Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
5 preparations2 characterizations6 properties3 figures
5 preparations3 characterizations6 properties4 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Eels Optical Band Gap | optical band gap | 6.3eV | — | |||
| Eels Optical Band Gap | optical band gap | 6.2eV | — | |||
| Eels Peak | C-H stretching mode | 0.35eV | — | |||
| Xps Binding Energy | C 1s | 284.45eV | — | |||
| Xps Binding Energy Shift | C 1s | 0.54eV | — | |||
| Xps Peak Area Fraction | C 1s | 20% | — | |||
| Xps Peak Area Fraction | C 1s | 46% | — | |||
| Xps Peak Area Fraction | C 1s | 100% | — | |||
| Xps Peak Area Fraction | C 1s | 62% | — |
Related documents with shared materials, methods, properties, or citations.
A depth resolved investigation of hydrogen uptake in carbon based nanostructures by soft-to-hard photoemission spectroscopy
Revealing the (111) surface electronic structure of epitaxially grown Na2KSb photocathode
Photovoltaic Performance of a Rotationally Faulted Multilayer Graphene/n-Si Schottky Junction
Tuning nanowire lasers via hybridization with two-dimensional materials
Mass inversion at the Lifshitz transition in monolayer graphene by diffusive, high-density, on-chip, doping
COMPOSITIONS WITH SOLID FUEL LOADED ON GRAPHENE FOAMS
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Screening of the band gap in electrically biased bilayer graphene: From Hartree to Hartree-Fock
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Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
5 preparations2 characterizations6 properties3 figures
5 preparations3 characterizations6 properties4 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Eels Optical Band Gap | optical band gap | 6.3eV | — | |||
| Eels Optical Band Gap | optical band gap | 6.2eV | — | |||
| Eels Peak | C-H stretching mode | 0.35eV | — | |||
| Xps Binding Energy | C 1s | 284.45eV | — | |||
| Xps Binding Energy Shift | C 1s | 0.54eV | — | |||
| Xps Peak Area Fraction | C 1s | 20% | — | |||
| Xps Peak Area Fraction | C 1s | 46% | — | |||
| Xps Peak Area Fraction | C 1s | 100% | — | |||
| Xps Peak Area Fraction | C 1s | 62% | — |
Related documents with shared materials, methods, properties, or citations.
A depth resolved investigation of hydrogen uptake in carbon based nanostructures by soft-to-hard photoemission spectroscopy
Revealing the (111) surface electronic structure of epitaxially grown Na2KSb photocathode
Photovoltaic Performance of a Rotationally Faulted Multilayer Graphene/n-Si Schottky Junction
Tuning nanowire lasers via hybridization with two-dimensional materials
Mass inversion at the Lifshitz transition in monolayer graphene by diffusive, high-density, on-chip, doping
COMPOSITIONS WITH SOLID FUEL LOADED ON GRAPHENE FOAMS
SEMICONDUCTOR INTERCONNECT STRUCTURE HAVING A GRAPHENE-BASED BARRIER METAL LAYER
OPTICAL LITHOGRAPHY USING GRAPHENE CONTRAST ENHANCEMENT LAYER
Graphene Composite and a Method of Manufacturing a Graphene Composite
METHOD OF FORMING MULTILAYER GRAPHENE STRUCTURE
Screening of the band gap in electrically biased bilayer graphene: From Hartree to Hartree-Fock
The β-decay spectrum of Tritiated graphene: combining nuclear quantum mechanics with Density Functional Theory
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
5 preparations2 characterizations6 properties3 figures
5 preparations3 characterizations6 properties4 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Eels Optical Band Gap | optical band gap | 6.3eV | — | |||
| Eels Optical Band Gap | optical band gap | 6.2eV | — | |||
| Eels Peak | C-H stretching mode | 0.35eV | — | |||
| Xps Binding Energy | C 1s | 284.45eV | — | |||
| Xps Binding Energy Shift | C 1s | 0.54eV | — | |||
| Xps Peak Area Fraction | C 1s | 20% | — | |||
| Xps Peak Area Fraction | C 1s | 46% | — | |||
| Xps Peak Area Fraction | C 1s | 100% | — | |||
| Xps Peak Area Fraction | C 1s | 62% | — |
Related documents with shared materials, methods, properties, or citations.
A depth resolved investigation of hydrogen uptake in carbon based nanostructures by soft-to-hard photoemission spectroscopy
Revealing the (111) surface electronic structure of epitaxially grown Na2KSb photocathode
Photovoltaic Performance of a Rotationally Faulted Multilayer Graphene/n-Si Schottky Junction
Tuning nanowire lasers via hybridization with two-dimensional materials
Mass inversion at the Lifshitz transition in monolayer graphene by diffusive, high-density, on-chip, doping
COMPOSITIONS WITH SOLID FUEL LOADED ON GRAPHENE FOAMS
SEMICONDUCTOR INTERCONNECT STRUCTURE HAVING A GRAPHENE-BASED BARRIER METAL LAYER
OPTICAL LITHOGRAPHY USING GRAPHENE CONTRAST ENHANCEMENT LAYER
Graphene Composite and a Method of Manufacturing a Graphene Composite
METHOD OF FORMING MULTILAYER GRAPHENE STRUCTURE
Screening of the band gap in electrically biased bilayer graphene: From Hartree to Hartree-Fock
The β-decay spectrum of Tritiated graphene: combining nuclear quantum mechanics with Density Functional Theory
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
5 preparations2 characterizations6 properties3 figures
5 preparations3 characterizations6 properties4 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Eels Optical Band Gap | optical band gap | 6.3eV | — | |||
| Eels Optical Band Gap | optical band gap | 6.2eV | — | |||
| Eels Peak | C-H stretching mode | 0.35eV | — | |||
| Xps Binding Energy | C 1s | 284.45eV | — | |||
| Xps Binding Energy Shift | C 1s | 0.54eV | — | |||
| Xps Peak Area Fraction | C 1s | 20% | — | |||
| Xps Peak Area Fraction | C 1s | 46% | — | |||
| Xps Peak Area Fraction | C 1s | 100% | — | |||
| Xps Peak Area Fraction | C 1s | 62% | — |
Related documents with shared materials, methods, properties, or citations.
A depth resolved investigation of hydrogen uptake in carbon based nanostructures by soft-to-hard photoemission spectroscopy
Revealing the (111) surface electronic structure of epitaxially grown Na2KSb photocathode
Photovoltaic Performance of a Rotationally Faulted Multilayer Graphene/n-Si Schottky Junction
Tuning nanowire lasers via hybridization with two-dimensional materials
Mass inversion at the Lifshitz transition in monolayer graphene by diffusive, high-density, on-chip, doping
COMPOSITIONS WITH SOLID FUEL LOADED ON GRAPHENE FOAMS
SEMICONDUCTOR INTERCONNECT STRUCTURE HAVING A GRAPHENE-BASED BARRIER METAL LAYER
OPTICAL LITHOGRAPHY USING GRAPHENE CONTRAST ENHANCEMENT LAYER
Graphene Composite and a Method of Manufacturing a Graphene Composite
METHOD OF FORMING MULTILAYER GRAPHENE STRUCTURE
Screening of the band gap in electrically biased bilayer graphene: From Hartree to Hartree-Fock
The β-decay spectrum of Tritiated graphene: combining nuclear quantum mechanics with Density Functional Theory
