Electrical Transport — Drawing sensors with ball-milled blends of metal-organic frameworks and graphite

Measurement evidence

Electrical Transport

Drawing sensors with ball-milled blends of metal-organic frameworks and graphite · Ko M., Aykanat A., Smith M.K. et al. · Sensors (Switzerland) · 2017 · 2192

11 measurement groups · 17 results

Reported values remain attached to the sample, method, conditions, extraction quality and source location that produced them.

four-contact point linear probe bulk conductivity

pure Co3HHTP2 compressed pellet · Pellet

compressed pure MOF pellet, about 90 mg, 6 mm diameter; hydraulic press 1000 psi for 1 min

Temperature
room temperature
Atmosphere
ambient
Geometry
compressed pellet
Context
pristine MOF control
Measurement source
S8 · IV. 4-Point Probe Measurements · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk conductivity of pure Co3HHTP2 pellet2.7 x 10-6 S/cmSI Table
Exact Reported
S8 · IV. 4-Point Probe Measurements · Table S1

four-point probe bulk conductivity

Co3HHTP2/graphite blended pellet · Pellet

compressed M3HHTP2/graphite pellet; Table S1 cited

Temperature
room temperature
Atmosphere
ambient
Geometry
compressed pellet
Context
MOF/graphite composite
Measurement source
S8 · IV. 4-Point Probe Measurements · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource

four-contact point linear probe bulk conductivity

pure Cu3HHTP2 compressed pellet · Pellet

compressed pure MOF pellet, about 90 mg, 6 mm diameter; hydraulic press 1000 psi for 1 min

Temperature
room temperature
Atmosphere
ambient
Geometry
compressed pellet
Context
pristine MOF control
Measurement source
S8 · IV. 4-Point Probe Measurements · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk conductivity of pure Cu3HHTP2 pellet2.0 x 10-2 S/cmSI Table
Exact Reported
S8 · IV. 4-Point Probe Measurements · Table S1

four-point probe bulk conductivity

Cu3HHTP2/graphite blended pellet · Pellet

compressed M3HHTP2/graphite pellet; Table S1 cited

Temperature
room temperature
Atmosphere
ambient
Geometry
compressed pellet
Context
MOF/graphite composite
Measurement source
S8 · IV. 4-Point Probe Measurements · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource

four-point probe conductivity before/after ambient storage

Cu3HHTP2/graphite blend stored six months · Pellet

Cu3HHTP2/graphite blend stored in vial under ambient conditions for six months

Temperature
room temperature
Atmosphere
ambient storage
Geometry
compressed pellet/blend
Context
Cu3HHTP2/graphite composite
Measurement source
S8 · IV. 4-Point Probe Measurements · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Cu3HHTP2/graphite conductivity after six-month ambient storage3.5 x 10-2 S/cmSI Table
Exact Reported
S8 · IV. 4-Point Probe Measurements · Table S1
Cu3HHTP2/graphite conductivity before six-month ambient storage2.8 x 10-1 S/cmSI Table
Exact Reported
S8 · IV. 4-Point Probe Measurements · Table S1

four-contact point linear probe bulk conductivity

pure Fe3HHTP2 compressed pellet · Pellet

compressed pure MOF pellet, about 90 mg, 6 mm diameter; hydraulic press 1000 psi for 1 min

Temperature
room temperature
Atmosphere
ambient
Geometry
compressed pellet
Context
pristine MOF control
Measurement source
S8 · IV. 4-Point Probe Measurements · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk conductivity of pure Fe3HHTP2 pellet3.0 x 10-3 S/cmSI Table
Exact Reported
S8 · IV. 4-Point Probe Measurements · Table S1

four-point probe bulk conductivity

Fe3HHTP2/graphite blended pellet · Pellet

compressed M3HHTP2/graphite pellet; Table S1 cited

Temperature
room temperature
Atmosphere
ambient
Geometry
compressed pellet
Context
MOF/graphite composite
Measurement source
S8 · IV. 4-Point Probe Measurements · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
minimum reported bulk conductivity among M3HHTP2/graphite blend pellets3.8 x 10-2 S/cmSI Table
Exact Reported
S8 · IV. 4-Point Probe Measurements · Table S1

four-contact point linear probe bulk conductivity

pure Ni3HHTP2 compressed pellet · Pellet

compressed pure MOF pellet, about 90 mg, 6 mm diameter; hydraulic press 1000 psi for 1 min

Temperature
room temperature
Atmosphere
ambient
Geometry
compressed pellet
Context
pristine MOF control
Measurement source
S8 · IV. 4-Point Probe Measurements · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
bulk conductivity of pure Ni3HHTP2 pelletMarked as a best value within this paper1.0 x 10-1 S/cmSI Table
Exact Reported
S8 · IV. 4-Point Probe Measurements · Table S1

four-point probe bulk conductivity

Ni3HHTP2/graphite blended pellet · Pellet

compressed M3HHTP2/graphite pellet; Table S1 cited

Temperature
room temperature
Atmosphere
ambient
Geometry
compressed pellet
Context
MOF/graphite composite
Measurement source
S8 · IV. 4-Point Probe Measurements · Table S1
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum reported bulk conductivity among M3HHTP2/graphite blend pelletsMarked as a best value within this paper9.8 x 10-1 S/cmSI Table
Exact Reported
S8 · IV. 4-Point Probe Measurements · Table S1

current-voltage sweep

paper chip with four M3HHTP2/graphite blends · Electrode

I-V plots for Cu, Co, Ni and Fe M3HHTP2/graphite blend devices

Temperature
room temperature
Atmosphere
ambient
Geometry
paper devices with Au electrodes
Context
MOF/graphite composite devices
Measurement source
S17 · XI. Current/Voltage Plots · Figure S13
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
ohmic I-V window lower bound-2.0 VText
Exact Reported
S17 · XI. Current/Voltage Plots · Figure S13
ohmic I-V window upper bound+2.0 VText
Exact Reported
S17 · XI. Current/Voltage Plots · Figure S13
paper chip gold-electrode gap1 mmText
Exact Reported
8 of 17 · Results 3.3 · Figure S2A
target device resistance upper bound600 kohmText
Exact Reported
8 of 17 · Results 3.3
target device resistance lower bound300 kohmText
Exact Reported
8 of 17 · Results 3.3

device resistance after direct abrasion of pure MOF pellets

paper chip with four M3HHTP2/graphite blends · Electrode

pure M3HHTP2 pellets abraded onto commercial ceramic devices with interdigitated gold electrodes

Temperature
room temperature
Atmosphere
ambient
Geometry
ceramic devices, Au interdigitated electrodes; spacing reported as 180 um in one passage
Context
pristine MOF control context before graphite blending
Measurement source
6 of 17 · Results 3.1 · Figure S4
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
commercial ceramic device electrode spacing for pure-MOF abrasion attempts180 umText
Exact Reported
6 of 17 · Results 3.1 · Figure S1
Cu3HHTP2 direct-abrasion charge pathwayadequate pathway for charge transportQualitative
Qualitative
6 of 17 · Results 3.1 · Figure S4
maximum highly resistive pathway for Ni/Co/Fe pure-MOF ceramic devices30 MohmText
Range
6 of 17 · Results 3.1 · Figure S4
minimum highly resistive pathway for Ni/Co/Fe pure-MOF ceramic devices3 MohmText
Range
6 of 17 · Results 3.1 · Figure S4