Measurement evidence
Ultrasensitive Detection of Electrolyte Leakage from Lithium-Ion Batteries by Ionically Conductive Metal-Organic Frameworks · Lu Y., Zhang S., Dai S. et al. · Matter · 2020 · 904-919
Reported values remain attached to the sample, method, conditions, extraction quality and source location that produced them.
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.
| Property | Reported value | Normalised value | Uncertainty | Origin and quality | Source |
|---|---|---|---|---|---|
| ambient storage stability duration | 6 months | — | — | Text Exact Reported | 910 · Assessment of IC-MOF-Based Sensors under Output Current Mode · Figures 2C and 2D |
IC-MOF chemicapacitor/chemiresistor sensor with gold electrodes · Electrode
Horizontal sensor with gold electrodes on IC-MOF film.
| Property | Reported value | Normalised value | Uncertainty | Origin and quality | Source |
|---|---|---|---|---|---|
| conductive channel length | 100 um (text OCR: 100 mm) | — | — | Text Uncertain | 907 · MOF Synthesis and Sensing Setup · Figure S1 |
| conductive channel width | 1,000 um (text OCR: 1,000 mm) | — | — | Text Uncertain | 907 · MOF Synthesis and Sensing Setup · Figure S1 |
| gold electrode thickness | 40-nm gold electrodes | — | — | Text Exact Reported | 907 · MOF Synthesis and Sensing Setup · Figure 1B |
IC-MOF thin film on quartz or silicon wafer · Thin Film
IC-MOF thin films measured under 50% relative humidity at 25 deg C.
| Property | Reported value | Normalised value | Uncertainty | Origin and quality | Source |
|---|---|---|---|---|---|
| ionic conductivityMarked as a best value within this paper | 5.13 x 10^-6 S/m | — | — | Text Exact Reported | 12 · Supplementary Fig. 16 · Supplementary Fig. 16 |
IC-MOF chemicapacitor/chemiresistor sensor with gold electrodes · Electrode
Calculation used f = 400 Hz, c = 451 x 10^-12 F, R = 1.83 x 10^3 Ohm, and U = 1 V.
| Property | Reported value | Normalised value | Uncertainty | Origin and quality | Source |
|---|---|---|---|---|---|
| capacitance used for power calculation | 451 x 10^-12 F | — | — | Text Exact Reported | 14 · Supplementary 20 · Supplementary 20 |
| sensor power consumptionMarked as a best value within this paper | about 0.2 uW | — | — | Calculated From Reported Approximate | 14 · Supplementary 20 · Supplementary 20 |
| frequency used for power calculation | 400 Hz | — | — | Text Exact Reported | 14 · Supplementary 20 · Supplementary 20 |
| equivalent resistance used for power calculation | 1.83 x 10^3 Ohm | — | — | Text Exact Reported | 14 · Supplementary 20 · Supplementary 20 |
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.
| Property | Reported value | Normalised value | Uncertainty | Origin and quality | Source |
|---|---|---|---|---|---|
| ethanethiol-poisoned IC-MOF current response to 200 ppm DMC | -8% | — | — | Text Approximate | 914 · Sensing Mechanism · Figures 6A and S18 |
| current after ethanethiol treatment at -1 V | 1 nA at -1 V | — | — | Text Exact Reported | 914 · Sensing Mechanism · Figure S18A |
| current before ethanethiol treatment at -1 V | ~710 nA at -1 V | — | — | Text Approximate | 914 · Sensing Mechanism · Figure S18A |
| pristine IC-MOF current response to 200 ppm DMCMarked as a best value within this paper | -55% | — | — | Text Approximate | 914 · Sensing Mechanism · Figure 6A |
| vacuum-heated thiol-treated IC-MOF current response to 200 ppm DMC | -13% | — | — | Text Approximate | 914 · Sensing Mechanism · Figures 6A and S18 |