Thermal conductivity and diffusivity measurements, including TDTR and laser-flash methods.
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.
The same technique may serve transport, electrochemistry, sensing or another scientific purpose.
Filter source method wording, sample context and scientific purpose.
15 measurements
2025 · Uninterrupted π-d Conjugated Three-Dimensional Conductive Metal-Organic Framework
Rectangular Ni3HBC pellet for electrical and thermal transport · Pellet · High-vacuum cryostat; heat flow measured with calibrated Marlow NL1010T-01AC thermoelectric devices; temperature gradient from ohmic heater.
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.
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 · 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 · TCI Thermal Conductivity Analyzer; columned pellets under 25 MPa; 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 columned pellet for thermal conductivity measurements · Pellet · ZT estimated for compressed powder sample from measured sigma, S and kappa.
2020 · Unique Thermoelectric Properties Induced by Intrinsic Nanostructuring in a Polycrystalline Thin-Film Two-Dimensional Metal–Organic Framework, Copper Benzenehexathiol
suspended Cu-BHT thermal-conductivity device · Thin Film · DC current through one metal lead creates DeltaT; heat Q calculated from sensor-lead resistance change; kappa = (Q/DeltaT) x l/(wd).
2017 · A Microporous and Naturally Nanostructured Thermoelectric Metal-Organic Framework with Ultralow Thermal Conductivity
pressed pellet of Ni3(HITP)2 · Pellet · Same steady-state assembly as Seebeck measurement; thermal conductivity extracted from slope of power-versus-temperature curves; values averaged over multiple sweeps.
2017 · Two-dimensional metal-organic frameworks with high thermoelectric efficiency through metal ion selection
Pt3(HITP)2 monolayer computational model · Model · n-type optimum about 2 x 10^12 cm^-2; p-type optimum about 5 x 10^12 cm^-2; ZT plotted versus electronic mean free path lambda.
2015 · Thin film thermoelectric metal-organic framework with high seebeck coefficient and low thermal conductivity
TCNQ@Cu3(BTC)2 TDTR film on p-Si/SiO2 · Thin Film · TDTR with 80 MHz Ti:Sapphire oscillator, pump modulation at 1.034 MHz and 8.8 MHz; Al transducer dots; model accounts for Al, TCNQ@Cu3(BTC)2, SiO2 and Si.
2012 · High performance metal–organic-framework coatings obtained via thermal gradient synthesis
HKUST-1 coating on 5 cm x 5 cm copper sheet · Thin Film · Netzsch Microflash LFA 457 under vacuum on 10 mm x 10 mm samples; graphite coated both sides and dehumidified at 120 deg C; three shots per temperature, arithmetic means; Cu substrate properties from Netzsch database and coating heat capacity from Figure S6 regression.
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.
No mapped measurement matches these filters.
These are the exact source-preserving method strings consolidated by this technique group.
| Raw method label | Mapped measurements |
|---|---|
| Temperature-dependent conductivity, Seebeck coefficient, thermal conductivity and calculated ZT | 3 |
| Electrical conductivity, Seebeck coefficient, Raman thermometry thermal conductivity, power factor and zT | 3 |
| Steady-state thermal conductivity measurement. | 1 |
| Steady-state thermal conductivity measurement | 1 |
| Thermal conductivity measurement | 1 |
| Figure of merit ZT calculated from Seebeck coefficient, conductivity and thermal conductivity | 1 |
| suspended in-plane thermal conductivity device | 1 |
| electrical conductivity, Seebeck coefficient, power factor, thermal conductivity, and ZT | 1 |
| Laser flash thermal analysis using Cowan 2-layer model | 1 |
| Calculated Lorenz number from Landauer sigma and kappa_e at 300 K, plus ZT estimate using peak power factor and lattice thermal conductivity. | 1 |
| Time-dependent thermoreflectance (TDTR) | 1 |