Spectroscopy — Electrically Conducting Redox-Complementary Dual-Ligand 2D Graphitic MOF with Orthogonal Charge Transport Pathways

Measurement evidence

Spectroscopy

Electrically Conducting Redox-Complementary Dual-Ligand 2D Graphitic MOF with Orthogonal Charge Transport Pathways · Zhang S., Zhang W., Yadav A. et al. · Advanced Electronic Materials · 2025 · e00319

4 measurement groups · 21 results

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

1H NMR of digested CDL-MOF1

CDL-MOF1 microcrystalline black powder · Powder

Dried black powder dissolved in DMSO-d6 with a drop of CF3CO2D; Bruker 500 MHz NMR spectrometer.

Context
pristine target framework powder
Measurement source
p004 / article p.4 · Results and Discussion · Figure 3a
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
HHTP:HHTQ ligand molar ratio in CDL-MOF1Marked as a best value within this paper1:1 molar ratioText
Exact Reported
p004 / SI p.S3 · Material Synthesis and Characterization · Figure 3a
Digested CDL-MOF1 HHTP 1H NMR shift7.63 ppm (s, 6Ha of HHTP)Text
Exact Reported
p004 / SI p.S3 · Material Synthesis and Characterization · Figure 3a
Digested CDL-MOF1 HHTQ Hb 1H NMR shift7.80 ppm (s, 3Hb of HHTQ)Text
Exact Reported
p004 / SI p.S3 · Material Synthesis and Characterization · Figure 3a
Digested CDL-MOF1 HHTQ Hc 1H NMR shift7.05 ppm (s, 3Hc of HHTQ)Text
Exact Reported
p004 / SI p.S3 · Material Synthesis and Characterization · Figure 3a

FT-IR spectroscopy

CDL-MOF1 microcrystalline black powder · Powder

FT-IR spectra recorded on Shimadzu IR Affinity-1S spectrometer for CDL-MOF1 and parent MOFs.

Context
pristine target and parent powders
Measurement source
p004 / article p.4 · Results and Discussion · Figure S2
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
HHTQ C-N stretching signal1316 cm-1Text
Rounded Reported
p004 / article p.4 · Results and Discussion · Figure S2
HHTQ C=N stretching signal1650 cm-1Text
Rounded Reported
p004 / article p.4 · Results and Discussion · Figure S2
Cu(II)-semiquinone characteristic band1434 cm-1Text
Rounded Reported
p004 / article p.4 · Results and Discussion · Figure S2

UV-vis-NIR diffuse reflectance spectroscopy and Tauc analysis

CDL-MOF1 microcrystalline black powder · Powder

Shimadzu UV-2600 with ISR-2600 Plus integrating sphere, 300-1400 nm; direct optical band gaps from Tauc plots.

Context
pristine target and parent powders
Measurement source
p005 / article p.5 · Results and Discussion · Figure 4
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
CDL-MOF1 direct optical band gapMarked as a best value within this paperEopt = 1.1 eVFigure Axis
Exact Reported
p005 / article p.5 · Results and Discussion · Figure 4b
CDL-MOF1 Vis-NIR diffuse-reflectance peak centre850 nmText
Rounded Reported
p004-p005 / article pp.4-5 · Results and Discussion · Figure 4a
Cu3(HHTP)2 direct optical band gapEopt = 1.2 eVFigure Axis
Exact Reported
p005 / article p.5 · Results and Discussion · Figure 4b
Cu3(HHTP)2 Vis-NIR diffuse-reflectance peak centre780 nmText
Rounded Reported
p004-p005 / article pp.4-5 · Results and Discussion · Figure 4a
Cu3(HHTQ)2 direct optical band gapEopt = 1.4 eVText
Exact Reported
p005 / article p.5 · Results and Discussion · Figure 4b
Cu3(HHTQ)2 Vis-NIR diffuse-reflectance peak centre830 nmText
Rounded Reported
p005 / article p.5 · Results and Discussion · Figure 4a

X-ray photoelectron spectroscopy

CDL-MOF1 microcrystalline black powder · Powder

Survey XPS and high-resolution Cu-2p, O-1s, and N-1s deconvolution.

Context
pristine target framework powder
Measurement source
p004 / article p.4 · Results and Discussion · Figure 3b-d; Figure S3
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Cu-2p1/2 higher binding-energy component954.5 eVText
Exact Reported
p004 / article p.4 · Results and Discussion · Figure 3b
Cu-2p1/2 lower binding-energy component952.8 eVText
Exact Reported
p004 / article p.4 · Results and Discussion · Figure 3b
Cu-2p3/2 higher binding-energy component934.2 eVText
Exact Reported
p004 / article p.4 · Results and Discussion · Figure 3b
Cu-2p3/2 lower binding-energy component932.5 eVText
Exact Reported
p004 / article p.4 · Results and Discussion · Figure 3b
N-1s N-C=N binding energy400.1 eVText
Exact Reported
p004 / article p.4 · Results and Discussion · Figure 3d
N-1s C=N-C binding energy398.2 eVText
Exact Reported
p004 / article p.4 · Results and Discussion · Figure 3d
O-1s C-O binding energy531.0 eVText
Exact Reported
p004 / article p.4 · Results and Discussion · Figure 3c
O-1s Cu-O binding energy532.8 eVText
Exact Reported
p004 / article p.4 · Results and Discussion · Figure 3c