Patent
oxidizing agent (permanganate or peroxodisulfate)
concentrated sulfuric acid
H₂SO₄
surfactant
carbon nanotube
carbon nanofiber
carbon fiber
carbon nanohorn
graphite
fullerene
graphene-containing substance (reduced graphene oxide)
friction material
conductive fiber
carbon fiber (from graphene oxide sheet and polyacrylonitrile)
high-strength lightweight metal material
FIG. 4 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 5 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 6 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 7 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis. …
FIG. 8 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 9 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 10 is anatomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 11 PCT/JP₂ 00 9/07118 7 46 illustrates a transmission electron micrograph of the graphene oxide sheet thus obtained. [0129] (Example 3: Friction material …
FIG. 12 illustrates a photograph of the conductive paper. The electrical resistance of the obtained graphene sheet-impregnated paper was 10 x 10 3 2/. The …
oxidizing agent (permanganate or peroxodisulfate)
concentrated sulfuric acid
H₂SO₄
surfactant
carbon nanotube
carbon nanofiber
carbon fiber
carbon nanohorn
graphite
fullerene
graphene-containing substance (reduced graphene oxide)
friction material
conductive fiber
carbon fiber (from graphene oxide sheet and polyacrylonitrile)
high-strength lightweight metal material
FIG. 4 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 5 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 6 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 7 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis. …
FIG. 8 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 9 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 10 is anatomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 11 PCT/JP₂ 00 9/07118 7 46 illustrates a transmission electron micrograph of the graphene oxide sheet thus obtained. [0129] (Example 3: Friction material …
FIG. 12 illustrates a photograph of the conductive paper. The electrical resistance of the obtained graphene sheet-impregnated paper was 10 x 10 3 2/. The …
oxidizing agent (permanganate or peroxodisulfate)
concentrated sulfuric acid
H₂SO₄
surfactant
carbon nanotube
carbon nanofiber
carbon fiber
carbon nanohorn
graphite
fullerene
graphene-containing substance (reduced graphene oxide)
friction material
conductive fiber
carbon fiber (from graphene oxide sheet and polyacrylonitrile)
high-strength lightweight metal material
FIG. 4 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 5 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 6 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 7 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis. …
FIG. 8 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 9 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 10 is anatomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 11 PCT/JP₂ 00 9/07118 7 46 illustrates a transmission electron micrograph of the graphene oxide sheet thus obtained. [0129] (Example 3: Friction material …
FIG. 12 illustrates a photograph of the conductive paper. The electrical resistance of the obtained graphene sheet-impregnated paper was 10 x 10 3 2/. The …
oxidizing agent (permanganate or peroxodisulfate)
concentrated sulfuric acid
H₂SO₄
surfactant
carbon nanotube
carbon nanofiber
carbon fiber
carbon nanohorn
graphite
fullerene
graphene-containing substance (reduced graphene oxide)
friction material
conductive fiber
carbon fiber (from graphene oxide sheet and polyacrylonitrile)
high-strength lightweight metal material
FIG. 4 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 5 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 6 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 7 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis. …
FIG. 8 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 9 is an atomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 10 is anatomic force micrograph of the graphene oxide sheet according to the invention, and a diagram illustrating the results of a shape analysis.
FIG. 11 PCT/JP₂ 00 9/07118 7 46 illustrates a transmission electron micrograph of the graphene oxide sheet thus obtained. [0129] (Example 3: Friction material …
FIG. 12 illustrates a photograph of the conductive paper. The electrical resistance of the obtained graphene sheet-impregnated paper was 10 x 10 3 2/. The …