Sensing Application — A one-dimensional conductive metal-organic framework with extended π-d conjugated nanoribbon layers

Measurement evidence

Sensing Application

A one-dimensional conductive metal-organic framework with extended π-d conjugated nanoribbon layers · Shang S., Du C., Liu Y. et al. · Nature Communications · 2022 · 7599

4 measurement groups · 18 results

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

photosynaptic decay, frequency/spike-number transition, air and bending stability

DDA-Cu flexible optoelectronic synapse on PET · Thin Film

decay fitting; air exposure 45 days; bending 500 cycles with radius ~1.6 mm

Measurement source
20-22 · Supplementary Figs. 33-39 · Supplementary Figs. 33-39
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
air stability after 45 daysminor decrease in ΔPSC after 45 daysQualitative
Qualitative
7 · Flexible organic optoelectronic synapse · Supplementary Fig. 37
ΔPSC after 500 bends2.1 nAFigure Axis
Approximate
22 · Supplementary Fig. 39 · Supplementary Fig. 39
initial bending-test ΔPSC3.0 nAFigure Axis
Approximate
22 · Supplementary Fig. 39 · Supplementary Fig. 39
bending radius~1.6 mmCaption
Approximate
22 · Supplementary Fig. 38 caption · Supplementary Fig. 38
ΔPSC retention after 500 bending experiments70% after 500 bending experimentsText
Exact Reported
7 · Flexible organic optoelectronic synapse · Supplementary Fig. 39
short decay time constant t1 for 10 s irradiationt1 = 2.83 sText
Exact Reported
20 · Supplementary Fig. 33 text · Supplementary Fig. 33
long decay time constant t2 for 10 s irradiationt2 = 51.30 sText
Exact Reported
20 · Supplementary Fig. 33 text · Supplementary Fig. 33

flexible PET optoelectronic synapse response

DDA-Cu flexible optoelectronic synapse on PET · Thin Film

white light; excitation time 10 s; interval 15 s; 20 mW/cm2; VDS=5 V

Measurement source
6 · Flexible organic optoelectronic synapse · Fig. 5c; Supplementary Fig. 30c,d
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
PET double-pulse ΔPSC4.1 nAText
Exact Reported
6 · Flexible organic optoelectronic synapse · Fig. 5c; Supplementary Fig. 30d
double-pulse flexible-device variance0.003 (nA)^2Caption
Exact Reported
19 · Supplementary Fig. 32 caption · Supplementary Fig. 32
PET single-pulse ΔPSC3.6 nAText
Exact Reported
6 · Flexible organic optoelectronic synapse · Fig. 5c; Supplementary Fig. 30c
single-pulse flexible-device variance0.007 (nA)^2Caption
Exact Reported
18 · Supplementary Fig. 31 caption · Supplementary Fig. 31

optoelectronic synapse photoresponse

DDA-Cu film two-terminal device on Si/SiO2 · Thin Film

Si/SiO2 device; white light; VDS=5 V; 10 s excitation; 20 mW/cm2 for main ΔPSC

Measurement source
6 · Flexible organic optoelectronic synapse · Supplementary Fig. 30a,b
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
ΔPSC after 30 s illumination4.8 nAText
Exact Reported
7 · Flexible organic optoelectronic synapse · Fig. 5e
Si/SiO2 double-pulse ΔPSC5.5 nAText
Exact Reported
6 · Flexible organic optoelectronic synapse · Supplementary Fig. 30b
Si/SiO2 single-pulse ΔPSC5.0 nAText
Exact Reported
6 · Flexible organic optoelectronic synapse · Supplementary Fig. 30a
paired-pulse facilitation rangeMarked as a best value within this paper121% to 112% as Δt increasesText
Range
6 · Flexible organic optoelectronic synapse · Fig. 5d
PPF at Δt=1 s121%, Δt=1 sSI Table
Exact Reported
26 · Supplementary Table 5 · Supplementary Table 5

thermal control during photoresponse

DDA-Cu film two-terminal device on Si/SiO2 · Thin Film

white light 30 mW/cm2; devices 1-8; light on first 25 s

Measurement source
16 · Supplementary Fig. 27 text · Supplementary Fig. 27
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
maximum current change for 1 K heating~0.14 nA at VDS=5 VText
Approximate
16 · Supplementary Fig. 27 text · Supplementary Fig. 27
temperature fluctuation under illumination<1 KText
Approximate
16 · Supplementary Fig. 27 text · Supplementary Fig. 27