Patent
US 9,666,864copper substrate
Cu
nickel substrate
Ni
silicon-based material
iron oxide
FeO
nickel oxide
NiO
tin
Sn
germanium
Ge
titanate
TiO₂
lithium-based electrolyte
nanosheet interlayer spacing | — | vertically oriented graphene |
individual nanosheet atomic layer count | 1–10 | vertically oriented graphene |
theoretical capacity of silicon anode | — | Si |
theoretical capacity of graphite anode | — | — |
Thickness | 50–400 nm | — |
Thickness | 20–100 nm | — |
SYSTEMS AND METHODS FOR TRANSFERRING GRAPHENE
copper substrate
Cu
nickel substrate
Ni
silicon-based material
iron oxide
FeO
nickel oxide
NiO
tin
Sn
germanium
Ge
titanate
TiO₂
lithium-based electrolyte
nanosheet interlayer spacing | — | vertically oriented graphene |
individual nanosheet atomic layer count | 1–10 | vertically oriented graphene |
theoretical capacity of silicon anode | — | Si |
theoretical capacity of graphite anode | — | — |
Thickness | 50–400 nm | — |
Thickness | 20–100 nm | — |
SYSTEMS AND METHODS FOR TRANSFERRING GRAPHENE
copper substrate
Cu
nickel substrate
Ni
silicon-based material
iron oxide
FeO
nickel oxide
NiO
tin
Sn
germanium
Ge
titanate
TiO₂
lithium-based electrolyte
nanosheet interlayer spacing | — | vertically oriented graphene |
individual nanosheet atomic layer count | 1–10 | vertically oriented graphene |
theoretical capacity of silicon anode | — | Si |
theoretical capacity of graphite anode | — | — |
Thickness | 50–400 nm | — |
Thickness | 20–100 nm | — |
SYSTEMS AND METHODS FOR TRANSFERRING GRAPHENE
copper substrate
Cu
nickel substrate
Ni
silicon-based material
iron oxide
FeO
nickel oxide
NiO
tin
Sn
germanium
Ge
titanate
TiO₂
lithium-based electrolyte
nanosheet interlayer spacing | — | vertically oriented graphene |
individual nanosheet atomic layer count | 1–10 | vertically oriented graphene |
theoretical capacity of silicon anode | — | Si |
theoretical capacity of graphite anode | — | — |
Thickness | 50–400 nm | — |
Thickness | 20–100 nm | — |
SYSTEMS AND METHODS FOR TRANSFERRING GRAPHENE