国家/地区 中国（108） 世界知识产权组织（4） 欧洲专利局（EPO）（2） 日本（2） 韩国（2） 美国（2）
IPC部 C（109）
IPC大类 C01（109） H01（30） B82（18）
B01（12） G01（9） C09（8）
B22（4） C22（4） C23（4）
C02（3） H05（3） B02（2）
C08（2） C25（2）
IPC小类 C01B（109）
IPC C01B032/184（109）
发明人 ZHANG Y（109）
公开年 2017（22） 2018（20） 2021（15） 2020（14） 2022（13） 2016（8） 2019（8） 2015（5） 2023（4）
申请年 2017（22）  2021（16）  2016（14）  2020（13）  2022（13）  2019（11）  2018（10）  2015（7）  2014（3） 
专利权人 FUJIAN MATER.（4） ZHANG Y（3） CHINESE ACAD.（2） CHONGQING GR.（2）
GUANGDONG ZH.（2） INST PROCESS.（2） SHANGHAI INS.（2） SHANGHAI LEV.（2）
SHENZHEN SHE.（2） UNIV FUDAN（2） UNIV JILIN（2） UNIV KUNMING.（2）
UNIV NORTH C.（2） UNIV SHANGHA.（2） UNIV SHANXI（2） UNIV XIAN JI.（2）
WUXI DONGHEN.（2） XIAMEN RARE .（2）

Production process flow of graphene involves grinding power coal without calcium carbonate into coal powder, using water to blend coal powder into water coal slurry, pumping water slurry into electric stainless steel centrifugal sieve.

ZHANG Y

Preparation of high-thermal conductivity graphene heat-dissipation film involves adding graphene oxide film to be treated to chamber of continuous microwave processing equipment, vacuuming chamber, pretreating, and performing photoreduction and high-temperature structural reformation process.

ZHAO Z, ZHANG Y

Laser-reduced graphene oxide electrochemical electrode useful in laser-reduced graphene oxide device as an electrochemical sensor for detecting hydrogen peroxide and cholesterol, comprises laser-reduced graphene oxide and cuprous oxide electrodeposited on the surface of laser-reduced graphene oxide.

HUANG H, CHEN S, ZHANG Y

New modified lithium tantalate modified graphene nanomaterial used as lithium electrode protection component in lithium battery for mobile device and electric automobile.

YAN S, YIN H, ZHANG Y, LV Z, GAO P

Method for improving multi-layer graphene coverage rate on copper-based alloy substrate comprises annealing copper base alloy substrate, introducing carbon source to graphene growth after annealing, realizing multi-layer graphene, quickly cooling to room temperature, ending growth.

CHEN Z, XIAO R, YU G, ZHANG Y

High-efficient transposition washing method for preparing thin layer graphene, involves thermally expanding prepared impurity-containing graphite oxide powder to obtain impurity-containing graphene, washing and spray-drying or vacuum-drying.

GUO X, LIU J, LI D, DONG F, YU N, ZHANG Y, ZHAO W, SUN B, ZONG J

Method for preparing graphene nano-net with macroporous structure in fuel cell, involves selecting carbonization process as carbon source in carbonization and in-situ decomposition of macro-poretic template, and inducting carbonized intermediate product to form two-dimensional nanosheet.

CHEN X, WU D, ZHANG Y, QIU P

Improving titanium-based composite material performance by oxygen-containing graphene modified dispersion comprises ultrasonically stirring and dispersing oxygen-containing graphene nanopowder in deionized water, placing reduced graphene oxide monomer solution and performing densification.

ZHANG Y, HUO W, LI L, ZHANG W, CHANG G, LI X, DONG L

Single-layer graphene aerogel useful as non-metallic catalyst for catalyzing redox reactions under alkali or neutral conditions to prepare alkali or neutral zinc-air batteries.

ZENG H, YIN C, LI X, LI Q, ZHANG Y

Preparing high conductive sulfonated graphene by graphite reduction comprises treating flake graphite, block graphite or earthy graphite with lithium, sodium, potassium or cesium and catalyst e.g. substituted aryl compound, and reacting with sulfonating reagent e.g. sulfurous dichloride.

ZHANG Y, XU Y, ZHAO F