Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
3 preparations6 characterizations8 properties1 figure
2 characterizations1 figure
3 preparations5 characterizations5 properties2 figures
3 preparations5 characterizations5 properties2 figures
3 preparations5 characterizations5 properties2 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Raman Peak | D band | 1410cm⁻¹ | — | |||
| Raman Peak | G band | 1530cm⁻¹ | — | |||
| Raman Intensity Ratio | I(D)/I(G) | 0.84 | — | |||
| Ir Band Position | C-NH bending | 1376cm⁻¹ | — | — | ||
| Ir Band Position | C-N stretching | 1226cm⁻¹ | — | — | ||
| Ir Band Position | quinoid ring stretch | 1572cm⁻¹ | — | |||
| Ir Band Position | benzenoid ring stretch | 1492cm⁻¹ | — | |||
| Ir Band Position | C-N secondary aromatic amines stretch | 1300cm⁻¹ | — | |||
| Ir Band Position | C=N stretch | 1238cm⁻¹ | — | |||
| Ir Band Position | polaron absorption peak | 1110cm⁻¹ | — | |||
| Raman Peak | D band | 1410cm⁻¹ | — | |||
| Raman Peak | G band | 1530cm⁻¹ | — | |||
| Substrate Thickness | interlayer spacing | 0.32nm | — |
Related documents with shared materials, methods, properties, or citations.
Three-Stage Synthesis of a Cobalt-Embedded Graphene-like Carbon Framework with Long-Range Atomic Order
All-water supercapacitor enabled by 1-nm clay channels
Graphene/Metal or Metalloid Core-Shell Composite and Manufacturing Method Thereof
Functionally Graded All-Graphene Based Free-Standing Materials, Methods of Making and Uses Thereof
Mobility of single vacancies and adatoms in graphene at room temperature
METAL-CONTAINING GRAPHENE HYBRID COMPOSITE, AND PREPARING METHOD OF THE SAME
THREE-DIMENSIONAL (3D) PRINTING OF GRAPHENE MATERIALS
PRODUCTION OF GRAPHENE AND GRAPHANE
GRAPHENE OXIDE AND METHOD OF PRODUCTION THEREOF
Discovery of Graphene Sheets and C-Rich Micro-Oval structure in Stingless Bee Hive; Leading to an Emergent Material with Debut of Blue Emission
Water Aging Effects on Graphene Nanoplatelets and Multi-walled Carbon Nanotube Reinforced Epoxy Glass Fiber Nanocomposites
METHOD FOR MANUFACTURING REDUCED GRAPHENE OXIDE USING SOLID HYDRAZINE DERIVATIVE
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
3 preparations6 characterizations8 properties1 figure
2 characterizations1 figure
3 preparations5 characterizations5 properties2 figures
3 preparations5 characterizations5 properties2 figures
3 preparations5 characterizations5 properties2 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Raman Peak | D band | 1410cm⁻¹ | — | |||
| Raman Peak | G band | 1530cm⁻¹ | — | |||
| Raman Intensity Ratio | I(D)/I(G) | 0.84 | — | |||
| Ir Band Position | C-NH bending | 1376cm⁻¹ | — | — | ||
| Ir Band Position | C-N stretching | 1226cm⁻¹ | — | — | ||
| Ir Band Position | quinoid ring stretch | 1572cm⁻¹ | — | |||
| Ir Band Position | benzenoid ring stretch | 1492cm⁻¹ | — | |||
| Ir Band Position | C-N secondary aromatic amines stretch | 1300cm⁻¹ | — | |||
| Ir Band Position | C=N stretch | 1238cm⁻¹ | — | |||
| Ir Band Position | polaron absorption peak | 1110cm⁻¹ | — | |||
| Raman Peak | D band | 1410cm⁻¹ | — | |||
| Raman Peak | G band | 1530cm⁻¹ | — | |||
| Substrate Thickness | interlayer spacing | 0.32nm | — |
Related documents with shared materials, methods, properties, or citations.
Three-Stage Synthesis of a Cobalt-Embedded Graphene-like Carbon Framework with Long-Range Atomic Order
All-water supercapacitor enabled by 1-nm clay channels
Graphene/Metal or Metalloid Core-Shell Composite and Manufacturing Method Thereof
Functionally Graded All-Graphene Based Free-Standing Materials, Methods of Making and Uses Thereof
Mobility of single vacancies and adatoms in graphene at room temperature
METAL-CONTAINING GRAPHENE HYBRID COMPOSITE, AND PREPARING METHOD OF THE SAME
THREE-DIMENSIONAL (3D) PRINTING OF GRAPHENE MATERIALS
PRODUCTION OF GRAPHENE AND GRAPHANE
GRAPHENE OXIDE AND METHOD OF PRODUCTION THEREOF
Discovery of Graphene Sheets and C-Rich Micro-Oval structure in Stingless Bee Hive; Leading to an Emergent Material with Debut of Blue Emission
Water Aging Effects on Graphene Nanoplatelets and Multi-walled Carbon Nanotube Reinforced Epoxy Glass Fiber Nanocomposites
METHOD FOR MANUFACTURING REDUCED GRAPHENE OXIDE USING SOLID HYDRAZINE DERIVATIVE
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
3 preparations6 characterizations8 properties1 figure
2 characterizations1 figure
3 preparations5 characterizations5 properties2 figures
3 preparations5 characterizations5 properties2 figures
3 preparations5 characterizations5 properties2 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Raman Peak | D band | 1410cm⁻¹ | — | |||
| Raman Peak | G band | 1530cm⁻¹ | — | |||
| Raman Intensity Ratio | I(D)/I(G) | 0.84 | — | |||
| Ir Band Position | C-NH bending | 1376cm⁻¹ | — | — | ||
| Ir Band Position | C-N stretching | 1226cm⁻¹ | — | — | ||
| Ir Band Position | quinoid ring stretch | 1572cm⁻¹ | — | |||
| Ir Band Position | benzenoid ring stretch | 1492cm⁻¹ | — | |||
| Ir Band Position | C-N secondary aromatic amines stretch | 1300cm⁻¹ | — | |||
| Ir Band Position | C=N stretch | 1238cm⁻¹ | — | |||
| Ir Band Position | polaron absorption peak | 1110cm⁻¹ | — | |||
| Raman Peak | D band | 1410cm⁻¹ | — | |||
| Raman Peak | G band | 1530cm⁻¹ | — | |||
| Substrate Thickness | interlayer spacing | 0.32nm | — |
Related documents with shared materials, methods, properties, or citations.
Three-Stage Synthesis of a Cobalt-Embedded Graphene-like Carbon Framework with Long-Range Atomic Order
All-water supercapacitor enabled by 1-nm clay channels
Graphene/Metal or Metalloid Core-Shell Composite and Manufacturing Method Thereof
Functionally Graded All-Graphene Based Free-Standing Materials, Methods of Making and Uses Thereof
Mobility of single vacancies and adatoms in graphene at room temperature
METAL-CONTAINING GRAPHENE HYBRID COMPOSITE, AND PREPARING METHOD OF THE SAME
THREE-DIMENSIONAL (3D) PRINTING OF GRAPHENE MATERIALS
PRODUCTION OF GRAPHENE AND GRAPHANE
GRAPHENE OXIDE AND METHOD OF PRODUCTION THEREOF
Discovery of Graphene Sheets and C-Rich Micro-Oval structure in Stingless Bee Hive; Leading to an Emergent Material with Debut of Blue Emission
Water Aging Effects on Graphene Nanoplatelets and Multi-walled Carbon Nanotube Reinforced Epoxy Glass Fiber Nanocomposites
METHOD FOR MANUFACTURING REDUCED GRAPHENE OXIDE USING SOLID HYDRAZINE DERIVATIVE
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
3 preparations6 characterizations8 properties1 figure
2 characterizations1 figure
3 preparations5 characterizations5 properties2 figures
3 preparations5 characterizations5 properties2 figures
3 preparations5 characterizations5 properties2 figures
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Raman Peak | D band | 1410cm⁻¹ | — | |||
| Raman Peak | G band | 1530cm⁻¹ | — | |||
| Raman Intensity Ratio | I(D)/I(G) | 0.84 | — | |||
| Ir Band Position | C-NH bending | 1376cm⁻¹ | — | — | ||
| Ir Band Position | C-N stretching | 1226cm⁻¹ | — | — | ||
| Ir Band Position | quinoid ring stretch | 1572cm⁻¹ | — | |||
| Ir Band Position | benzenoid ring stretch | 1492cm⁻¹ | — | |||
| Ir Band Position | C-N secondary aromatic amines stretch | 1300cm⁻¹ | — | |||
| Ir Band Position | C=N stretch | 1238cm⁻¹ | — | |||
| Ir Band Position | polaron absorption peak | 1110cm⁻¹ | — | |||
| Raman Peak | D band | 1410cm⁻¹ | — | |||
| Raman Peak | G band | 1530cm⁻¹ | — | |||
| Substrate Thickness | interlayer spacing | 0.32nm | — |
Related documents with shared materials, methods, properties, or citations.
Three-Stage Synthesis of a Cobalt-Embedded Graphene-like Carbon Framework with Long-Range Atomic Order
All-water supercapacitor enabled by 1-nm clay channels
Graphene/Metal or Metalloid Core-Shell Composite and Manufacturing Method Thereof
Functionally Graded All-Graphene Based Free-Standing Materials, Methods of Making and Uses Thereof
Mobility of single vacancies and adatoms in graphene at room temperature
METAL-CONTAINING GRAPHENE HYBRID COMPOSITE, AND PREPARING METHOD OF THE SAME
THREE-DIMENSIONAL (3D) PRINTING OF GRAPHENE MATERIALS
PRODUCTION OF GRAPHENE AND GRAPHANE
GRAPHENE OXIDE AND METHOD OF PRODUCTION THEREOF
Discovery of Graphene Sheets and C-Rich Micro-Oval structure in Stingless Bee Hive; Leading to an Emergent Material with Debut of Blue Emission
Water Aging Effects on Graphene Nanoplatelets and Multi-walled Carbon Nanotube Reinforced Epoxy Glass Fiber Nanocomposites
METHOD FOR MANUFACTURING REDUCED GRAPHENE OXIDE USING SOLID HYDRAZINE DERIVATIVE
