipping method
MET-3 freshly prepared pressed pellet · Pellet · SEM image of MET-3 pellet used for conductivity measurements; figure caption reports 30000x.
2012 · Porous, conductive metal-triazolates and their structural elucidation by the charge-flipping method
MET-3 pellet exposed to iodine vapour · Pellet · Same pressed MET-3 pellet/device type after 40 min exposure to I2 vapour; PXRD checked after exposure.
2012 · Porous, conductive metal-triazolates and their structural elucidation by the charge-flipping method
MET-3 freshly prepared pressed pellet · Pellet · Pressed bulk pellet; 500 micrometre gold electrodes thermally deposited by shadow mask; 1.6 mm electrode spacing; Lake Shore TTP4 station under vacuum.
2012 · Porous, conductive metal-triazolates and their structural elucidation by the charge-flipping method
MET-3 freshly prepared pressed pellet · Pellet · Four-probe measurements at 295, 305, 315 and 325 K on MET-3 pellet under vacuum.
2012 · Stable organic radical stacked by in situ coordination to rare earth cations in MOF materials
La-RPF8 single crystal for electrical transport · Single Crystal · Room-temperature I-V along stacking direction (001), low-voltage range -100 to 100 V and high-voltage measurements to 400 V; SCLC regime above 100 V to about 360 V.
2012 · Synthesis, characterization and solid state electrical properties of 1-D coordination polymer of the type [CuxNi1-x(dadb) ·yH2O]n
Complex 2 powder / pressed pellet · Powder · Pressed pellet, 13 mm die, 6 ton, cured at 110 deg C for 2 h; silver-paint contacts; sequential voltages from +10 to -10 V in 5 V steps; resistance from I/V slope; ambient atmosphere.
2012 · Synthesis, characterization and solid state electrical properties of 1-D coordination polymer of the type [CuxNi1-x(dadb) ·yH2O]n
Complex 3 powder / pressed pellet · Powder · Pressed pellet, 13 mm die, 6 ton, cured at 110 deg C for 2 h; silver-paint contacts; sequential voltages from +10 to -10 V in 5 V steps; resistance from I/V slope; ambient atmosphere.
2012 · Synthesis, characterization and solid state electrical properties of 1-D coordination polymer of the type [CuxNi1-x(dadb) ·yH2O]n
Complex 4 powder / pressed pellet · Powder · Pressed pellet, 13 mm die, 6 ton, cured at 110 deg C for 2 h; silver-paint contacts; sequential voltages from +10 to -10 V in 5 V steps; resistance from I/V slope; ambient atmosphere.
2012 · Synthesis, characterization and solid state electrical properties of 1-D coordination polymer of the type [CuxNi1-x(dadb) ·yH2O]n
Complex 5 powder / pressed pellet · Powder · Pressed pellet, 13 mm die, 6 ton, cured at 110 deg C for 2 h; silver-paint contacts; sequential voltages from +10 to -10 V in 5 V steps; resistance from I/V slope; ambient atmosphere.
2012 · Synthesis, characterization and solid state electrical properties of 1-D coordination polymer of the type [CuxNi1-x(dadb) ·yH2O]n
Complex 6 powder / pressed pellet · Powder · Pressed pellet, 13 mm die, 6 ton, cured at 110 deg C for 2 h; silver-paint contacts; sequential voltages from +10 to -10 V in 5 V steps; resistance from I/V slope; ambient atmosphere.
2012 · Synthesis, characterization and solid state electrical properties of 1-D coordination polymer of the type [CuxNi1-x(dadb) ·yH2O]n
Complex 7 powder / pressed pellet · Powder · Pressed pellet, 13 mm die, 6 ton, cured at 110 deg C for 2 h; silver-paint contacts; sequential voltages from +10 to -10 V in 5 V steps; resistance from I/V slope; ambient atmosphere.
2012 · Synthesis, characterization, and solid state electrical conductivity of coordination polymers with copper and zinc
Complex 2 compressed pellet · Pellet · Compressed pellet with conductive silver paint contacts; sequential voltages from +10 to -10 V in 5 V steps; temperature range 313-393 K.
2012 · Synthesis, characterization, and solid state electrical conductivity of coordination polymers with copper and zinc
Complex 3 compressed pellet · Pellet · Same pellet/contact method as complex 2; temperature range 313-393 K.
2012 · Synthesis, characterization, and solid state electrical conductivity of coordination polymers with copper and zinc
Complex 4 compressed pellet · Pellet · Same pellet/contact method as complex 2; temperature range 313-393 K.
2012 · Synthesis, characterization, and solid state electrical conductivity of coordination polymers with copper and zinc
Complex 5 compressed pellet · Pellet · Same pellet/contact method as complex 2; temperature range 313-393 K.
2012 · Synthesis, characterization, and solid state electrical conductivity of coordination polymers with copper and zinc
Complex 6 compressed pellet · Pellet · Same pellet/contact method as complex 2; temperature range 313-393 K.
2012 · Synthesis, characterization, and solid state electrical conductivity of coordination polymers with copper and zinc
Complex 7 compressed pellet · Pellet · Same pellet/contact method as complex 2; temperature range 313-393 K.
2011 · Synthesis and characterization of a novel kind soluble, conjugated, and fluorescent chelate polymer containing fluorene ring in the backbone: Optical, electrical, and electrochemical properties
iodine-doped poly(3,4-HBA-Cr-FDA) film on ITO · Thin Film · ITO-supported polymer films exposed to iodine vapour for 1 h, 5 h, or 24 h; conductivity measured between 20 and 80 deg C.
2011 · Synthesis and characterization of a novel kind soluble, conjugated, and fluorescent chelate polymer containing fluorene ring in the backbone: Optical, electrical, and electrochemical properties
undoped poly(3,4-HBA-Cr-FDA) film on ITO · Thin Film · Undoped dip-coated polymer film on ITO; conductivity measured between 20 and 80 deg C.
2010 · 2-Cyano-2-isonitrosoacetamide and its Ag(I) complexes. Silver(I) cyanoximate as a non-electric gas sensor
0.001 M solution of compound 5 in DMSO · Unknown · 0.001 M DMSO solutions of compounds 4, 5, 6, 7, 8 and 9 compared qualitatively for dissociation behaviour.
2010 · Conductivity, doping, and redox chemistry of a microporous dithiolene-based metal-organic framework
Air-exposed I2-doped Cu[Ni(pdt)2] film · Thin Film · I2-doped film exposed to air for 12 h, then conductivity noted.
2010 · Conductivity, doping, and redox chemistry of a microporous dithiolene-based metal-organic framework
I2-doped Cu[Ni(pdt)2] film at 150 degC · Thin Film · Evacuated Cu[Ni(pdt)2] film exposed to iodine vapour at 150 degC; conductivity recorded versus time.
2010 · Conductivity, doping, and redox chemistry of a microporous dithiolene-based metal-organic framework
I2-doped Cu[Ni(pdt)2] film at 50 degC · Thin Film · Evacuated Cu[Ni(pdt)2] film exposed to flowing N2/I2 at 50 degC; conductivity recorded versus time and temperature.
2010 · Conductivity, doping, and redox chemistry of a microporous dithiolene-based metal-organic framework
Cu[Ni(pdt)2] film on Pt interdigitated electrode · Thin Film · Desolvated Cu[Ni(pdt)2] film on Pt IDE; constant current applied and potential recorded; low-temperature measurements under static N2 while cooling at 2 degC/min.
2010 · Highly conducting two-dimensional copper(i) 4-hydroxythiophenolate network
pressed CuHT pellet · Pellet · Pressed CuHT pellet measured in nitrogen glove box (<0.1 ppm water and oxygen); K4200 semiconductor parameter analyser; volume resistivity equation in SI.
2010 · Synthesis, characterization, electrical conductivity, and catalytic studies of some coordination polymers of salen-type schiff base
[Cd(BNESAP)]n compressed pellet · Pellet · Fine powder sieved through 0.2 mesh, pressed into 12 mm diameter and 2-3 mm thick disks at 5 tons cm^-2; silver paste ohmic contacts; measured over 313-413 K.
2010 · Synthesis, characterization, electrical conductivity, and catalytic studies of some coordination polymers of salen-type schiff base
[Co(BNESAP)(H2O)2]n compressed pellet · Pellet · Fine powder sieved through 0.2 mesh, pressed into 12 mm diameter and 2-3 mm thick disks at 5 tons cm^-2; silver paste ohmic contacts; measured over 313-413 K.
2010 · Synthesis, characterization, electrical conductivity, and catalytic studies of some coordination polymers of salen-type schiff base
[Cu(BNESAP)]n compressed pellet · Pellet · Fine powder sieved through 0.2 mesh, pressed into 12 mm diameter and 2-3 mm thick disks at 5 tons cm^-2; silver paste ohmic contacts; measured over 313-413 K.
2010 · Synthesis, characterization, electrical conductivity, and catalytic studies of some coordination polymers of salen-type schiff base
[Fe(BNESAP)(H2O)2]n compressed pellet · Pellet · Fine powder sieved through 0.2 mesh, pressed into 12 mm diameter and 2-3 mm thick disks at 5 tons cm^-2; silver paste ohmic contacts; measured over 313-413 K.
2010 · Synthesis, characterization, electrical conductivity, and catalytic studies of some coordination polymers of salen-type schiff base
H2BNESAP compressed pellet · Pellet · Fine powder sieved through 0.2 mesh, pressed into 12 mm diameter and 2-3 mm thick disks at 5 tons cm^-2; silver paste ohmic contacts; measured over 313-413 K.
2010 · Synthesis, characterization, electrical conductivity, and catalytic studies of some coordination polymers of salen-type schiff base
[Mn(BNESAP)(H2O)2]n compressed pellet · Pellet · Fine powder sieved through 0.2 mesh, pressed into 12 mm diameter and 2-3 mm thick disks at 5 tons cm^-2; silver paste ohmic contacts; measured over 313-413 K.
2010 · Synthesis, characterization, electrical conductivity, and catalytic studies of some coordination polymers of salen-type schiff base
[Ni(BNESAP)(H2O)2]n compressed pellet · Pellet · Fine powder sieved through 0.2 mesh, pressed into 12 mm diameter and 2-3 mm thick disks at 5 tons cm^-2; silver paste ohmic contacts; measured over 313-413 K.
2010 · Synthesis, characterization, electrical conductivity, and catalytic studies of some coordination polymers of salen-type schiff base
[Zn(BNESAP)]n compressed pellet · Pellet · Fine powder sieved through 0.2 mesh, pressed into 12 mm diameter and 2-3 mm thick disks at 5 tons cm^-2; silver paste ohmic contacts; measured over 313-413 K.
2009 · 1-Hydroxybenzotriazole (HOBt) acidity, formation constant with different metals and thermodynamic parameters: Synthesis and characterization of some HOBt metal complexes - Crystal structures of two polymers: [Cu2(H2O)5(OBt)2(μ-OBt)2] · 2H2O · EtOH (1A) and [Cu(μ-OBt)(HOBt)(OBt)(EtOH)] (1B)
[Co(OBt)2(HOBt)2(H2O)2] pressed tablet · Pellet · 294-423 K; two linear regimes fitted in Arrhenius form
2009 · 1-Hydroxybenzotriazole (HOBt) acidity, formation constant with different metals and thermodynamic parameters: Synthesis and characterization of some HOBt metal complexes - Crystal structures of two polymers: [Cu2(H2O)5(OBt)2(μ-OBt)2] · 2H2O · EtOH (1A) and [Cu(μ-OBt)(HOBt)(OBt)(EtOH)] (1B)
[Cu(OBt)2(H2O)2] pressed tablet · Pellet · 294-423 K; two linear regimes fitted in Arrhenius form
2009 · 1-Hydroxybenzotriazole (HOBt) acidity, formation constant with different metals and thermodynamic parameters: Synthesis and characterization of some HOBt metal complexes - Crystal structures of two polymers: [Cu2(H2O)5(OBt)2(μ-OBt)2] · 2H2O · EtOH (1A) and [Cu(μ-OBt)(HOBt)(OBt)(EtOH)] (1B)
HOBt solid control · Powder · 294-423 K; tablets pressed at 4 tons/cm2, area 1.37 cm2, thickness 0.12 mm; copper electrodes with silver paste; current sensitivity to 1e-15 A
2009 · 1-Hydroxybenzotriazole (HOBt) acidity, formation constant with different metals and thermodynamic parameters: Synthesis and characterization of some HOBt metal complexes - Crystal structures of two polymers: [Cu2(H2O)5(OBt)2(μ-OBt)2] · 2H2O · EtOH (1A) and [Cu(μ-OBt)(HOBt)(OBt)(EtOH)] (1B)
[Ni(OBt)(Cl)(H2O)2] pressed tablet · Pellet · 294-423 K; multiple linear regimes fitted in Arrhenius form
2009 · A novel lamella 2D Ag(I) coordination polymer of graphite-like structure featuring short interlayer distance
Compacted pellet of 1 · Pellet · Compacted pellet, 0.2 x 0.2 x 0.17 mm; room temperature; I-V curve in SI Fig. S4.
2009 · Electroconductive porous coordination polymer Cu[Cu(pdt)2] composed of donor and acceptor building units
Single crystals of Cu[Cu(pdt)2] · Single Crystal · Temperature-dependent conductivity measured and fitted to an Arrhenius model; Figure 4 plots conductivity versus T^-1 over roughly 200-400 K.
2009 · Monovalent K, Cs, Tl, and Ag nitrosodicyanomethanides: Completely different 3D networks with useful properties of luminescent materials and nonelectric sensors for gases†
Ag{ONC(CN)2} bright deep-yellow microcrystalline powder · Powder · 0.001 M Ag{ONC(CN)2} in anhydrous DMSO; electrolyte standards used for calibration.
2009 · Monovalent K, Cs, Tl, and Ag nitrosodicyanomethanides: Completely different 3D networks with useful properties of luminescent materials and nonelectric sensors for gases†
Cs{ONC(CN)2} yellow-orange crystals / fine powder · Powder · 0.001 M Cs{ONC(CN)2} in anhydrous DMSO; electrolyte standards used for calibration.
2009 · Monovalent K, Cs, Tl, and Ag nitrosodicyanomethanides: Completely different 3D networks with useful properties of luminescent materials and nonelectric sensors for gases†
K{ONC(CN)2} bright yellow crystals / fine powder · Powder · 0.001 M K{ONC(CN)2} in anhydrous DMSO; electrolyte standards used for calibration.
2009 · Monovalent K, Cs, Tl, and Ag nitrosodicyanomethanides: Completely different 3D networks with useful properties of luminescent materials and nonelectric sensors for gases†
Tl{ONC(CN)2} dark-orange prisms / fine powder · Powder · 0.001 M Tl{ONC(CN)2} in anhydrous DMSO; electrolyte standards used for calibration.
2009 · Rational designs for highly proton-conductive metal-organic frameworks
Dihydrate form of compound 1 under 70% RH · Pellet · Dihydrate state measured at 70% RH; temperature not explicitly stated for this conductivity value, likely ambient because discussed with the 25 C value.
2009 · Rational designs for highly proton-conductive metal-organic frameworks
Compacted pellet of powdered compound 1 under 98% RH · Pellet · Proton conductivity measured under 98% RH; Arrhenius plot of log(sigma T) versus 1000/T.
2009 · Semiconducting neutral microstructures fabricated by coordinative self-assembly of intramolecular charge-transfer tetrathiafulvalene derivatives
needlelike aggregates of compound 1 without metal ions · Pellet · Needlelike aggregates of compound 1 without metal ions and compound 2 with/without metal ions tested under the same conditions.
2009 · Semiconducting neutral microstructures fabricated by coordinative self-assembly of intramolecular charge-transfer tetrathiafulvalene derivatives
compressed pellet of TTF-Pb microwires · Pellet · Compressed pellet of Pb-linked microwires measured at room temperature.
2009 · Semiconducting neutral microstructures fabricated by coordinative self-assembly of intramolecular charge-transfer tetrathiafulvalene derivatives
compressed pellet of TTF-Pb microwires · Pellet · Compressed pellet of Pb-linked microwires measured over approximately 140-300 K in SI Figure S13(a); conductivity increases with temperature.
2009 · Semiconducting neutral microstructures fabricated by coordinative self-assembly of intramolecular charge-transfer tetrathiafulvalene derivatives
two-probe TTF-Pb microwire device · Electrode · Microwires dispersed in water, drop-cast on SiO2(300 nm)/p+-Si(100), contacted with Au electrodes, and swept between -2 and +2 V at room temperature.
2009 · Semiconducting neutral microstructures fabricated by coordinative self-assembly of intramolecular charge-transfer tetrathiafulvalene derivatives
compressed pellet of TTF-Zn spherical particles · Pellet · Compressed pellet of Zn-linked spherical particles measured at room temperature.
2009 · Semiconducting neutral microstructures fabricated by coordinative self-assembly of intramolecular charge-transfer tetrathiafulvalene derivatives
compressed pellet of TTF-Zn spherical particles · Pellet · Compressed pellet of Zn-linked spherical particles measured over approximately 140-300 K in SI Figure S13(b); conductivity increases with temperature.
2009 · Soluble semi-conductive chelate polymers containing Cr(III) in the backbone: Synthesis, characterization, optical, electrochemical, and electrical properties
P-1 iodine-doped ITO film · Thin Film · Keithley 2400 electrometer; P-1 ITO film measured from 20 to 80 C after iodine exposure for 0, 3, 5 and 24 h
2009 · Soluble semi-conductive chelate polymers containing Cr(III) in the backbone: Synthesis, characterization, optical, electrochemical, and electrical properties
P-2 iodine-doped ITO film · Thin Film · P-2 and P-3 iodine-doped films measured at 20 C as a function of doping time up to 24 h
2009 · Soluble semi-conductive chelate polymers containing Cr(III) in the backbone: Synthesis, characterization, optical, electrochemical, and electrical properties
P-2 dip-coated ITO film, undoped · Thin Film · P-2 undoped and 24 h iodine-doped films measured from 20 to 80 C
2008 · A conducting coordination polymer based on assembled Cu9 cages
compound 1 conductivity crystal, higher-conductivity specimen · Single Crystal · Single crystal measured in a Quantum Design PPMS-9 with dc currents between 5 and 100 nA; Pt wire contacts along the long needle axis. Figure 2 plots sigma versus T and inset ln sigma versus 1000/T.
2008 · A conducting coordination polymer based on assembled Cu9 cages
compound 1 conductivity crystal, lower-conductivity specimen · Single Crystal · Single crystal measured in a Quantum Design PPMS-9 with dc currents between 5 and 100 nA; Pt wires (25 um diameter) along the needle long axis using graphite paste; cooling/warming rate 0.1 K min-1.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
3,4-HBA monomer, pristine pressed pellet/solid · Pellet · Pressed pellet; doping time 0 h; 25 °C table condition; atmospheric pressure/room temperature handling.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
I2-doped 3,4-HBA pressed pellet time series · Pellet · Pressed pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity tabulated at 24, 48, 72, 96, 120 and 144 h; table caption gives 25 °C.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
P-3,4-HBA-Cd pristine coordination-polymer solid/pellet · Pellet · Pressed pellet; doping time 0 h; 25 °C table condition; atmospheric pressure/room temperature handling.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
I2-doped P-3,4-HBA-Cd pressed pellet time series · Pellet · Pressed pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity tabulated at 24, 48, 72, 96, 120 and 144 h; table caption gives 25 °C.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
P-3,4-HBA-Co pristine coordination-polymer solid/pellet · Pellet · Pressed pellet; doping time 0 h; 25 °C table condition; atmospheric pressure/room temperature handling.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
I2-doped P-3,4-HBA-Co pressed pellet time series · Pellet · Pressed pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity tabulated at 24, 48, 72, 96, 120 and 144 h; table caption gives 25 °C.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
P-3,4-HBA-Cr pristine coordination-polymer solid/pellet · Pellet · Pressed pellet; doping time 0 h; 25 °C table condition; atmospheric pressure/room temperature handling.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
I2-doped P-3,4-HBA-Cr pressed pellet time series · Pellet · Pressed pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity tabulated at 24, 48, 72, 96, 120 and 144 h; table caption gives 25 °C.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
P-3,4-HBA-Cu pristine coordination-polymer solid/pellet · Pellet · Pressed pellet; doping time 0 h; 25 °C table condition; atmospheric pressure/room temperature handling.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
I2-doped P-3,4-HBA-Cu pressed pellet time series · Pellet · Pressed pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity tabulated at 24, 48, 72, 96, 120 and 144 h; table caption gives 25 °C.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
P-3,4-HBA-Mn pristine coordination-polymer solid/pellet · Pellet · Pressed pellet; doping time 0 h; 25 °C table condition; atmospheric pressure/room temperature handling.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
I2-doped P-3,4-HBA-Mn pressed pellet time series · Pellet · Pressed pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity tabulated at 24, 48, 72, 96, 120 and 144 h; table caption gives 25 °C.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
P-3,4-HBA-Ni pristine coordination-polymer solid/pellet · Pellet · Pressed pellet; doping time 0 h; 25 °C table condition; atmospheric pressure/room temperature handling.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
I2-doped P-3,4-HBA-Ni pressed pellet time series · Pellet · Pressed pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity tabulated at 24, 48, 72, 96, 120 and 144 h; table caption gives 25 °C.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
P-3,4-HBA-Pb pristine coordination-polymer solid/pellet · Pellet · Pressed pellet; doping time 0 h; 25 °C table condition; atmospheric pressure/room temperature handling.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
I2-doped P-3,4-HBA-Pb pressed pellet time series · Pellet · Pressed pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity tabulated at 24, 48, 72, 96, 120 and 144 h; table caption gives 25 °C.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
P-3,4-HBA-Zn pristine coordination-polymer solid/pellet · Pellet · Pressed pellet; doping time 0 h; 25 °C table condition; atmospheric pressure/room temperature handling.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
I2-doped P-3,4-HBA-Zn pressed pellet time series · Pellet · Pressed pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity tabulated at 24, 48, 72, 96, 120 and 144 h; table caption gives 25 °C.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
P-3,4-HBA-Zr pristine coordination-polymer solid/pellet · Pellet · Pressed pellet; doping time 0 h; 25 °C table condition; atmospheric pressure/room temperature handling.
2008 · Synthesis and changes of conductivities and thermal stabilities of 4,4′-oxybis [N-(3,4-dihydroxybenzilidene) aniline] chelate polymers
I2-doped P-3,4-HBA-Zr pressed pellet time series · Pellet · Pressed pellet exposed to iodine vapour at atmospheric pressure and room temperature; conductivity tabulated at 24, 48, 72, 96, 120 and 144 h; table caption gives 25 °C.
2004 · Two 3D supramolecular polymers constructed from an amino acid and a high-nuclear Ln6Cu24 cluster node
ground-crystal pellet of complex 2 · Pellet · Cylindrical pellet 0.2 cm thick and 0.3 cm diameter; frequency range 20 Hz to 1 MHz; temperature monitored with Pt-Rh thermocouple close to sample.
2004 · Two 3D supramolecular polymers constructed from an amino acid and a high-nuclear Ln6Cu24 cluster node
ground-crystal pellet of complex 1 · Pellet · Cylindrical pellet 0.2 cm thick and 0.3 cm diameter; frequency range 20 Hz to 1 MHz; temperature monitored with Pt-Rh thermocouple close to sample.
2002 · Synthesis, characterization and electrical conductivity of mixed-ligand heterobimetallic coordination polymers
all products reported in this paper · Pellet · series-level room-temperature conductivity range and activation energy from 303-383 K pellet data
2002 · Synthesis, characterization and electrical conductivity of mixed-ligand heterobimetallic coordination polymers
CoHg(C7H4NS2)4(phen) · Powder · room-temperature and temperature-dependent conductivity; 303-383 K plot for all except py2
2002 · Synthesis, characterization and electrical conductivity of mixed-ligand heterobimetallic coordination polymers
CoHg(C7H4NS2)4(phen)3 · Powder · room-temperature and temperature-dependent conductivity; 303-383 K plot for all except py2
2002 · Synthesis, characterization and electrical conductivity of mixed-ligand heterobimetallic coordination polymers
NiZn(C7H4NS2)4(en) · Powder · room-temperature and temperature-dependent conductivity; 303-383 K plot for all except py2
2002 · Synthesis, characterization and electrical conductivity of mixed-ligand heterobimetallic coordination polymers
NiZn(C7H4NS2)4(en)3 · Powder · room-temperature and temperature-dependent conductivity; 303-383 K plot for all except py2
2002 · Synthesis, characterization and electrical conductivity of mixed-ligand heterobimetallic coordination polymers
NiZn(C7H4NS2)4(phen) · Powder · room-temperature and temperature-dependent conductivity; 303-383 K plot for all except py2
2002 · Synthesis, characterization and electrical conductivity of mixed-ligand heterobimetallic coordination polymers
NiZn(C7H4NS2)4(phen)3 · Powder · room-temperature and temperature-dependent conductivity; 303-383 K plot for all except py2
2002 · Synthesis, characterization and electrical conductivity of mixed-ligand heterobimetallic coordination polymers
NiZn(C7H4NS2)4(py)2 · Powder · room-temperature and temperature-dependent conductivity; 303-383 K plot for all except py2
2000 · Coexistence of ferromagnetism and metallic conductivity in a molecule-based layered compound
Thin shiny brown plate-like single crystals of [BEDT-TTF]3[MnCr(C2O4)3] · Single Crystal · Plate-like single crystals measured from 300 to 2 K; current flowed in the plane of the layers.
2000 · Coexistence of ferromagnetism and metallic conductivity in a molecule-based layered compound
Thin shiny brown plate-like single crystals of [BEDT-TTF]3[MnCr(C2O4)3] · Single Crystal · Magnetic field up to 5 T applied perpendicular or parallel to the layers; inset plots perpendicular-field data to about 15 K.
1998 · Solid state electrical conductivity studies on manganese-molybdenum Schiff base polymer
pressed manganese-molybdenum Schiff base polymer pellet · Pellet · Applied field increased from 0 to 75 V/cm at room temperature; current measured at each field
1998 · Solid state electrical conductivity studies on manganese-molybdenum Schiff base polymer
pressed manganese-molybdenum Schiff base polymer pellet · Pellet · Room temperature Hall measurement under 500 gauss magnetic field on 0.24 cm thick pellet
1990 · New coordination polymers of 1,4-bis(2′-hydroxyphenylazomethine) phenylene
Cr-BHPAP polychelate powder · Powder · Pressed pellet at 1000 psi using IR die; silver-paste contacts; sandwiched between graphite electrodes; Keithley electrometer; 304-404 K in air.
1990 · New coordination polymers of 1,4-bis(2′-hydroxyphenylazomethine) phenylene
Cu-BHPAP polychelate powder · Powder · Pressed pellet at 1000 psi using IR die; silver-paste contacts; sandwiched between graphite electrodes; Keithley electrometer; 304-404 K in air.
1990 · New coordination polymers of 1,4-bis(2′-hydroxyphenylazomethine) phenylene
Fe-BHPAP polychelate powder · Powder · Pressed pellet at 1000 psi using IR die; silver-paste contacts; sandwiched between graphite electrodes; Keithley electrometer; 304-404 K in air.
1990 · New coordination polymers of 1,4-bis(2′-hydroxyphenylazomethine) phenylene
Mn-BHPAP polychelate powder · Powder · Pressed pellet at 1000 psi using IR die; silver-paste contacts; sandwiched between graphite electrodes; Keithley electrometer; 304-404 K in air.
1990 · New coordination polymers of 1,4-bis(2′-hydroxyphenylazomethine) phenylene
Ni-BHPAP polychelate powder · Powder · Pressed pellet at 1000 psi using IR die; silver-paste contacts; sandwiched between graphite electrodes; Keithley electrometer; 304-404 K in air.
1990 · New coordination polymers of 1,4-bis(2′-hydroxyphenylazomethine) phenylene
Ti-BHPAP polychelate powder · Powder · Pressed pellet at 1000 psi using IR die; silver-paste contacts; sandwiched between graphite electrodes; Keithley electrometer; 304-404 K in air.
1986 · Electrical Semiconductivity of Stacked Layer Coordination Polymers of Rhodium(I)
[Rh(1,3-diisocyanobenzene)2+Cl-]n compressed-powder pellet · Pellet · Room temperature approximately 25 deg C; compressed-powder pellet.
1986 · Electrical Semiconductivity of Stacked Layer Coordination Polymers of Rhodium(I)
[Rh(1,4-diisocyanobenzene)2+Cl-]n compressed-powder pellet · Pellet · Room temperature approximately 25 deg C; compressed-powder pellet.
1986 · Electrical Semiconductivity of Stacked Layer Coordination Polymers of Rhodium(I)
[Rh(1,5-diisocyanonaphthalene)2+Cl-]n compressed-powder pellet · Pellet · Room temperature approximately 25 deg C; compressed-powder pellet.
1986 · Electrical Semiconductivity of Stacked Layer Coordination Polymers of Rhodium(I)
[Rh(4,4'-diisocyanobiphenyl)2+Cl-]n compressed-powder pellet · Pellet · Room temperature approximately 25 deg C; compressed-powder pellet.
1986 · Electrical Semiconductivity of Stacked Layer Coordination Polymers of Rhodium(I)
[Rh(4,4'-diisocyanodiphenylmethane)2+Cl-]n compressed-powder pellet · Pellet · Room temperature approximately 25 deg C; compressed-powder pellet.
1986 · Structure, Conductivity, and Magnetic Properties of (Phthalocyaninato)nickel(II) Bromide
single crystals of Ni(pc)Br · Single Crystal · Conductivity measured along the needle axis (c axis, stacking direction); low temperatures obtained with cold N2 gas from liquid N2 boiloff.
1984 · Cofacial Assembly of Metallomacrocycles as an Approach to Controlling Lattice Architecture in Low-Dimensional Molecular Solids. Chemical, Structural, Oxidation-State, Transport, and Optical Properties of the Coordination Polymer [Fe(phthalocyaninato)(μ-pyrazine)]n and the Consequences of Halogen Doping
[Fe(Pc)(mu-pyz)]n prepared by eq 2 · Pellet · Undoped [Fe(Pc)(mu-pyz)]n samples prepared by eq 2 or eq 3; plotted as conductivity versus 10^3/T.
1984 · Cofacial Assembly of Metallomacrocycles as an Approach to Controlling Lattice Architecture in Low-Dimensional Molecular Solids. Chemical, Structural, Oxidation-State, Transport, and Optical Properties of the Coordination Polymer [Fe(phthalocyaninato)(μ-pyrazine)]n and the Consequences of Halogen Doping
{[Fe(Pc)(mu-pyz)]I2.60}n · Pellet · Conductivity data for 14-180 K plotted as -[ln(sigma/sigma0)]^-1 versus T and fitted over visually linear intervals from 14-110 K to 14-150 K.
1984 · Cofacial Assembly of Metallomacrocycles as an Approach to Controlling Lattice Architecture in Low-Dimensional Molecular Solids. Chemical, Structural, Oxidation-State, Transport, and Optical Properties of the Coordination Polymer [Fe(phthalocyaninato)(μ-pyrazine)]n and the Consequences of Halogen Doping
Table VI pressed-powder transport series · Pellet · Pressed powder compactions measured from 77 to 320 K; activation energies from least-squares fits to thermal activation model over 96-300 K.
1975 · An examination of some active organometallic substances for ion-selective electrodes
MgPc solid-state electrode · Electrode · Metal-phthalocyanines described as electrically semiconducting with very low but adequate conductivity
No mapped measurement matches these filters.
These are the exact source-preserving method strings consolidated by this technique group.
| Raw method label | Mapped measurements |
|---|---|
| two-contact-probe electrical conductivity from linear regression of J-E curves | 20 |
| variable-temperature two-contact I-V curves fitted to Arrhenius law | 20 |
| Four-point probe conductivity | 19 |
| Four-contact probe conductivity on pressed polycrystalline pellet | 19 |
| four-point probe conductivity | 16 |
| linear I-V conductivity | 16 |
| Four-probe electrical conductivity | 14 |
| Current-voltage (I-V) using Keithley 4200 SCS parameter analyser on Everbeing probe station with EGaIn contact electrode | 13 |
| Two-point probe current-voltage measurement on pressed pellet | 12 |
| electrical conductivity with tabulated optical/AFM device dimensions | 12 |
| four-probe electrical conductivity | 11 |
| four-point probe van der Pauw conductivity | 10 |
| Two-contact electrical conductivity from linear sweep voltammetry | 10 |
| Four-point probe conductivity with Keithley 2400 electrometer | 10 |
| Four-point probe conductivity with Keithley 2400 electrometer after iodine-vapour doping | 10 |
| Two-point pressed-pellet conductivity using home-built 2C3PS and Keithley 2636A | 10 |
| Two-probe electrical conductivity | 9 |
| Four-point-probe DC conductivity on cold-isostatically pressed pellets; Keithley 4200 SCS; CRX-6.5K probe station; sigma = (I/V) x ln(2)/(pi t) | 9 |
| Room-temperature conductivity; RTS-8x four-probe apparatus for higher-conductivity range and AS-31356 AC conductivity tester with copper contacts for low-conductivity range. | 9 |
| Four-probe current-voltage conductivity after guest removal | 9 |
| Four-probe current-voltage conductivity | 9 |
| RTS-9 four-point detector | 9 |
| Variable-temperature electrical conductivity; Arrhenius analysis of ln sigma vs 1/T | 8 |
| two-probe current-voltage; J-E curve | 8 |
| two-probe I-V conductivity using Keysight B1500A semiconductor parameter analyser | 8 |
| Two-probe electronic conductivity | 8 |
| Current-voltage measurement using Keithley 2450 SMU | 8 |
| Solid-state dc electrical conductivity using LCR Zentech electrometer | 8 |
| A.C. impedance / proton conductivity by quasi-four-probe method | 8 |
| Two-probe conductivity | 7 |
| Four-point probe bulk electrical conductivity | 7 |
| linear two-probe electrical conductivity on pressed pellets | 7 |
| Elemental analysis plus 300 K electrical conductivity, Seebeck coefficient and power factor | 7 |
| AC impedance, quasi-four-probe method | 7 |
| solid-state conductivity of pressed pellet | 7 |
| Temperature-dependent conductivity with Arrhenius fitting | 7 |
| Current-voltage (I-V) conductivity measurement with Keithley 2400 electrometer | 7 |
| two-probe I-V conductivity | 7 |
| Four-point probe electrical conductivity | 6 |
| four-point probe bulk conductivity | 6 |
| two-contact probe pellet/powder conductivity after redox treatment | 6 |
| pressed-pellet two-contact probe I-V | 6 |
| IV/conductivity control measurement | 6 |
| Two-probe I-V measurement | 6 |
| Variable-temperature solid-state DC specific conductance by conventional two-probe technique on Keithley 236 source measure unit | 6 |
| two-probe single-crystal conductivity | 6 |
| two-probe current-voltage (I-V) conductivity on pressed pellets | 6 |
| DC electrical conductivity | 6 |
| Current-voltage (J-V) photovoltaic measurement | 6 |
| Four-probe DC conductivity on pressed pellet | 6 |
| Four-probe electrical conductivity with Loresta-GX MCP-T700; lab-made Seebeck setup with Peltier plates | 6 |
| Two-probe variable-temperature specific conductance | 6 |
| Four-point probe | 5 |
| four-probe dc electrical conductivity | 5 |
| van der Pauw conductivity | 5 |
| Four-probe electrical conductivity using an electrometer on iodine-doped pressed pellet | 5 |
| DC I-V and EIS on pressed pellets | 5 |
| DC I-V and AC electrochemical impedance spectroscopy | 5 |
| Variable-temperature I-V and EIS; Arrhenius activation energy fitting | 5 |
| AC impedance-derived proton conductivity | 5 |
| Two-electrode pellet conductivity by I-V current scan | 5 |
| PEIS and dc I-V two-probe pressed-pellet conductivity | 5 |
| Temperature-dependent four-point-probe conductivity; Arrhenius fit of ln(sigma/sigma_300K) vs 1000/T | 5 |
| Conductivity-ratio comparison from reported EIS-derived conductivities | 5 |
| Optical microscopy and geometric dimension measurement for conductivity calculations | 5 |
| Four-point conductivity, Seebeck and power factor on compressed pellets | 5 |
| AC complex impedance spectroscopy / EIS ionic conductivity | 5 |
| conductivity normalised by IEC | 5 |
| Two-electrode ac conductivity, 1 kHz | 5 |
| Two-point-probe pressed-pellet conductivity | 4 |
| Two-contact probe current-voltage measurement | 4 |
| Four-contact probe DC conductivity on pressed pellet | 4 |
| Electrical conductivity measurement; method inferred from common four-point-probe instrumentation section | 4 |
| four-contact probe conductivity | 4 |
| Pressed-pellet I-V conductivity | 4 |
| Two-point packed/pressed pellet conductivity | 4 |
| Current-voltage measurement | 4 |
| four-probe van der Pauw conductivity | 4 |
| Two-contact pressed-pellet I-V conductivity | 4 |
| Variable-temperature conductance and I-V | 4 |
| variable-temperature two-probe conductance; Arrhenius fit | 4 |
| Two-probe I-V conductivity on pressed pellet | 4 |
| four-contact point linear probe bulk conductivity | 4 |
| Current-voltage (I-V) measurement | 4 |
| two-probe dc current-voltage conductivity | 4 |
| four-point probe sheet resistance using Keithley 2400 and Labview | 4 |
| van der Pauw method (Lakeshore Hall Testing System) | 4 |
| Collinear / parallel four-probe electrical conductivity on pressed powder pellet | 4 |
| room-temperature environmental-control conductivity, Seebeck, and power-factor measurements | 4 |
| two-probe pressed-pellet conductivity | 4 |
| d.c. electrical conductivity from pressed tablet during cooling | 4 |
| two-/four-electrode single-crystal I-V conductivity | 4 |
| four-probe DC conductivity on pelletised powder | 4 |
| Photocurrent-voltage (J-V) solar-cell measurement | 4 |
| DC two-point single-crystal conductivity, I-V sweep from -1 to 1 V | 4 |
| DFT-NEGF current-voltage and conductance; LCAO/PBE/PseudoDojo; Quantum ATK | 4 |
| Two-contact DC conductivity with Pt wires and graphite paste | 4 |
| Current-voltage I-V conductivity on pressed pellet | 4 |
| I-V conductivity test | 4 |
| AC impedance hydroxide ion conductivity | 4 |
| Linear sweep voltammetry-derived electrical conductivity | 4 |
| Two-probe conductivity measurement with Keithley 2636B source meter | 4 |
| Two-probe current-voltage (I-V) measurement with Keithley source-meter | 4 |
| solution electrical conductivity with YSI conductance-resistance meter model 34 | 4 |
| four-probe electrical powder resistivity/conductivity | 4 |
| impedance spectroscopy conductivity isotherms | 4 |
| AC impedance proton conductivity, second cycle | 4 |
| Arrhenius/temperature-dependent conductivity analysis | 4 |
| Two-probe I-V conductivity using Keithley 2400 source meter | 4 |
| Temperature-dependent two-probe I-V conductivity | 4 |
| Two-probe conductivity after thermal guest removal | 4 |
| Current-voltage (I-V) | 4 |
| linear four-point probe conductivity | 4 |
| AC impedance proton conductivity | 4 |
| Four-point probe sheet resistance | 3 |
| Flash-photolysis time-resolved microwave conductivity (FP-TRMC) | 3 |
| Variable-temperature four-contact probe DC conductivity | 3 |
| Four-point-probe electrical conductivity | 3 |
| I-V curves | 3 |
| Four-point probe electrical conductivity on pressed pellet using Keithley SCS-4200. | 3 |
| Two-contact probe pressed-pellet I-V conductivity | 3 |
| Variable-temperature two-contact probe pressed-pellet conductivity | 3 |
| Four-probe van der Pauw conductivity | 3 |
| Temperature-dependent four-probe conductivity | 3 |
| two-probe bulk electrical conductivity on powder pellet | 3 |
| Pressed-pellet two-point-probe I-V conductivity | 3 |
| Room-temperature four-probe electrical measurement | 3 |
| variable-temperature two-probe dc conductivity and Arrhenius fit | 3 |
| Four-probe current-voltage measurement | 3 |
| two-contact probe pressed-pellet conductivity | 3 |
| Conductivity measurement for chloride-modified Ni-HITP. | 3 |
| Linear I-V curve | 3 |
| two-point probe linear sweep I-V | 3 |
| four-point probe | 3 |
| DC conductivity by four- or two-contact method on single crystals | 3 |
| Two-probe pressed-pellet I-V conductivity using Keithley 2400 source meter on CRX-4K probe station. | 3 |
| Four-probe variable-temperature conductivity | 3 |
| two-probe direct-current electrical conductivity | 3 |
| Bulk electrical conductivity measurement; method details not specified in the provided main/SI text. | 3 |
| Arrhenius analysis of proton conductivity | 3 |
| four-probe pressed-pellet conductivity | 3 |
| Four-probe variable-temperature conductivity; Arrhenius fit | 3 |
| proton conductivity from impedance/Nyquist fitting | 3 |
| Two-contact wire-paste single-crystal conductivity | 3 |
| PEIS / I-V two-probe pressed-pellet conductivity | 3 |
| Two-probe current-voltage measurement | 3 |
| two-contact direct-current I-V measurement on pressed pellet | 3 |
| AC impedance ionic conductivity with electron-blocking LGPS layers | 3 |
| Temperature-dependent conductivity, Seebeck coefficient, thermal conductivity and calculated ZT | 3 |
| Direct-current two-probe conductivity | 3 |
| Two-probe direct current-voltage (I-V) pellet conductivity | 3 |
| single-crystal four-point probe conductivity | 3 |
| Two-probe direct-current conductivity using Keithley model 6517B electrometer voltage source | 3 |
| four-probe I-V measurement after guest infiltration | 3 |
| AC conductivity from complex impedance analysis | 3 |
| Two-point ac impedance spectroscopy; Nyquist plot fitted with equivalent circuit | 3 |
| Previously reported metal-CP junction I-V characteristic under dark and illuminated conditions. | 3 |
| Hg-drop tunnelling junction current-voltage measurement | 3 |
| Four-probe Van der Pauw electrical conductivity from I-V curves using Keithley 4200 | 3 |
| Temperature-dependent current-voltage conductivity | 3 |
| two-probe electrical conductivity | 3 |
| Two-contact probe electrical conductivity using Keithley 2400 parameter analyser | 3 |
| AC impedance spectroscopy, conventional two-probe method | 3 |
| Two-probe current-voltage measurement using Keithley semiconductor characterization system (Model 4200) | 3 |
| two-probe electrical conductivity using 4200A-SCS parameter analyser | 3 |
| Electrical conductivity, Seebeck coefficient, Raman thermometry thermal conductivity, power factor and zT | 3 |
| Electrical conductivity and Seebeck coefficient vs temperature | 3 |
| Temperature-dependent conductivity, Seebeck coefficient and power factor | 3 |
| time-dependent conductivity decrease during dry/RH air cycling | 3 |
| Impedance spectroscopy, Bode phase, AC conductivity, and capacitance | 3 |
| Dark I-V measurement and Cheung analysis of Schottky junction | 3 |
| DC two-point I-V conductivity on interdigitated Au electrodes | 3 |
| DC two-point probe pellet conductivity | 3 |
| Two-probe cyclic voltammetric conductivity measurement | 3 |
| four-probe conductivity on pressed-powder pellet | 3 |
| four-probe I-V conductivity | 3 |
| Four-point probe bulk conductivity | 3 |
| Impedance spectroscopy; Nyquist, Bode phase and AC/DC conductivity analysis | 3 |
| Current-voltage Schottky diode analysis and Cheung method | 3 |
| SCLC analysis of forward-bias I-V characteristics | 3 |
| Direct-current two-contact conductivity on single crystals | 3 |
| Two-point probe electrical conductivity on pressed pellet | 3 |
| Room-temperature current-voltage (I-V) conductivity measurement | 3 |
| Room-temperature current-voltage measurements. | 2 |
| Electrical conductivity comparison, method details not in main text | 2 |
| Electrical conductivity and Hall effect measurements; ECOPIA Hall effect measurement system | 2 |
| Dark current-voltage measurement | 2 |
| I-V measurement under dark and X-ray irradiation | 2 |
| Four-point probe; Keithley SCS-4200 parameter analyser | 2 |
| four-contact probe conductivity ageing in air | 2 |
| Flash photolysis time-resolved microwave conductivity (FP-TRMC) | 2 |
| Two-probe dc single-crystal conductivity | 2 |
| Two-point packed-pellet conductivity negative control | 2 |
| two-probe I-V conductance/conductivity using silver paste electrodes and Keithley 6517B | 2 |
| AC electrochemical impedance spectroscopy proton conductivity | 2 |
| Four-probe conductivity on mechanically blended controls | 2 |
| Conductivity measurement cited from prior literature | 2 |
| variable-temperature conductivity | 2 |
| Four-probe direct-current I-V measurement | 2 |
| Two-contact probe pressed-pellet conductivity and representative I-V curve | 2 |
| two-probe current-voltage conductivity | 2 |
| two-probe current-voltage characteristics; Keithley 2635B source meter; thermionic emission/Cheung analysis | 2 |
| Four-point probe electrical conductivity; temperature-dependent conductivity | 2 |
| two-probe current-voltage measurement using Keithley 2400 | 2 |
| SCLC analysis from I-V and I-V2 plots; Mott-Gurney and den Boer methods | 2 |
| Temperature-dependent I-V and Arrhenius analysis | 2 |
| two-terminal current-voltage measurement | 2 |
| Two-point-probe single-crystal conductivity from J-E curves using Keithley 2400. | 2 |
| two-terminal I-V | 2 |
| Temperature-dependent conductivity Arrhenius analysis | 2 |
| Two-probe I-V on pressed pellets with Keithley 2400 source meter | 2 |
| Representative I-V plot on pressed pellet | 2 |
| Two-probe I-V electrical measurement using Keithley 4200 | 2 |
| Four-probe electrical conductivity measurement | 2 |
| Linear four-contact probe; room-temperature I-V with Janis ST-500 probe station and Keithley 2450 sourcemeter | 2 |
| Two-probe direct current I-V conductivity measurement | 2 |
| Impedance spectroscopy; Nyquist and frequency-dependent ac conductivity | 2 |
| Current-voltage measurement and Schottky barrier diode analysis | 2 |
| two-contact probe single-crystal conductivity | 2 |
| two-probe I-V | 2 |
| Two-electrode conductivity on pressed pellet with copper-sheet contacts. | 2 |
| Four-contact probe electrical conductivity | 2 |
| Power factor calculated from Seebeck coefficient and electrical conductivity | 2 |
| Direct-current electrical conductivity on pressed pellet with silver-paint contacts | 2 |
| Two-probe electrical conductivity using 2602B SYSTEM Source Meter | 2 |
| Four-point probe temperature-dependent resistivity in PPMS with dilution refrigerator | 2 |
| Two-point dc pressed-pellet conductivity | 2 |
| Calculated electrical conductivity from resistance and working-electrode geometry | 2 |
| Two-probe current-voltage measurement with Keithley 2635B source meter | 2 |
| Flash-photolysis time-resolved microwave conductivity coupled with transient absorption spectroscopy | 2 |
| In situ two-point conductivity during iodine-vapour doping | 2 |
| I-V measurement with Ohmic electrode; Keithley sourcemeter | 2 |
| Schottky diode current-voltage and thermionic-emission/Cheung analysis | 2 |
| Two-point probe bulk conductivity on pressed pellet | 2 |
| Two-probe current-voltage measurement using Keithley 2635B source meter; thermionic emission and Cheung analysis. | 2 |
| Thermionic-emission/Cheung analysis of I-V curves | 2 |
| Pellet conductivity using silver-paint contacts and Agilent 4284A LCR meter | 2 |
| current-voltage (I-V/J-V) measurement and Cheung thermionic-emission analysis | 2 |
| two-probe electronic conductivity with multimeter | 2 |
| room-temperature conductivity summary | 2 |
| four-probe van der Pauw method using Keithley 2400 digital source meter | 2 |
| parallel four-probe temperature-dependent conductivity | 2 |
| temperature-dependent conductivity; Arrhenius fit | 2 |
| Two-probe/multimeter conductivity on pressed slice | 2 |
| PEIS two-probe pressed-pellet conductivity | 2 |
| Cheung analysis of forward I-V characteristics | 2 |
| Space-charge-limited-current analysis from log(I) vs log(V), I vs V2 and forward I-V curves | 2 |
| Two-probe current-voltage conductivity | 2 |
| Four-probe direct-current electrical conductivity | 2 |
| separator ionic conductivity by EIS | 2 |
| Literature-reported bulk electrical conductivity cited in introduction | 2 |
| Four-wire resistance conductivity and I-V on activated pressed pellet | 2 |
| Four-wire resistance conductivity on pressed pellet | 2 |
| Humidity-dependent EIS/Nyquist proton-conductivity analysis | 2 |
| Four-point-probe electrical conductivity using Electrometer Entek Electronic FPP-470. | 2 |
| Temperature-dependent two-point probe electrical transport | 2 |
| Lateral current-voltage measurement | 2 |
| Current-voltage measurement using Ecopia HMS-5300 Van der Pauw four-point configuration | 2 |
| Two-probe direct-current electrical conductivity | 2 |
| Current-voltage (I-V) under d.c. bias | 2 |
| two-probe bulk powder-pellet conductivity using Keithley 4200 | 2 |
| Flash-photolysis time-resolved microwave conductivity (FP-TRMC) with TAS-derived carrier generation yield | 2 |
| frequency-dependent total conductivity derived from impedance | 2 |
| Four-point probe conductivity measurement | 2 |
| Four-point-probe solid electrical conductivity using Electrometer Entek Electronic FPP-470. | 2 |
| frequency-dependent AC conductivity derived from LCR/electrical measurements | 2 |
| Temperature-dependent conductivity and Arrhenius analysis | 2 |
| Ecopia 7000 Photonic Hall measurement system, van der Pauw configuration | 2 |
| FIB-assisted conductivity measurement | 2 |
| CV and EIS-derived redox conductivity | 2 |
| Two-contact direct-current conductivity using Keithley 2450 SourceMeter | 2 |
| Temperature-dependent conductivity and Arrhenius activation-energy analysis | 2 |
| four-probe I-V and variable-temperature conductivity | 2 |
| AC impedance conductivity versus temperature; Arrhenius-like fit | 2 |
| AC impedance hydroxide conductivity under light-on/light-off cycling at varied relative humidity | 2 |
| AC impedance hydroxide conductivity under light-on/light-off cycling at varied temperature | 2 |
| two-probe I-V on ligand control | 2 |
| Two-probe conductivity, Advantest R6245 multimeter | 2 |
| Variable-current I-V measurement | 2 |
| DC electrical conductivity on pressed pellets; SI describes conventional four-probe method using current-voltage fits | 2 |
| two-probe DC current-voltage sweep | 2 |
| Two-probe current-voltage and Schottky diode analysis | 2 |
| Ionogel conductivity/resistivity measurement; instrument details not fully specified in main text | 2 |
| Four-probe electrical conductivity in Quantum Design PPMS-9 | 2 |
| Four-probe temperature-dependent conductivity in PPMS-9 | 2 |
| temperature-dependent four-probe conductivity / resistivity | 2 |
| Four-point probe method | 2 |
| Electrical conductivity versus pellet density | 2 |
| Ambient stability of conductivity | 2 |
| DC I-V and EIS MIEC analysis | 2 |
| two-contact I-V conductivity | 2 |
| I-V characteristics; thermionic emission theory; Cheung's method | 2 |
| two-probe current-voltage conductivity measurement | 2 |
| current-voltage (I-V), Keithley 4200 SCS | 2 |
| DC I-V conductivity | 2 |
| solvent-dependent DC I-V conductivity | 2 |
| temperature-dependent DC I-V Arrhenius analysis | 2 |
| X-ray diffraction (Ultima IV, Cu K alpha) | 2 |
| Optical-characterisation-derived electrical conductivity and thin-film parameters | 2 |
| A.C. impedance conductivity | 2 |
| molar electrical conductivity, Radelkis OK 102/1 conductometer | 2 |
| impedance spectroscopy and frequency-dependent AC conductivity | 2 |
| current-voltage measurement and thermionic-emission/Cheung analysis | 2 |
| Hall effect and four-contact/four-probe conductivity | 2 |
| two-probe I-V; SMU B1500A | 2 |
| Direct-current electrical resistivity/conductivity using Ultra High Resistance Meter R8340 | 2 |
| Literature/reported comparator DC conductivity and activation-energy measurement | 2 |
| Two-probe direct-current conductivity with Keithley 2611 sourcemeter in PPMS liquid-He cryostat | 2 |
| four-electrode conductivity in PPMS-9 | 2 |
| two-probe current-voltage dc sweep using Keithley 2400 source-meter | 2 |
| I-V measurement | 2 |
| Temperature-dependent current-voltage (I-V) | 2 |
| van der Pauw variable-temperature conductivity and I-V | 2 |
| Two-probe direct-current conductivity | 2 |
| Four-probe conductivity on pressed pellet | 2 |
| Van der Pauw electrical conductivity from I-V curves | 2 |
| electrical conductivity-temperature curve | 2 |
| Temperature-variable four-probe conductivity | 2 |
| Four-probe conductivity | 2 |
| Two-contact resistance with silver dag contacts | 2 |
| Powder electrical conductivity | 2 |
| temperature-dependent in-plane four-contact conductivity/resistivity | 2 |
| Arrhenius activation energy from conductivity | 2 |
| Four-probe electrical conductivity (RTS-9) | 2 |
| Current-voltage measurement under dark and 980 nm illumination | 2 |
| quasi-four-electrode AC impedance; Solartron 1260 impedance/gain-phase analyser; conductivity from Debye semicircle in Nyquist plot | 2 |
| Arrhenius analysis of temperature-dependent proton conductivity | 2 |
| AC impedance spectroscopy; proton conductivity | 2 |
| four-probe conductivity | 2 |
| temperature-dependent in-plane resistivity; four-contact conductivity | 2 |
| Solution conductivity measurement | 2 |
| Four-probe DC conductivity on Hall-bar device | 1 |
| Two-probe DC I-V conductivity | 1 |
| Not measured in this paper; conductivity cited from prior Ni3(HITP)2 report. | 1 |
| Four-point-probe bulk electrical conductivity on pressed pellets | 1 |
| Pellet conductivity measurement. | 1 |
| Four-probe variable-temperature conductance and Zabrodskii analysis. | 1 |
| Two-probe and four-probe DC current-voltage sweeps plus AC variable-temperature conductance. | 1 |
| Standard four-probe electrical conductivity | 1 |
| Four-probe temperature-dependent conductivity in PPMS | 1 |
| PXRD after conductivity measurement | 1 |
| Repeated two-contact conductivity measurements over time | 1 |
| two-terminal I-V conductivity | 1 |
| four-point probe, direct-contact approach | 1 |
| two-contact probe, in situ press, resistance-thickness regression | 1 |
| van der Pauw, direct-contact approach | 1 |
| two-contact probe, wire-paste approach | 1 |
| four-contact probe, wire-paste approach | 1 |
| two-contact probe, Ga-Sn or In-Ga-Sn alloy approach | 1 |
| air-vacuum cycling, two-contact wire-paste conductivity | 1 |
| four-contact probe, bottom-contact approach | 1 |
| two-contact probe, probe-paste approach, sigma_parallel_c | 1 |
| two-contact probe, probe-paste approach, sigma_perpendicular_c | 1 |
| two-contact probe, probe-wire-paste approach | 1 |
| temperature-dependent two-contact wire-paste conductivity | 1 |
| two-contact probe, top-contact approach | 1 |
| two-contact probe, single-crystal wire-paste approach | 1 |
| four-contact probe, single-crystal wire-paste approach | 1 |
| Pressed-pellet current-voltage measurement | 1 |
| Two-probe pressed-pellet resistivity/conductivity measurement | 1 |
| Variable-temperature electrical conductivity fit to 3D Mott variable-range hopping | 1 |
| Temperature-dependent four-point-probe conductivity and Arrhenius analysis | 1 |
| Current-voltage measurement under X-ray irradiation | 1 |
| I-V measurement under X-ray dose rates | 1 |
| literature-cited electronic conductivity statement | 1 |
| Two-contact bulk conductivity on pressed pellet | 1 |
| Standard four-contact d.c. resistance measurement | 1 |
| Low-temperature magnetoresistance during four-contact d.c. transport | 1 |
| I-V curves and conductivity of particle-size-tuned pressed pellets | 1 |
| Four-point probe conductivity of metalated pressed pellets | 1 |
| Variable-temperature conductivity fitted to Arrhenius equation | 1 |
| variable-temperature four-contact conductivity / Arrhenius fit | 1 |
| variable-temperature four-contact conductivity / Arrhenius and VRH fits | 1 |
| Four-point variable-temperature DC conductivity | 1 |
| Pressed-pellet conductivity and impedance measurements | 1 |
| Two-point DC conductivity on single-crystal FET devices | 1 |
| Flash photolysis-time-resolved microwave conductivity (FP-TRMC) | 1 |
| Two-point pressed-pellet conductivity | 1 |
| Single-crystal out-of-plane conductivity | 1 |
| Variable-temperature van der Pauw conductivity measurement | 1 |
| conductivity cycling under argon flow | 1 |
| light-intensity-dependent I-V conductivity | 1 |
| conductivity versus AgNC volume fraction plot | 1 |
| temperature-dependent I-V conductivity and Arrhenius analysis | 1 |
| two-probe I-V photoconductance/conductivity of thin film | 1 |
| Temperature-dependent four-point conductivity and Arrhenius fitting | 1 |
| Electrical conductivity and EIS proton-conductivity control measurements | 1 |
| Four-point electrical conductivity and EIS proton conductivity | 1 |
| Two-point-probe electrical conductivity | 1 |
| van der Pauw electrical conductivity on pellet. | 1 |
| van der Pauw electrical conductivity and I-V measurement. | 1 |
| vertical two-probe conductivity | 1 |
| Literature-reported Cu-CAT conductivity cited in introduction | 1 |
| room-temperature I-V / four-probe conductivity | 1 |
| Four-contact/four-probe pressed-pellet electrical conductivity | 1 |
| Two-probe variable-temperature electrical conductivity under high vacuum | 1 |
| AC impedance proton conductivity, two-probe, VSP-300 BioLogic | 1 |
| AC impedance spectroscopy on a two-contact pressed pellet | 1 |
| Conductivity after saturated acetonitrile-vapour exposure | 1 |
| Two-contact pressed-pellet conductivity measurement | 1 |
| In situ two-contact conductance during gas adsorption | 1 |
| Conductivity survey of electron-beam and stencil-mask fabricated single-crystal devices | 1 |
| Hall-effect measurement from current-voltage slopes at each magnetic field | 1 |
| Temperature-dependent I-V characteristics and cool-down/warm-up conductivity | 1 |
| Two-probe c-axis conductivity measurement | 1 |
| Four-probe pressed-pellet conductivity and temperature dependence | 1 |
| Four-probe and device conductivity measurement versus temperature; basal-plane single-crystal transport | 1 |
| Four-point probe conductivity comparison after alternative metal-ion exposure | 1 |
| Temperature-dependent Seebeck coefficient and I-V curves | 1 |
| Hall effect, van der Pauw method | 1 |
| Arrhenius analysis of conductivity vs 1/T | 1 |
| Infrared reflectance and Kramers-Kronig optical conductivity | 1 |
| Four-point electrical conductivity with AC bridge and I-V ohmic-contact check. | 1 |
| variable-temperature two-probe conductivity | 1 |
| Van der Pauw Hall effect | 1 |
| Local lateral two-probe measurement in FET-style h-BN device | 1 |
| Two-probe lateral conductivity on 10 devices | 1 |
| Van der Pauw DC conductivity | 1 |
| temperature-dependent two-point I-V and Arrhenius plot | 1 |
| four-point probe conductivity on pressed pellet | 1 |
| two-point digital multimeter conductivity screen | 1 |
| Linear four-contact / four-point probe conductivity | 1 |
| Variable-temperature four-point conductivity and Arrhenius fitting | 1 |
| Two-terminal I-V conductivity on pressed pellets | 1 |
| Variable-temperature conductivity | 1 |
| van der Pauw electrical conductivity | 1 |
| DC electrical conductivity versus temperature at constant voltage | 1 |
| two-probe I-V measurement | 1 |
| temperature-dependent two-probe I-V and Arrhenius analysis | 1 |
| Conductivity calculated from conductance/resistance and device geometry | 1 |
| Flexible-device I-V and bending-resistance statistics | 1 |
| Two-terminal source-drain I-V with Au electrodes and varying channel length | 1 |
| Temperature-dependent normalised conductance/conductivity | 1 |
| Current-voltage (I-V) electrical contact assessment | 1 |
| four-point probe conductivity before/after ambient storage | 1 |
| current-voltage sweep | 1 |
| Pressed-pellet two-point-probe I-V conductivity after sonication | 1 |
| I-V curves after ageing | 1 |
| Cited two-probe pellet conductivity literature comparison | 1 |
| Two-probe electrical measurement of thin-film current normalised by thickness as sigma/C0 | 1 |
| Electronic conductivity measurement | 1 |
| temperature-dependent four-point probe conductivity; Arrhenius fit | 1 |
| four-point probe conductivity of metalated pellets | 1 |
| Conductivity versus TCNQ exposure time | 1 |
| I-V comparison for TCNQ, F4-TCNQ and H4-TCNQ guest-infiltrated films | 1 |
| Ambient stability of conductivity over time | 1 |
| Variable-temperature DC resistance/conductivity | 1 |
| four-contact probe variable-temperature electrical conductivity | 1 |
| current-voltage measurement | 1 |
| Conductivity after repeated iodine loading and release. | 1 |
| Photoelectric I-V and photocurrent switching measurement under 450 W xenon lamp. | 1 |
| Variable-temperature two-point-probe I-V and Arrhenius analysis of lg(G) versus 1/T. | 1 |
| two-contact probe electrical transport, linear I-V | 1 |
| Room-temperature four-probe conductivity and Seebeck coefficient | 1 |
| Repeated H+ dedoping/doping conductivity cycling | 1 |
| Four-point probe conductivity on spin-coated films | 1 |
| Four-point probe conductivity on pressed pellets | 1 |
| Variable-temperature conductivity; ln sigma versus 1/T activation-energy fits | 1 |
| Time-dependent conductivity after annealing | 1 |
| van der Pauw electrical conductivity and variable-temperature Arrhenius analysis | 1 |
| four-probe single-crystal conductivity under air and vacuum | 1 |
| four-probe single-crystal conductivity with FIB-deposited Pt contacts | 1 |
| electrochemical impedance spectroscopy conductivity estimate | 1 |
| two-electrode current-voltage measurement on Pt IDE | 1 |
| two-electrode pellet I-V conductivity | 1 |
| Two-probe I-V on pressed material | 1 |
| Two-probe I-V on pressed pellet | 1 |
| Temperature-dependent two-probe I-V and Mott variable-range hopping analysis | 1 |
| Current-voltage (I-V) measurement using Keithley 2401 sourcemeter | 1 |
| two-point I-V conductivity measurement | 1 |
| Hall effect measurement, van der Pauw geometry | 1 |
| Room-temperature two-probe and four-probe I-V measurement | 1 |
| Low-temperature four-contact superconductivity transport | 1 |
| Four-probe temperature-dependent resistivity and conductivity | 1 |
| DC resistance/conductivity by direct probe | 1 |
| Two-probe I-V temperature-dependent conductivity with Keithley 4200 source meter. | 1 |
| Two-probe current-voltage measurement with Keithley 2635B source meter; thermionic-emission and Cheung-equation analysis | 1 |
| Temperature-dependent I-V conductivity measurement | 1 |
| Four-contact I-V measurement | 1 |
| van der Pauw conductivity on pressed pellet-based devices | 1 |
| Four-probe conductivity on pressed pellet samples | 1 |
| Electrical conductivity mapping using patterned electrodes | 1 |
| two-probe DC current-voltage conductivity on pressed pellets | 1 |
| electrochemical impedance spectroscopy, two-probe configuration | 1 |
| Linear sweep voltammetry / two-contact pressed-pellet conductivity | 1 |
| Two-contact pressed-pellet conductivity | 1 |
| Variable-temperature four-contact pressed-pellet electrical conductivity | 1 |
| Two-probe or four-probe conductivity values compiled in Table 1 | 1 |
| Four-probe conductivity measurement using Keysight B2901 source meter | 1 |
| Two-probe I-V and resistance measurement using Keithley 2400 Source Meter | 1 |
| Four-point collinear current-voltage transport measurement | 1 |
| Temperature-dependent four-point electrical conductivity | 1 |
| Four-electrode conductivity | 1 |
| current-voltage photovoltaic measurement | 1 |
| Room-temperature conductivity measurement. | 1 |
| Pressed-pellet conductivity using a home-built press | 1 |
| Conductivity stability assessment | 1 |
| Van der Pauw conductivity from four-probe I-V curves | 1 |
| I-V curves from two-point probe devices | 1 |
| Four-point probe conductivity using EBL-fabricated Au electrodes and Keithley 4200 analyser | 1 |
| Two-point probe conductivity on pelletised scraped powder | 1 |
| Variable-temperature four-point-probe conductivity | 1 |
| Four-point probe conductivity/resistivity | 1 |
| Two-probe I-V conductivity measurement | 1 |
| Temperature-dependent powder-pellet conductivity | 1 |
| Two-probe powder-pellet electrical conductivity | 1 |
| Four-probe van-der-Pauw temperature-dependent conductivity | 1 |
| Figure of merit ZT calculated from Seebeck coefficient, conductivity and thermal conductivity | 1 |
| Two-probe current-voltage measurement of ITO/CP 1/Al MS junction using Keithley 2635B SourceMeter | 1 |
| Photoresponse I-V measurements under varied light wavelength and intensity | 1 |
| Two-terminal square resistance converted to conductivity on iodine-loaded pressed powder film | 1 |
| Two-terminal square resistance converted to conductivity on pressed powder film | 1 |
| regular four-terminal electrical conductivity | 1 |
| Seebeck coefficient and four-terminal electrical conductivity on same devices | 1 |
| Conductivity annotation, CV, charge-discharge, and rate-performance plots for CNF@c-MOF-CNT nanopaper | 1 |
| Standard four-probe conductivity measurement on Advanced Instrument Technology CMT-SR2000N | 1 |
| Electrical conductivity bar chart for CNF@Ni-HITP-10 and CNF@Ni-HITP-15 nanopapers | 1 |
| heterogeneous transport model fit to conductivity-temperature data | 1 |
| conductivity versus air-exposure time | 1 |
| 2-probe and 4-probe conductivity measurements in synthesis screen | 1 |
| four-point-probe electrical conductivity | 1 |
| temperature-dependent conductivity and Seebeck coefficient under high vacuum | 1 |
| electrical conductivity, Seebeck coefficient, power factor, thermal conductivity, and ZT | 1 |
| Electrical conductivity measurement of fabricated composite hydrogels | 1 |
| current-voltage (I-V) and Schottky-diode analysis under dark and photoillumination | 1 |
| Two-terminal d.c. current-voltage measurement with gold blocking electrodes | 1 |
| Two-terminal d.c. current-voltage measurement with PdHx proton-injecting electrodes | 1 |
| Two-terminal d.c. current-voltage comparison of wild-type and mutant reflectin films with PdHx electrodes | 1 |
| two-point probe I-V on pressed pellet | 1 |
| I-V and EIS on sputtered Pt electrode devices | 1 |
| Repeated voltage sweep I-V stability test | 1 |
| Two-probe current-voltage measurement with Keithley 4200 SCS and Cascade M150 probe station | 1 |
| Four-point probe electrical conductivity measurement (RTS-8, China) | 1 |
| Electrical conductivity measurement; method not explicitly tied to graphite paper, likely same four-point-probe setup used for products | 1 |
| SI Table S3 substrate electrical-conductivity comparison | 1 |
| SI Table S3 substrate thermal-conductivity comparison | 1 |
| Electrical conductivity measurement using an Agilent 34420A nanovoltmeter | 1 |
| Single-crystal DC resistivity/conductivity measurement on Au electrodes | 1 |
| Two-point conductivity after air exposure | 1 |
| Two-point conductivity measurement | 1 |
| conductivity measurement, method not separately specified | 1 |
| Two-probe linear sweep voltammetry conductivity measurement. | 1 |
| polarized reflectivity converted to optical conductivity by Kramers-Kronig transformation | 1 |
| Two-probe current-density-voltage (J-V) measurement using Keithley 2635B; Cheung analysis of Schottky diode parameters | 1 |
| four-point probe resistivity/conductivity on pressed pellet | 1 |
| four-point probe after electrolyte soaking | 1 |
| conductivity comparison from bar chart | 1 |
| Co-linear four-point-probe conductivity | 1 |
| Van der Pauw four-point DC conductivity | 1 |
| temperature-dependent two-probe DC conductivity/resistivity | 1 |
| proton conductivity by impedance after humidity-induced dehydration | 1 |
| temperature-dependent proton conductivity from AC impedance; Arrhenius analysis | 1 |
| Literature conductivity value cited in introduction; no new measurement method reported | 1 |
| Hall effect measurement, van der Waals/four-point probe mode | 1 |
| Unpolarised light photoresponse and I-V | 1 |
| four-point probe conductivity/resistivity | 1 |
| four-point probe resistivity comparison | 1 |
| two-point probe current density versus bias potential | 1 |
| Two-probe electrical conductivity measurement | 1 |
| Two-probe I-V/electrical conductivity measurement on regenerated compound 1 | 1 |
| Regenerated-sample comparison by IR, XPS, TGA, electrical conductivity and UV-vis-NIR diffuse reflectance | 1 |
| two-probe capacitance versus frequency measurement | 1 |
| Four-terminal longitudinal conductivity | 1 |
| single-crystal DC I-V conductivity measurement | 1 |
| two-contact DC I-V conductivity measurement | 1 |
| pressed-pellet DC I-V conductivity measurement | 1 |
| current-voltage / current-density-voltage measurement with Keithley 2400 source meter | 1 |
| electronic conductivity comparison | 1 |
| parallel four-probe direct-current electrical conductivity | 1 |
| steady-state ultrafast THz spectroscopy, frequency-resolved complex THz conductivity | 1 |
| Four-probe AC impedance, Autolab PGSTAT 302, galvanostatic mode | 1 |
| Four-probe AC impedance, same conductivity protocol | 1 |
| Four-probe AC impedance, ratio-series conductivity at 160 deg C | 1 |
| two-contact probe conductivity | 1 |
| two-contact probe DC I-V conductivity | 1 |
| Photoinduced single-crystal conductivity under monochromatic and white-light illumination | 1 |
| Hall resistance by van der Pauw geometry | 1 |
| van der Pauw conductivity after air oxidation | 1 |
| van der Pauw variable-temperature conductivity | 1 |
| Arrhenius analysis of temperature-dependent conductivity | 1 |
| Time-dependent cyclic proton-conductivity durability test | 1 |
| Quasi-four-probe impedance spectroscopy using a Zennium electrochemical workstation | 1 |
| Impedance spectroscopy / proton conductivity measurement | 1 |
| Literature proton conductivity measurement | 1 |
| Literature-supported conductivity discussion; no direct conductivity measurement reported in this article | 1 |
| inferred conductivity evidence from Raman, XPS/XAS and EIS | 1 |
| Double-probe current-voltage measurement using self-assembled vacuum device and Keithley 4200-SCS | 1 |
| Temperature-dependent conductivity fitted with Nernst-Einstein relation | 1 |
| Schottky diode I-V | 1 |
| Schottky diode I-V and transient photocurrent | 1 |
| temperature-dependent conductivity; Arrhenius activation-energy analysis | 1 |
| Arrhenius analysis of LSV-derived conductivity | 1 |
| Two-probe linear sweep voltammetry conductivity | 1 |
| ionic liquid viscosity and conductivity measurement | 1 |
| normalisation of ionic conductivity by Li/Ni molar ratio | 1 |
| Current-voltage (I-V) chemiresistive sensing | 1 |
| Time-resolved microwave conductivity (TRMC), 355 nm Nd:YAG excitation | 1 |
| Classical molecular dynamics with empirical potential and Green-Kubo thermal-conductivity calculation in LAMMPS. | 1 |
| Four-point linear probe bulk conductivity | 1 |
| Two-probe current-voltage (I-V) | 1 |
| solution electrical conductivity in DMSO | 1 |
| Four-probe powder electrical conductivity | 1 |
| Variable-temperature van der Pauw electrical conductivity | 1 |
| literature-referenced electrical conductivity | 1 |
| four-point probe electrical conductivity | 1 |
| DC conductivity calculated from impedance resistance and pellet geometry; Arrhenius analysis | 1 |
| four-probe variable-temperature dc conductivity on pressed pellets | 1 |
| fluctuation-induced carrier tunnelling fit to variable-temperature conductivity | 1 |
| four-probe direct-current electrical conductivity on pressed powder pellets | 1 |
| ac impedance using Solartron SI 1260/1296 and Agilent 4294A; quasi-four-probe pellet with gold electrodes | 1 |
| microwave conductivity by cavity perturbation technique | 1 |
| Four-point probe DC conductivity after iodine-vapour exposure | 1 |
| Four-point probe DC conductivity/resistivity measurement | 1 |
| Temperature-dependent four-point probe I-V curves | 1 |
| Scanning electron microscopy of conductivity pellet | 1 |
| Room-temperature conductivity of pressed pellet | 1 |
| two-contact probe electrical conductivity | 1 |
| Current-voltage sweep | 1 |
| Current-voltage measurement and thermionic-emission Schottky-barrier calculation | 1 |
| AC impedance spectroscopy, two-probe method, Solartron 1260/1296A, 1 Hz to 10 MHz | 1 |
| AC impedance conductivity measurement of Mg(TFSI)2 salt control | 1 |
| Temperature-dependent electrical conductivity from Ecopia HMS-5300 Van der Pauw measurement | 1 |
| Temperature-dependent electrical conductivity and Arrhenius analysis | 1 |
| Electrical conductivity after drying; instrument/geometry not specified | 1 |
| Current-voltage sweep using potentiostat in two-electrode configuration | 1 |
| Two-terminal I-V of composite catalyst | 1 |
| I-V and DMC response after ambient storage | 1 |
| I-V and DMC sensing after ethanethiol poisoning | 1 |
| DC two-point single-crystal conductivity perpendicular to c axis | 1 |
| Direct-current I-V curves under varied humidity and atmosphere | 1 |
| I-V curves at different voltage sweep rates | 1 |
| SEM-controlled four-probe van der Pauw electrical conductivity | 1 |
| Electrochemical impedance spectroscopy and Arrhenius conductivity | 1 |
| Photocurrent-time and dark I-V response | 1 |
| four-probe electrical conductivity with carbon paste electrodes, HUSO HECS-994C multichannel resistivity meter | 1 |
| temperature-dependent four-probe electrical conductivity | 1 |
| electrochemical impedance spectroscopy (EIS), through-plane dark conductivity | 1 |
| Impedance-derived total conductivity versus frequency | 1 |
| Current-voltage measurement and Schottky diode parameter extraction | 1 |
| temperature-dependent four-probe conductivity | 1 |
| Two-probe d.c. current-voltage conductivity on pressed pellets | 1 |
| Four-contact dc electrical conductivity with Arrhenius analysis | 1 |
| Four-contact dc electrical conductivity | 1 |
| Two-probe I-V measurement using Keithley 4200 SCS semiconductor parameter analyser | 1 |
| Conductivity comparison reported for TCuI | 1 |
| AC impedance conductivity of pressed pellets in a solid-state battery testing mould | 1 |
| conductivity measurement | 1 |
| SCLC dark I-V trap-density measurement | 1 |
| Two-contact probe conductivity | 1 |
| electrical conductivity measurement; method details not reported | 1 |
| Two-probe electrical conductivity after iodine doping | 1 |
| Variable-temperature conductivity and Arrhenius fitting | 1 |
| Thermogravimetric analysis and normalised conductivity storage test | 1 |
| I-V characterisation of 100 nm device contacts | 1 |
| Four-terminal conductivity using electron-beam-lithography contacts | 1 |
| Four-probe conductivity with Au shadow-mask pads | 1 |
| Four-probe conductivity with 15 um electrode spacing | 1 |
| two-terminal current-voltage sweep with microprobes | 1 |
| two-probe single-crystal I-V under dark and light | 1 |
| pressed-pellet room-temperature current-voltage conductivity | 1 |
| Two-probe I-V conductivity with Keithley 2400 source meter / semiconductor analyser | 1 |
| solid-state conductivity | 1 |
| four-probe I-V measurement after C60 exposure | 1 |
| four-probe I-V measurement with ZnO parallel resistance subtraction | 1 |
| Four-probe I-V measurement with Keithley 2400 source meter and LabView | 1 |
| four-probe conductivity after solvent washing/soaking | 1 |
| Four-probe I-V time-course after MV2+ soaking | 1 |
| LAMMPS molecular dynamics with UFF4MOF for MOF, literature IL force field, direct drift-velocity conductivity analysis | 1 |
| Two-probe electrical conductivity during air oxidation | 1 |
| Room-temperature four-probe conductivity on pressed pellets | 1 |
| Variable-temperature four-contact conductivity; Arrhenius and Mott VRH fits | 1 |
| Four-contact resistance measurement converted to conductivity; DynaCool physical property measurement system | 1 |
| Two-probe IV conductivity on powder compacts | 1 |
| Four-probe low-frequency ac conductivity measurement | 1 |
| Four-point-probe electrical conductivity of physical mixtures | 1 |
| Two-point ac impedance spectroscopy | 1 |
| I-V curve slope comparison | 1 |
| AC conductivity calculated from dielectric loss | 1 |
| pellet fabrication for dielectric/impedance/conductivity measurements | 1 |
| electrical conductivity | 1 |
| I-V characteristics and resistance extraction versus contact separation | 1 |
| Electrical conductivity under DC bias as a function of temperature | 1 |
| Current-voltage measurement under DC bias | 1 |
| Current-voltage I-V conductivity on pressed pellets | 1 |
| Single-crystal DC current-voltage measurement | 1 |
| Two-electrode and four-probe resistance measurements | 1 |
| Arrhenius analysis of AC impedance conductivity | 1 |
| four-probe bulk conductivity | 1 |
| Two-point probe current-voltage measurement, Keithley 4200A-SCS | 1 |
| I-V characteristics under dark and light radiation | 1 |
| I-V curves of aNi-HAB in air and vacuum | 1 |
| Four-probe I-V conductivity measurement. | 1 |
| FIB-assisted in situ four-point/two-point conductivity measurement with W nanomanipulators and Au pads | 1 |
| Electrical resistivity/I-V measurement of transparent conducting electrode | 1 |
| Computed optical conductivity sigma(omega) versus photon energy for polarised light directions. | 1 |
| Electrochemical impedance spectroscopy; conductivity calculated as sigma = L/RA | 1 |
| EIS conductivity after SSP immersion | 1 |
| I-V curves before/after GA and DNA modification | 1 |
| Quantum Patch / Loewdin orthogonalisation electronic couplings and Nelsen four-point reorganisation energies | 1 |
| Seebeck and two-point resistance in controlled N2/H2O humidity environment | 1 |
| Countercation-dependent CV and EIS redox conductivity | 1 |
| Electrochemical impedance spectroscopy-derived redox conductivity | 1 |
| Repeated redox-conductivity switching by EIS | 1 |
| Two-ohmic-contact current-voltage measurement of crystal conductivity | 1 |
| Photosensitivity, responsivity, and detectivity estimation from dark/light I-V response | 1 |
| Two-probe I-V conductivity | 1 |
| I-V control | 1 |
| Frequency-dependent AC conductivity | 1 |
| Temperature-dependent DC conductivity | 1 |
| Space-charge-limited-current fitting of I-V curves | 1 |
| I-V curves on thickness series | 1 |
| Four-probe I-V measurement with Keithley source meter controlled by PET I-V test system | 1 |
| Two-probe electrical conductivity from ohmic I-V curves and impedance responses | 1 |
| Two-probe electrical conductivity from pellet measurements | 1 |
| Powder X-ray diffraction before and after conductivity testing | 1 |
| AC impedance hydroxide conductivity cycling after storage | 1 |
| Single-crystal conductivity by clamping individual crystals between circular gold relay contacts and measuring resistance with a voltmeter. | 1 |
| AC impedance-derived proton conductivity versus relative humidity | 1 |
| Time-dependent proton conductivity stability test | 1 |
| 3D bond percolation / interrupted strand conductivity model | 1 |
| Current-voltage curves | 1 |
| AC impedance spectroscopy; humidity-dependent proton conductivity | 1 |
| Cyclic voltammetry used as conductivity evidence | 1 |
| Ambient direct-current electrical conductivity | 1 |
| Proton conductivity measurement | 1 |
| Temperature-dependent AC electrical conductivity and dielectric permittivity by Agilent 4263B LCR meter | 1 |
| Two-contact single-crystal resistance/conductivity by clamping crystals between gold relay surfaces | 1 |
| Two-probe conductance measurement | 1 |
| Two-probe conductance measurement versus TCNQ incubation time | 1 |
| temperature-dependent two-probe conductivity and Arrhenius analysis | 1 |
| Four-point probe DC conductivity | 1 |
| Four-point probe DC conductivity under controlled relative humidity | 1 |
| Two-electrode current-voltage measurement | 1 |
| Two-probe current-voltage sweeps on gel memristor | 1 |
| UV-Vis Tauc plot, ultraviolet photoelectron spectroscopy (UPS), and temperature-dependent four-point-probe conductivity | 1 |
| pH and conductivity measurements for real water samples | 1 |
| Post-recycling tensile and conductivity testing | 1 |
| Planar current-voltage measurement with Keithley 2401 | 1 |
| Four-probe PPMS-9 control transport measurement | 1 |
| Current-voltage measurement and conductivity extraction | 1 |
| two-point probe measurement | 1 |
| Cheung's method analysis of I-V data | 1 |
| Two-probe current-voltage (I-V) control measurements | 1 |
| Two- or four-contact direct-current electrical conductivity/resistivity measurement | 1 |
| DC current-voltage trace from Supporting Information Figure S2 | 1 |
| Four-probe bulk electrical conductivity on pressed powder pellet | 1 |
| Two-contact current-voltage measurement on pressed pellet | 1 |
| Batch-to-batch reproducibility of conductivity and Seebeck | 1 |
| Temperature-dependent conductivity and Seebeck after annealing | 1 |
| Two-probe current-voltage (I-V) measurement with Keithley 2635B sourcemeter | 1 |
| Two-probe I-V leakage-control measurement | 1 |
| Conductivity monitoring under air exposure and O2 annealing | 1 |
| Two-terminal DC conductance/conductivity during H2 annealing | 1 |
| Four-electrode I-V verification and impedance spectroscopy | 1 |
| Four-point probe current-voltage conductivity measurement | 1 |
| Four-probe I-V and temperature-dependent conductivity | 1 |
| Two-probe photodetector electrical measurement with Keithley 4200 semiconductor analysis system | 1 |
| current-voltage characteristics under dark conditions | 1 |
| Conductivity assessment | 1 |
| current-voltage characteristic | 1 |
| two-contact probe current-voltage measurement | 1 |
| Two-terminal current-voltage measurement with silver-paste contacts to gold electrodes; SCLC analysis at high voltage | 1 |
| Two-terminal I-V measurement with source meter under dark, 445 nm and 520 nm illumination | 1 |
| conductivity suitability statement for Selectrode construction | 1 |
| Arrhenius analysis of temperature-dependent EIS conductivity | 1 |
| film conductivity as a function of Cu-bix amount | 1 |
| AC conductivity from LCR measurements; sigmaAC = A omega^S analysis | 1 |
| I-V with varied top electrodes | 1 |
| I-V with direct pin contacts | 1 |
| I-V with EGaIn top electrodes | 1 |
| Literature conductivity value cited for introduced Cu-MOF-30 min layer | 1 |
| two-probe I-V curve | 1 |
| two-point probe conductivity from I-V curve | 1 |
| impedance spectroscopy conductivity isotherms and Nyquist/CPE fitting | 1 |
| Arrhenius analysis of EIS ionic conductivity | 1 |
| AC impedance proton conductivity under varied pelletisation torque | 1 |
| Two-probe DC resistance in air | 1 |
| Cyclic bending test with electrical-conductivity retention | 1 |
| ZEM-3 standard four-probe thermoelectric measurement | 1 |
| Two-probe electrical conductivity using PPMS | 1 |
| Thermionic-emission and Cheung analysis of I-V data | 1 |
| Two-probe current-voltage (I-V) measurement | 1 |
| Logarithmic I-V and power-law analysis | 1 |
| Powder X-ray diffraction (PXRD), Rigaku Ultima IV | 1 |
| two-electrode DC current-voltage measurement with DC power supply and Keithley 480 picoammeter | 1 |
| Hall measurement by four-probe method | 1 |
| AC impedance / Bode conductivity | 1 |
| I-V comparison for amine-doped NDI(CPOH)2-SCs | 1 |
| two-probe I-V conductivity after vacuum pretreatment and hydrazine doping | 1 |
| temperature-dependent I-V | 1 |
| I-V and conductivity monitoring during ammonia adsorption/desorption cycles | 1 |
| Two-electrode current-voltage characteristics of compressed pellets | 1 |
| Two-probe temperature-dependent conductivity | 1 |
| Conventional two-probe I-V/conductivity measurement | 1 |
| reported conductivity from cited Ni3(HiTP)2 literature | 1 |
| Literature/reported impedance spectroscopy and flash-photolysis time-resolved microwave conductivity | 1 |
| Extraction/digitisation of reported proton conductivity values from prior MOF papers | 1 |
| FET I-V and liquid-gate transfer curves using Keysight B1500A | 1 |
| Four point probe conductivity after iodine vapour doping | 1 |
| Four point probe conductivity using Keithley 2400 Electrometer | 1 |
| parallel-electrode current-voltage and four-probe electrical conductivity | 1 |
| variable-temperature four-probe conductance | 1 |
| pellet conductivity measurement | 1 |
| Temperature-dependent I-V / Arrhenius analysis | 1 |
| Current-voltage (I-V) measurement using Autolab PGSTAT302N with FRA32M | 1 |
| Current-voltage characteristics by cyclic voltammetry | 1 |
| Four-point-probe I-V and temperature-dependent single-crystal conductance | 1 |
| Two-probe temperature-dependent conductivity on single-crystal and polycrystal devices | 1 |
| Variable-temperature DC conductivity by van der Pauw method | 1 |
| Dielectric spectroscopy-derived real conductivity and Arrhenius analysis | 1 |
| four-contact probe I-V | 1 |
| In situ DC electrical resistivity/conductivity, two-probe | 1 |
| Two-contact conductivity after iodine vapour exposure | 1 |
| Four-point probe electrical conductivity on pressed powder pellets | 1 |
| Four-probe sheet resistance | 1 |
| Four-point-probe resistance measurement; I-V curve | 1 |
| In-plane ionic conductivity using home-made aperture with Ag/AgCl electrodes; I-V slopes | 1 |
| Streaming-potential I-V measurement after dropping electrolyte onto one side of CCM film | 1 |
| Thermal-conductivity estimation, UV-vis-NIR absorption, IR thermal imaging, solar simulator | 1 |
| Current-voltage curves in air using Keithley 2400 two-point probe arrangement | 1 |
| Two-probe I-V conductivity on a single nanowire | 1 |
| Alternating-current impedance converted to real conductivity | 1 |
| Two-probe direct-current through-plane conductivity after gold contact coating | 1 |
| two-probe I-V control | 1 |
| single-crystal conductivity before/after anion exchange | 1 |
| two-probe conductivity after pH soaking | 1 |
| in situ conductivity at 100 C | 1 |
| four-probe van der Pauw electrical conductivity | 1 |
| variable-temperature conductivity and Arrhenius analysis | 1 |
| Two-point probe electronic conductivity from EIS-fitted resistance | 1 |
| electrical conductivity and tap-density measurement | 1 |
| Temperature-dependent I-V and conductivity measurement using Keithley 2602B source meter, two-probe method | 1 |
| temperature-dependent four-contact in-plane conductivity | 1 |
| AC impedance conductivity | 1 |
| Current-voltage (I-V) curves | 1 |
| Electrochemical impedance spectroscopy (EIS) ionic conductivity | 1 |
| Electrical conductivity values cited from Chen et al. 2020 | 1 |
| Mettler Toledo S230 SevenCompact conductivity meter | 1 |
| MD-derived in-pore ionic conductivity | 1 |
| Four-probe conductivity, DFP-02 Basic Model | 1 |
| 4-point probe conductivity/resistivity | 1 |
| Two-probe electrochemical impedance spectroscopy (EIS) | 1 |
| Two-probe I-V method by CV | 1 |
| AC impedance spectroscopy / proton conductivity | 1 |
| Arrhenius activation energy from proton conductivity | 1 |
| Electrical conductivity test | 1 |
| electrical conductivity measurement reported from cited prior Cu-THQ synthesis paper | 1 |
| Four-probe bulk conductivity | 1 |
| SEM/AFM/XRD/XPS/contact angle/electronic conductivity tests | 1 |
| electronic conductivity measurement | 1 |
| qualitative classification; no first-hand conductivity measurement | 1 |
| micro four-point probe (M4PP) | 1 |
| Time-dependent proton conductivity monitoring | 1 |
| Conductivity calculated from NH3-exposure impedance spectra | 1 |
| Quasi-four-probe electrochemical impedance spectroscopy; PARSTAT 2273; 0.1 Hz-1 MHz; 100 mV AC | 1 |
| Single-crystal conductivity measurements | 1 |
| Temperature-dependent resistivity and Arrhenius conductivity fitting | 1 |
| Two-point probe with semiconductor analyser and electrochemical workstation | 1 |
| time-dependent proton conductivity measurement | 1 |
| Four-point probe bulk pellet conductivity | 1 |
| Temperature-dependent proton conductivity / Arrhenius activation energy | 1 |
| Proton conductivity/off-on humidity screen from Figure S8 | 1 |
| conductivity (literature-referenced) | 1 |
| current-voltage (I-V) | 1 |
| Four-probe electrochemical impedance spectroscopy | 1 |
| conductivity under repeated bending | 1 |
| I-V measurement with two Ag electrodes | 1 |
| Hall effect measurements in van der Pauw configuration | 1 |
| Self-powered photodetector I-T, I-V, photocurrent-power, responsivity, detectivity and oscilloscope response tests | 1 |
| Flexible self-powered photodetector I-T, I-V, photocurrent-power, responsivity, detectivity and oscilloscope response tests | 1 |
| Powder X-ray diffraction (Ultima IV) | 1 |
| Two-point-probe linear-sweep I-V conductivity | 1 |
| Four-point van der Pauw conductivity | 1 |