Electrical Transport — Ultrathin Self-Assembly Two-Dimensional Metal-Organic Framework Films as Hole Transport Layers in Ideal-Bandgap Perovskite Solar Cells

Measurement evidence

Electrical Transport

Ultrathin Self-Assembly Two-Dimensional Metal-Organic Framework Films as Hole Transport Layers in Ideal-Bandgap Perovskite Solar Cells · Cao J., Liu C.-K., Piradi V. et al. · ACS Energy Letters · 2022 · 3362-3369

6 measurement groups · 23 results

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

J-V photovoltaic measurement and bending stability

flexible Cu3(HHTT)2-based PSC · Electrode

Flexible PET/ITO devices based on MOF and NiOx HTLs; bending radius 5 mm for 300 cycles.

Geometry
PET/ITO/HTL/perovskite/PCBM/BCP/Ag
Context
MOF flexible target compared with NiOx control
Measurement source
p013 / SI p.13 · Characterization of MOF and perovskite · Table S4; Figure 3h-i
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
MOF flexible device retained PCE after bendingMarked as a best value within this paperabout 90% after 300 cycles at 5 mm radiusaboutText
Approximate
p005 / article p.3366 · Main text · Figure 3i
flexible MOF-HTL reverse PCEMarked as a best value within this paper20.29%SI Table
Exact Reported
p013 / SI p.13 · Characterization of MOF and perovskite · Table S4
flexible NiOx-control reverse PCE18.31%SI Table
Exact Reported
p013 / SI p.13 · Characterization of MOF and perovskite · Table S4

J-V photovoltaic measurement

standard Cu3(HHTT)2-based inverted PSC · Electrode

MOF HTL with HHTT dipping fixed at 10 min and Cu-ion dipping varied at 2, 5 and 10 min; measured under AM 1.5G one-sun illumination.

Geometry
ITO/Cu3(HHTT)2/perovskite/PCBM/BCP/Ag
Context
MOF-based PSC dipping optimisation
Measurement source
p012 / SI p.12 · Characterization of MOF and perovskite · Table S1; Figure 3d
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Cu 10 min / HHTT 10 min forward PCE17.83%SI Table
Exact Reported
p012 / SI p.12 · Characterization of MOF and perovskite · Table S1
Cu 2 min / HHTT 10 min forward PCE12.16%SI Table
Exact Reported
p012 / SI p.12 · Characterization of MOF and perovskite · Table S1
Cu 5 min / HHTT 10 min forward PCEMarked as a best value within this paper22.01%SI Table
Exact Reported
p012 / SI p.12 · Characterization of MOF and perovskite · Table S1

J-V photovoltaic measurement

standard Cu3(HHTT)2-based inverted PSC · Electrode

MOF HTL with Cu dipping fixed at 5 min and HHTT dipping varied at 5, 10 and 20 min.

Geometry
ITO/Cu3(HHTT)2/perovskite/PCBM/BCP/Ag
Context
MOF-based PSC dipping optimisation
Measurement source
p013 / SI p.13 · Characterization of MOF and perovskite · Table S3; Figure 3e
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
Cu 5 min / HHTT 10 min forward PCEMarked as a best value within this paper22.01%SI Table
Exact Reported
p013 / SI p.13 · Characterization of MOF and perovskite · Table S3
Cu 5 min / HHTT 20 min forward PCE20.60%SI Table
Exact Reported
p013 / SI p.13 · Characterization of MOF and perovskite · Table S3
Cu 5 min / HHTT 5 min forward PCE16.01%SI Table
Exact Reported
p013 / SI p.13 · Characterization of MOF and perovskite · Table S3

J-V photovoltaic measurement

standard Cu3(HHTT)2-based inverted PSC · Electrode

Champion standard PSCs based on Cu3(HHTT)2 or NiOx HTLs compared.

Geometry
ITO/HTL/perovskite/PCBM/BCP/Ag
Context
MOF target device compared with NiOx control
Measurement source
p004 / article p.3365 · Main text · Figure 3f; Figure S11
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
standard MOF-HTL champion FFMarked as a best value within this paper79.42%SI Table
Exact Reported
p012 / SI p.12 · Characterization of MOF and perovskite · Table S1
standard MOF-HTL champion JscMarked as a best value within this paper30.13 mA cm-2SI Table
Exact Reported
p012 / SI p.12 · Characterization of MOF and perovskite · Table S1
standard MOF-HTL champion PCEMarked as a best value within this paper22.01%SI Table
Exact Reported
p004 / article p.3365 · Main text · Figure 3f; Table S1
standard MOF-HTL champion VocMarked as a best value within this paper0.92 VSI Table
Exact Reported
p012 / SI p.12 · Characterization of MOF and perovskite · Table S1
standard NiOx-control PCE20.17%Text
Exact Reported
p004 / article p.3365 · Main text · Figure 3f; Figure S11

J-V photovoltaic measurement

1 cm2 Cu3(HHTT)2-based PSC · Electrode

ca. 1 cm2 PSCs based on MOF and NiOx HTLs.

Geometry
large-area ITO/HTL/perovskite/PCBM/BCP/Ag
Context
MOF large-area target compared with NiOx control
Measurement source
p013 / SI p.13 · Characterization of MOF and perovskite · Table S5; Figure S15
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
large-area MOF-HTL reverse PCEMarked as a best value within this paper19.86%SI Table
Exact Reported
p013 / SI p.13 · Characterization of MOF and perovskite · Table S5
large-area NiOx-control forward PCE17.90%SI Table
Exact Reported
p013 / SI p.13 · Characterization of MOF and perovskite · Table S5

PL, Jph-Veff, dark J-V, SCLC and stability tests

hole-only Cu3(HHTT)2/perovskite/Au device · Electrode

Photocarrier extraction, charge collection, dark current, trap-density, light-soaking stability and bending stability comparisons for MOF and NiOx devices.

Atmosphere
N2 for light-soaking stability; white LED 100 mW cm-2
Geometry
standard PSCs and ITO/HTL/perovskite/Au hole-only devices
Context
MOF target compared with NiOx control
Measurement source
p005 / article p.3366 · Main text · Figure 4; Figures S12-S13
PropertyReported valueNormalised valueUncertaintyOrigin and qualitySource
MOF-based PSC charge collection probability at maximum powerMarked as a best value within this paper95.2%Text
Exact Reported
p005 / article p.3366 · Main text · Figure 4b
NiOx-based PSC charge collection probability at maximum power90.3%Text
Exact Reported
p005 / article p.3366 · Main text · Figure 4b
MOF device retained PCE after 300 h light soakingMarked as a best value within this paper85% of original PCE after 300 hText
Rounded Reported
p004 / article p.3365 · Main text · Figure S12
NiOx device retained PCE after 300 h light soaking65% of original PCE after 300 hText
Rounded Reported
p004 / article p.3365 · Main text · Figure S12
MOF-based perovskite trap densityMarked as a best value within this paper2.9 x 10^15 cm-3Text
Exact Reported
p005 / article p.3366 · Main text · Figure 4d
NiOx-control perovskite trap density3.3 x 10^15 cm-3Text
Exact Reported
p005 / article p.3366 · Main text · Figure 4d
MOF device VTFLMarked as a best value within this paper0.19 VText
Exact Reported
p005 / article p.3366 · Main text · Figure 4d