Patent
US 10,665,893ANODE MATERIAL INCLUDING GRAPHITE PHASE CARBON MATERIAL AND FUNCTIONALIZED GRAPHENE, METHOD THEREOF, AND LITHIUM ION BATTERY
Mingdong ZHANG
US
Copyright © 2026 Matter42. All rights reserved.
Claims define the patent's legal scope. Independent claims stand alone; dependent claims (nested) narrow them. Click a claim to expand its dependents.
(Withdrawn-Currently Amended) A method for preparing a lithium ion battery anode material, comprising: compounding a graphite phase carbon material and functionalized graphene by a liquid phase compounding method or a solid phase compounding method, to obtain a lithium ion ba tt ery composite material, wherein the lithium ion batter y anode material, comprisin g: the graphite phase carbon material and the functionalized graphene; wherein the functionalized graphene comprises one or more selected from the group consisting of carbox y lated graphene, thiolated graphene, methylated graphene, trifluorometh y lated graphene, octadec y lated graphene, fluorinated graphene and graphene iodide; and the graphite phase carbon material comprises one or more selected from the group consisting of artificial graphite, natural graphite, graphitized mesocarbon microbeads, graphitized carbon nanotubes, wherein natural graphite is earthy graphite. Currently amended
The method according to claim 1, wherein compounding the graphite phase carbon material and the functionalized graphene is performed by the liquid phase compounding method, and further comprises the following steps: Si, dispersing the functionalized graphene in a solvent to obtain a first dispersion; S 2, adding the graphite phase carbon material to the first dispersion liquid and uniformly mixing, to obtain a second dispersion; S3, drying the second dispersion to obtain the lithium ion battery anode material. Withdrawn
The method according to claim 1, wherein compounding the graphite phase carbon material and the functionalized graphene is performed by the solid phase compounding method, and comprises the following steps: mixing the graphite carbon material and functionalized graphene to get dry-powder- mixture; grinding the dry-powder-mixture by low-energy can grinding to obtain the lithium ion battery anode material. Withdrawn
A lithium ion battery anode material, comprising: a graphite phase carbon material and a functionalized graphene; wherein the functionalized graphene comprises one or more selected from the group consisting of, carboxylated graphene,, thiolated graphene, methylated graphene, trifluoromethylated graphene, octadecylated graphene, fluorinated graphene and graphene iodide; and [[/or,]] the graphite phase carbon material comprises one or more selected from the group consisting of artificial graphite, natural graphite, graphitized mesocarbon microbeads, graphitized carbon nanotubes, wherein natural graphite is earthy graphite. Currently amended
The lithium ion battery anode material according to claim 9, wherein a mass percentage of the functionalized graphene is 0.01 0% to 99 %. Previously presented
The lithium ion battery anode material according to claim 9, wherein a mass percentage of functionalized graphene is 0. 1% -10%, 45 % -65% or 90 % -99%. Previously presented
The lithium ion battery anode material according to claim 9, wherein the graphite phase carbon material has a particle size of 20 m to 45 m, the functionalized graphene has a particle size of 10 p m to 20 m; or, the graphite phase carbon material has a particle size of 10p m to 20 m, the functionalized graphene has a particle size of 20 m to 30 pm. Previously presented
A lithium ion battery, comprising the lithium ion battery anode material of claim 9. Currently amended
The lithium ion battery anode material according to claim 9, wherein the particle size of the graphite phase carbon material is larger than the particle size of the functionalized graphene, and the particle size of the graphite phase carbon material is divided into multiple phases wherein a first graphite carbon material with the particle diameter of 20 micrometer to 30 micrometer, and a second graphite phase carbon material with a diameter of 30 micrometer to 45 micrometer. Previously presented
Canceled
Canceled
Layer stacks claimed or described, ordered top of device to substrate.
lithium ion battery anode material
lithium ion battery
Materials described outside the worked examples.
functionalized graphene
graphite phase carbon material
carboxylated graphene
thiolated graphene
methylated graphene
trifluoromethylated graphene
octadecylated graphene
fluorinated graphene
graphene iodide
artificial graphite
natural graphite (earthy graphite)
graphitized mesocarbon microbeads
graphitized carbon nanotubes
water
H₂O
tetrahydrofuran
C₄H₈O
N,N-dimethylformamide
C₃H₇NO
N-methylpyrrolidone
C₅H₉NO
dichloromethane
CH₂Cl₂
ethanol
C₂H₅OH
n-hexane
C₆H₁₄
aminated graphene
hydroxylated graphene
graphene oxide
Additional fabrication and treatment steps described in the patent.
Performance values and ranges asserted in the specification or claims.
| Property | Value | Material |
|---|---|---|
Initial Specific Capacity | 1500 mAh/g | functionalized graphenegraphite phase carbon material |
Initial Coulombic Efficiency | 95 % | functionalized graphenegraphite phase carbon material |
Capacity Retention After Cycling | — | functionalized graphenegraphite phase carbon material |
Thickness | 20–30 µm | — |
Thickness | 30–45 µm | — |
Related documents with shared materials, methods, properties, or citations.
METHOD FOR FORMING A REDUCED GRAPHENE OXIDE/METAL SULFIDE COMPOSITE AND ITS USE AS AN ANODE FOR BATTERIES
Graphene-Based Electrode for a Supercapacitor
LITHIUM-ION SUPERCAPACITOR USING GRAPHENE-CNT COMPOSITE ELECTRODE AND METHOD FOR MANUFACTURING THE SAME
COMPOSITE ANODE MATERIAL INCLUDING PARTICLES HAVING BUFFERED SILICON-CONTAINING CORE AND GRAPHENE-CONTAINING SHELL
TiO2-GRAPHENE-SILVER HYBRID NANOCOMPOSITE AND A METHOD OF PREPARATION THEREOF
PROCESS FOR ENCAPSULATING METALS AND METAL OXIDES WITH GRAPHENE AND THE USE OF THESE MATERIALS
SELF-ASSEMBLED COMPOSITE OF CARBON NITRIDE AND GRAPHENE OXIDE, MANUFACTURING METHOD FOR SAME, POSITIVE ELECTRODE HAVING SAME APPLIED THERETO, AND LITHIUM-SULFUR BATTERY COMPRISING SAME
ALIGNED GRAPHENE-CARBON NANOTUBE POROUS CARBON COMPOSITE
SELF-ASSEMBLED COMPOSITE OF GRAPHENE OXIDE AND TETRAVALENT VANADIUM OXOHYDROXIDE
GRAPHENE SUPERCAPACITOR DESIGN AND MANUFACTURE
GRAPHENE POWDER, ELECTRODE PASTE FOR LITHIUM ION BATTERY AND ELECTRODE FOR LITHIUM ION BATTERY
POSITIVE ELECTRODE FOR LITHIUM ION SECONDARY BATTERY, GRAPHENE/POSITIVE ELECTRODE ACTIVE MATERIAL COMPOSITE PARTICLES, MANUFACTURING METHODS FOR SAME, AND POSITIVE ELECTRODE PASTE FOR LITHIUM ION SECONDARY BATTERY
Claims define the patent's legal scope. Independent claims stand alone; dependent claims (nested) narrow them. Click a claim to expand its dependents.
(Withdrawn-Currently Amended) A method for preparing a lithium ion battery anode material, comprising: compounding a graphite phase carbon material and functionalized graphene by a liquid phase compounding method or a solid phase compounding method, to obtain a lithium ion ba tt ery composite material, wherein the lithium ion batter y anode material, comprisin g: the graphite phase carbon material and the functionalized graphene; wherein the functionalized graphene comprises one or more selected from the group consisting of carbox y lated graphene, thiolated graphene, methylated graphene, trifluorometh y lated graphene, octadec y lated graphene, fluorinated graphene and graphene iodide; and the graphite phase carbon material comprises one or more selected from the group consisting of artificial graphite, natural graphite, graphitized mesocarbon microbeads, graphitized carbon nanotubes, wherein natural graphite is earthy graphite. Currently amended
The method according to claim 1, wherein compounding the graphite phase carbon material and the functionalized graphene is performed by the liquid phase compounding method, and further comprises the following steps: Si, dispersing the functionalized graphene in a solvent to obtain a first dispersion; S 2, adding the graphite phase carbon material to the first dispersion liquid and uniformly mixing, to obtain a second dispersion; S3, drying the second dispersion to obtain the lithium ion battery anode material. Withdrawn
The method according to claim 1, wherein compounding the graphite phase carbon material and the functionalized graphene is performed by the solid phase compounding method, and comprises the following steps: mixing the graphite carbon material and functionalized graphene to get dry-powder- mixture; grinding the dry-powder-mixture by low-energy can grinding to obtain the lithium ion battery anode material. Withdrawn
A lithium ion battery anode material, comprising: a graphite phase carbon material and a functionalized graphene; wherein the functionalized graphene comprises one or more selected from the group consisting of, carboxylated graphene,, thiolated graphene, methylated graphene, trifluoromethylated graphene, octadecylated graphene, fluorinated graphene and graphene iodide; and [[/or,]] the graphite phase carbon material comprises one or more selected from the group consisting of artificial graphite, natural graphite, graphitized mesocarbon microbeads, graphitized carbon nanotubes, wherein natural graphite is earthy graphite. Currently amended
The lithium ion battery anode material according to claim 9, wherein a mass percentage of the functionalized graphene is 0.01 0% to 99 %. Previously presented
The lithium ion battery anode material according to claim 9, wherein a mass percentage of functionalized graphene is 0. 1% -10%, 45 % -65% or 90 % -99%. Previously presented
The lithium ion battery anode material according to claim 9, wherein the graphite phase carbon material has a particle size of 20 m to 45 m, the functionalized graphene has a particle size of 10 p m to 20 m; or, the graphite phase carbon material has a particle size of 10p m to 20 m, the functionalized graphene has a particle size of 20 m to 30 pm. Previously presented
A lithium ion battery, comprising the lithium ion battery anode material of claim 9. Currently amended
The lithium ion battery anode material according to claim 9, wherein the particle size of the graphite phase carbon material is larger than the particle size of the functionalized graphene, and the particle size of the graphite phase carbon material is divided into multiple phases wherein a first graphite carbon material with the particle diameter of 20 micrometer to 30 micrometer, and a second graphite phase carbon material with a diameter of 30 micrometer to 45 micrometer. Previously presented
Canceled
Canceled
Layer stacks claimed or described, ordered top of device to substrate.
lithium ion battery anode material
lithium ion battery
Materials described outside the worked examples.
functionalized graphene
graphite phase carbon material
carboxylated graphene
thiolated graphene
methylated graphene
trifluoromethylated graphene
octadecylated graphene
fluorinated graphene
graphene iodide
artificial graphite
natural graphite (earthy graphite)
graphitized mesocarbon microbeads
graphitized carbon nanotubes
water
H₂O
tetrahydrofuran
C₄H₈O
N,N-dimethylformamide
C₃H₇NO
N-methylpyrrolidone
C₅H₉NO
dichloromethane
CH₂Cl₂
ethanol
C₂H₅OH
n-hexane
C₆H₁₄
aminated graphene
hydroxylated graphene
graphene oxide
Additional fabrication and treatment steps described in the patent.
Performance values and ranges asserted in the specification or claims.
| Property | Value | Material |
|---|---|---|
Initial Specific Capacity | 1500 mAh/g | functionalized graphenegraphite phase carbon material |
Initial Coulombic Efficiency | 95 % | functionalized graphenegraphite phase carbon material |
Capacity Retention After Cycling | — | functionalized graphenegraphite phase carbon material |
Thickness | 20–30 µm | — |
Thickness | 30–45 µm | — |
Related documents with shared materials, methods, properties, or citations.
METHOD FOR FORMING A REDUCED GRAPHENE OXIDE/METAL SULFIDE COMPOSITE AND ITS USE AS AN ANODE FOR BATTERIES
Graphene-Based Electrode for a Supercapacitor
LITHIUM-ION SUPERCAPACITOR USING GRAPHENE-CNT COMPOSITE ELECTRODE AND METHOD FOR MANUFACTURING THE SAME
COMPOSITE ANODE MATERIAL INCLUDING PARTICLES HAVING BUFFERED SILICON-CONTAINING CORE AND GRAPHENE-CONTAINING SHELL
TiO2-GRAPHENE-SILVER HYBRID NANOCOMPOSITE AND A METHOD OF PREPARATION THEREOF
PROCESS FOR ENCAPSULATING METALS AND METAL OXIDES WITH GRAPHENE AND THE USE OF THESE MATERIALS
SELF-ASSEMBLED COMPOSITE OF CARBON NITRIDE AND GRAPHENE OXIDE, MANUFACTURING METHOD FOR SAME, POSITIVE ELECTRODE HAVING SAME APPLIED THERETO, AND LITHIUM-SULFUR BATTERY COMPRISING SAME
ALIGNED GRAPHENE-CARBON NANOTUBE POROUS CARBON COMPOSITE
SELF-ASSEMBLED COMPOSITE OF GRAPHENE OXIDE AND TETRAVALENT VANADIUM OXOHYDROXIDE
GRAPHENE SUPERCAPACITOR DESIGN AND MANUFACTURE
GRAPHENE POWDER, ELECTRODE PASTE FOR LITHIUM ION BATTERY AND ELECTRODE FOR LITHIUM ION BATTERY
POSITIVE ELECTRODE FOR LITHIUM ION SECONDARY BATTERY, GRAPHENE/POSITIVE ELECTRODE ACTIVE MATERIAL COMPOSITE PARTICLES, MANUFACTURING METHODS FOR SAME, AND POSITIVE ELECTRODE PASTE FOR LITHIUM ION SECONDARY BATTERY
Claims define the patent's legal scope. Independent claims stand alone; dependent claims (nested) narrow them. Click a claim to expand its dependents.
(Withdrawn-Currently Amended) A method for preparing a lithium ion battery anode material, comprising: compounding a graphite phase carbon material and functionalized graphene by a liquid phase compounding method or a solid phase compounding method, to obtain a lithium ion ba tt ery composite material, wherein the lithium ion batter y anode material, comprisin g: the graphite phase carbon material and the functionalized graphene; wherein the functionalized graphene comprises one or more selected from the group consisting of carbox y lated graphene, thiolated graphene, methylated graphene, trifluorometh y lated graphene, octadec y lated graphene, fluorinated graphene and graphene iodide; and the graphite phase carbon material comprises one or more selected from the group consisting of artificial graphite, natural graphite, graphitized mesocarbon microbeads, graphitized carbon nanotubes, wherein natural graphite is earthy graphite. Currently amended
The method according to claim 1, wherein compounding the graphite phase carbon material and the functionalized graphene is performed by the liquid phase compounding method, and further comprises the following steps: Si, dispersing the functionalized graphene in a solvent to obtain a first dispersion; S 2, adding the graphite phase carbon material to the first dispersion liquid and uniformly mixing, to obtain a second dispersion; S3, drying the second dispersion to obtain the lithium ion battery anode material. Withdrawn
The method according to claim 1, wherein compounding the graphite phase carbon material and the functionalized graphene is performed by the solid phase compounding method, and comprises the following steps: mixing the graphite carbon material and functionalized graphene to get dry-powder- mixture; grinding the dry-powder-mixture by low-energy can grinding to obtain the lithium ion battery anode material. Withdrawn
A lithium ion battery anode material, comprising: a graphite phase carbon material and a functionalized graphene; wherein the functionalized graphene comprises one or more selected from the group consisting of, carboxylated graphene,, thiolated graphene, methylated graphene, trifluoromethylated graphene, octadecylated graphene, fluorinated graphene and graphene iodide; and [[/or,]] the graphite phase carbon material comprises one or more selected from the group consisting of artificial graphite, natural graphite, graphitized mesocarbon microbeads, graphitized carbon nanotubes, wherein natural graphite is earthy graphite. Currently amended
The lithium ion battery anode material according to claim 9, wherein a mass percentage of the functionalized graphene is 0.01 0% to 99 %. Previously presented
The lithium ion battery anode material according to claim 9, wherein a mass percentage of functionalized graphene is 0. 1% -10%, 45 % -65% or 90 % -99%. Previously presented
The lithium ion battery anode material according to claim 9, wherein the graphite phase carbon material has a particle size of 20 m to 45 m, the functionalized graphene has a particle size of 10 p m to 20 m; or, the graphite phase carbon material has a particle size of 10p m to 20 m, the functionalized graphene has a particle size of 20 m to 30 pm. Previously presented
A lithium ion battery, comprising the lithium ion battery anode material of claim 9. Currently amended
The lithium ion battery anode material according to claim 9, wherein the particle size of the graphite phase carbon material is larger than the particle size of the functionalized graphene, and the particle size of the graphite phase carbon material is divided into multiple phases wherein a first graphite carbon material with the particle diameter of 20 micrometer to 30 micrometer, and a second graphite phase carbon material with a diameter of 30 micrometer to 45 micrometer. Previously presented
Canceled
Canceled
Layer stacks claimed or described, ordered top of device to substrate.
lithium ion battery anode material
lithium ion battery
Materials described outside the worked examples.
functionalized graphene
graphite phase carbon material
carboxylated graphene
thiolated graphene
methylated graphene
trifluoromethylated graphene
octadecylated graphene
fluorinated graphene
graphene iodide
artificial graphite
natural graphite (earthy graphite)
graphitized mesocarbon microbeads
graphitized carbon nanotubes
water
H₂O
tetrahydrofuran
C₄H₈O
N,N-dimethylformamide
C₃H₇NO
N-methylpyrrolidone
C₅H₉NO
dichloromethane
CH₂Cl₂
ethanol
C₂H₅OH
n-hexane
C₆H₁₄
aminated graphene
hydroxylated graphene
graphene oxide
Additional fabrication and treatment steps described in the patent.
Performance values and ranges asserted in the specification or claims.
| Property | Value | Material |
|---|---|---|
Initial Specific Capacity | 1500 mAh/g | functionalized graphenegraphite phase carbon material |
Initial Coulombic Efficiency | 95 % | functionalized graphenegraphite phase carbon material |
Capacity Retention After Cycling | — | functionalized graphenegraphite phase carbon material |
Thickness | 20–30 µm | — |
Thickness | 30–45 µm | — |
Related documents with shared materials, methods, properties, or citations.
METHOD FOR FORMING A REDUCED GRAPHENE OXIDE/METAL SULFIDE COMPOSITE AND ITS USE AS AN ANODE FOR BATTERIES
Graphene-Based Electrode for a Supercapacitor
LITHIUM-ION SUPERCAPACITOR USING GRAPHENE-CNT COMPOSITE ELECTRODE AND METHOD FOR MANUFACTURING THE SAME
COMPOSITE ANODE MATERIAL INCLUDING PARTICLES HAVING BUFFERED SILICON-CONTAINING CORE AND GRAPHENE-CONTAINING SHELL
TiO2-GRAPHENE-SILVER HYBRID NANOCOMPOSITE AND A METHOD OF PREPARATION THEREOF
PROCESS FOR ENCAPSULATING METALS AND METAL OXIDES WITH GRAPHENE AND THE USE OF THESE MATERIALS
SELF-ASSEMBLED COMPOSITE OF CARBON NITRIDE AND GRAPHENE OXIDE, MANUFACTURING METHOD FOR SAME, POSITIVE ELECTRODE HAVING SAME APPLIED THERETO, AND LITHIUM-SULFUR BATTERY COMPRISING SAME
ALIGNED GRAPHENE-CARBON NANOTUBE POROUS CARBON COMPOSITE
SELF-ASSEMBLED COMPOSITE OF GRAPHENE OXIDE AND TETRAVALENT VANADIUM OXOHYDROXIDE
GRAPHENE SUPERCAPACITOR DESIGN AND MANUFACTURE
GRAPHENE POWDER, ELECTRODE PASTE FOR LITHIUM ION BATTERY AND ELECTRODE FOR LITHIUM ION BATTERY
POSITIVE ELECTRODE FOR LITHIUM ION SECONDARY BATTERY, GRAPHENE/POSITIVE ELECTRODE ACTIVE MATERIAL COMPOSITE PARTICLES, MANUFACTURING METHODS FOR SAME, AND POSITIVE ELECTRODE PASTE FOR LITHIUM ION SECONDARY BATTERY
Claims define the patent's legal scope. Independent claims stand alone; dependent claims (nested) narrow them. Click a claim to expand its dependents.
(Withdrawn-Currently Amended) A method for preparing a lithium ion battery anode material, comprising: compounding a graphite phase carbon material and functionalized graphene by a liquid phase compounding method or a solid phase compounding method, to obtain a lithium ion ba tt ery composite material, wherein the lithium ion batter y anode material, comprisin g: the graphite phase carbon material and the functionalized graphene; wherein the functionalized graphene comprises one or more selected from the group consisting of carbox y lated graphene, thiolated graphene, methylated graphene, trifluorometh y lated graphene, octadec y lated graphene, fluorinated graphene and graphene iodide; and the graphite phase carbon material comprises one or more selected from the group consisting of artificial graphite, natural graphite, graphitized mesocarbon microbeads, graphitized carbon nanotubes, wherein natural graphite is earthy graphite. Currently amended
The method according to claim 1, wherein compounding the graphite phase carbon material and the functionalized graphene is performed by the liquid phase compounding method, and further comprises the following steps: Si, dispersing the functionalized graphene in a solvent to obtain a first dispersion; S 2, adding the graphite phase carbon material to the first dispersion liquid and uniformly mixing, to obtain a second dispersion; S3, drying the second dispersion to obtain the lithium ion battery anode material. Withdrawn
The method according to claim 1, wherein compounding the graphite phase carbon material and the functionalized graphene is performed by the solid phase compounding method, and comprises the following steps: mixing the graphite carbon material and functionalized graphene to get dry-powder- mixture; grinding the dry-powder-mixture by low-energy can grinding to obtain the lithium ion battery anode material. Withdrawn
A lithium ion battery anode material, comprising: a graphite phase carbon material and a functionalized graphene; wherein the functionalized graphene comprises one or more selected from the group consisting of, carboxylated graphene,, thiolated graphene, methylated graphene, trifluoromethylated graphene, octadecylated graphene, fluorinated graphene and graphene iodide; and [[/or,]] the graphite phase carbon material comprises one or more selected from the group consisting of artificial graphite, natural graphite, graphitized mesocarbon microbeads, graphitized carbon nanotubes, wherein natural graphite is earthy graphite. Currently amended
The lithium ion battery anode material according to claim 9, wherein a mass percentage of the functionalized graphene is 0.01 0% to 99 %. Previously presented
The lithium ion battery anode material according to claim 9, wherein a mass percentage of functionalized graphene is 0. 1% -10%, 45 % -65% or 90 % -99%. Previously presented
The lithium ion battery anode material according to claim 9, wherein the graphite phase carbon material has a particle size of 20 m to 45 m, the functionalized graphene has a particle size of 10 p m to 20 m; or, the graphite phase carbon material has a particle size of 10p m to 20 m, the functionalized graphene has a particle size of 20 m to 30 pm. Previously presented
A lithium ion battery, comprising the lithium ion battery anode material of claim 9. Currently amended
The lithium ion battery anode material according to claim 9, wherein the particle size of the graphite phase carbon material is larger than the particle size of the functionalized graphene, and the particle size of the graphite phase carbon material is divided into multiple phases wherein a first graphite carbon material with the particle diameter of 20 micrometer to 30 micrometer, and a second graphite phase carbon material with a diameter of 30 micrometer to 45 micrometer. Previously presented
Canceled
Canceled
Layer stacks claimed or described, ordered top of device to substrate.
lithium ion battery anode material
lithium ion battery
Materials described outside the worked examples.
functionalized graphene
graphite phase carbon material
carboxylated graphene
thiolated graphene
methylated graphene
trifluoromethylated graphene
octadecylated graphene
fluorinated graphene
graphene iodide
artificial graphite
natural graphite (earthy graphite)
graphitized mesocarbon microbeads
graphitized carbon nanotubes
water
H₂O
tetrahydrofuran
C₄H₈O
N,N-dimethylformamide
C₃H₇NO
N-methylpyrrolidone
C₅H₉NO
dichloromethane
CH₂Cl₂
ethanol
C₂H₅OH
n-hexane
C₆H₁₄
aminated graphene
hydroxylated graphene
graphene oxide
Additional fabrication and treatment steps described in the patent.
Performance values and ranges asserted in the specification or claims.
| Property | Value | Material |
|---|---|---|
Initial Specific Capacity | 1500 mAh/g | functionalized graphenegraphite phase carbon material |
Initial Coulombic Efficiency | 95 % | functionalized graphenegraphite phase carbon material |
Capacity Retention After Cycling | — | functionalized graphenegraphite phase carbon material |
Thickness | 20–30 µm | — |
Thickness | 30–45 µm | — |
Related documents with shared materials, methods, properties, or citations.
METHOD FOR FORMING A REDUCED GRAPHENE OXIDE/METAL SULFIDE COMPOSITE AND ITS USE AS AN ANODE FOR BATTERIES
Graphene-Based Electrode for a Supercapacitor
LITHIUM-ION SUPERCAPACITOR USING GRAPHENE-CNT COMPOSITE ELECTRODE AND METHOD FOR MANUFACTURING THE SAME
COMPOSITE ANODE MATERIAL INCLUDING PARTICLES HAVING BUFFERED SILICON-CONTAINING CORE AND GRAPHENE-CONTAINING SHELL
TiO2-GRAPHENE-SILVER HYBRID NANOCOMPOSITE AND A METHOD OF PREPARATION THEREOF
PROCESS FOR ENCAPSULATING METALS AND METAL OXIDES WITH GRAPHENE AND THE USE OF THESE MATERIALS
SELF-ASSEMBLED COMPOSITE OF CARBON NITRIDE AND GRAPHENE OXIDE, MANUFACTURING METHOD FOR SAME, POSITIVE ELECTRODE HAVING SAME APPLIED THERETO, AND LITHIUM-SULFUR BATTERY COMPRISING SAME
ALIGNED GRAPHENE-CARBON NANOTUBE POROUS CARBON COMPOSITE
SELF-ASSEMBLED COMPOSITE OF GRAPHENE OXIDE AND TETRAVALENT VANADIUM OXOHYDROXIDE
GRAPHENE SUPERCAPACITOR DESIGN AND MANUFACTURE
GRAPHENE POWDER, ELECTRODE PASTE FOR LITHIUM ION BATTERY AND ELECTRODE FOR LITHIUM ION BATTERY
POSITIVE ELECTRODE FOR LITHIUM ION SECONDARY BATTERY, GRAPHENE/POSITIVE ELECTRODE ACTIVE MATERIAL COMPOSITE PARTICLES, MANUFACTURING METHODS FOR SAME, AND POSITIVE ELECTRODE PASTE FOR LITHIUM ION SECONDARY BATTERY