国家/地区 美国（37） 中国（28） 世界知识产权组织（24） 韩国（23） 欧洲专利局（EPO）（17） 日本（17） 台湾（8） 德国（4） 法国（4） 英国（4） 加拿大（3） 新加坡（3） 澳大利亚（2） 印度（2） 墨西哥（2）
IPC部 B（52）
IPC大类 C01（52）
IPC小类 C01B（52）
IPC C23C016/56（52）
发明人 CHOI J（4） LI Y（4） DUAN Y（3）
HUANG D（3） LI X（3） SHAO L（3）
SHI H（3） THOMAS S（3） ZHANG Y（3）
BEDWORTH P V（2） CHEN Q（2） CHOI J Y（2）
GLASS H（2） GONG M（2） GUINEY I（2）
公开年 2022（9） 2012（7） 2017（7） 2016（6） 2021（5） 2013（4） 2023（3） 2009（2） 2010（2） 2015（2）
申请年 2022（10）  2011（6）  2016（6）  2020（5）  2014（4）  2012（3）  2013（3）  2015（3）  2021（3）  2008（2）  2009（2）  2010（2）  2017（2） 
专利权人 SAMSUNG ELEC.（5） CHINESE ACAD.（3） CHONGQING GR.（3） CENT NAT REC.（2）
COMMISSARIAT.（2） CRRC IND RES.（2） EMPIRE TECHN.（2） GUARDIAN GLA.（2）
GUARDIAN IND.（2） KOREA ADV IN.（2） LOCKHEED MAR.（2） PARAGRAF LTD（2）
TOKYO ELECTR.（2） UNIV CALIFOR.（2） ZHANG K（2）

Depositing graphene or graphene oxide onto substrate from gaseous source of carbon precursor involves using plasma-enhanced chemical vapor deposition method, where carbon precursor consists of ethylene and the process is carried out in absence of carrier gas.

JOUIAD M, EL MARSSI M, LEJEUNE M

Preparing a sponge nickel-loaded nitrogen and fluorine double-doped vertical graphene useful in e.g. preparing anode and cathode materials for lithium-sulfur batteries, comprises e.g. obtaining Ni(AC)2 aqueous solution, adding N2H4H2O and mixing to obtain reaction solution.

TU J, WANG X, QIU Z, XIA X

Manufacturing electrostatic self-assembled silicon/reduced graphene oxide (rGO)/carbon nanofibers composite as anode materials for lithium-ion battery, involves obtaining silicon (Si)-(3-aminopropyl)triethoxysilane (APTES) solution by adding predetermined silicon nanoparticles to piranha solution.

CONG R, LEE C S, LEECHANGSUP, FEMALE T

Digital formation of two-dimensional materials structures used for electronic components, involves generating donor substrates containing back surface and front surface, applying coating to front surface, and irradiating coating containing donor material.

ZERGIOTI I, PAPAZOGLOU S, ZACHARATOS F, LOGOTHETI A, PESQUERA A, ZURUTUZA A, NAVEH D

Preparing nanoparticles on a substrate for composite, involves depositing micro-sized particles or salt precursors on a substrate, and applying a rapid, high temperature thermal shock to the substrate and the micro-sized particles or the salt precursors.

YAO Y, CHEN Y, HU L

Method for preparing graphene metal composite material useful in field of alloy preparation for electrical, mechanical, and thermodynamic applications, comprises e.g. growing graphene on surface of metal material, heating, and applying pressure to metal material grown with graphene.

QU Y, TAN H, WANG W, SHEN D

Preparing graphene copper composite material useful in supercapacitors and motor drive devices, comprises e.g. pre-setting multi-layer copper foil in hot pressing chamber, adopting chemical vapor deposition, preparing graphene film on copper foil surface, and sintering graphene-copper.

GONG M, ZHAO M, LI M, CHEN C, CHEN Q, YANG W, LI Y, WANG Y, LIU B, PEI Z, ZHANG X, LIANG J

Growth forging split device for graphene metal composite material, comprises growth chamber, forging chamber and transfer mechanism for transferring metal material, where growth chamber and forging chamber are inside with heating system.

SHAO L, HUANG D, DUAN Y, JIANG H, MA J, XU X, SHI H, LI X, YU J

Preparation device of metal layered graphene on solid carbon source, has heat compression chamber that is provided with auxiliary gas path mechanism introducing auxiliary gas into sample chamber, growth chamber and compression chamber.

SHAO L, LI X, ZHANG Y, LI Z, HUANG D, SHI H, DUAN Y

Preparing graphene metal layered composite material useful in aerospace industry, aviation industry and information industry, comprises pre-treating solid carbon source, growing graphene on many metal substrates and hot-pressing many graphene metal substrates.

SHAO L, LI X, ZHANG Y, LI Z, HUANG D, SHI H, DUAN Y