国家/地区 中国（263）
IPC部 C（263）
IPC大类 C01（263） B82（121） H01（104）
G01（43） B01（23） H05（18）
C09（13） C08（9） B22（8）
C02（8） C25（6） D06（6）
C03（5） C22（3） C23（3）
IPC小类 C01B（263）
IPC C01B032/184（263）
发明人 WANG Y（18） LIU Y（14） LI X（12）
LI J（10） WANG J（10） ZHANG J（10）
ZHANG L（10） ZHANG Y（10） LI Y（9）
WANG Q（9） XU Y（9） CHEN W（7）
LIU H（7） WANG H（7） WANG L（7）
公开年 2021（62） 2020（54） 2022（43） 2018（35） 2017（28） 2016（13） 2019（13） 2023（12） 2015（3）
申请年 2021（54）  2020（50）  2022（40）  2019（38）  2017（30）  2018（25）  2016（20）  2015（5） 
专利权人 UNIV NANJING.（7） UNIV JIANGSU（6） UNIV BEIJING.（5） UNIV JINAN（5）
HARBIN INST .（4） UNIV GUANGDO.（4） UNIV SHAANXI.（4） WUHAN INST T.（4）
CAS DALIAN C.（3） CHINA PETROL.（3） NINGBO INST .（3） UNIV BEIJING.（3）
UNIV CHANGZH.（3） UNIV CHINA E.（3） UNIV JILIN（3） UNIV NANCHAN.（3）
UNIV NANJING.（3） UNIV SHANDON.（3） UNIV SHANGHA.（3） UNIV SOUTHEA.（3）

Preparing magnetically reduced graphene oxide-based composite material used in field of oil-water separation, involves providing graphene oxide material, mixing oxidized graphene material, trivalent iron salt, amine compound and dispersing solvent uniformly to form graphene dispersion.

SHEN L, WANG G, ZENG Z, XU Y

Preparing high conductivity laser induced graphene material comprises mixing high conductivity material into polyimide thermoplastic solution to form mixed solution, coating mixed solution on silicon oxide substrate, performing heat treatment and curing, and using laser to irradiate composite film.

WAN Q, LONG H, XU M, WAN C

Preparing composite structure hydrophilic membrane electrode with composite structure comprises e.g. mixing lithium carbonate and titanium dioxide, calcining, modifying, mixing tannic acid modified active electrode material with solvent, coating on titanium plate, and drying.

DUAN X, ZHANG J, XIANG X

Preparing graphene/zirconium-BDC-metal-organic framework/perovskite quantum dot high thermal conductivity composite material comprises e.g. dispersing quantum dots in toluene, taking zirconium oxychloride octahydrate, washing, placing sodium nitrate into beaker, adding sulfuric acid and compounding.

WANG S, LUAN Y

Preparing graphene composite porous film by fractional laser treatment comprises adding nitrate solution to graphene oxide dispersion to obtain stable solution, dropping stable solution into glass mold, pressing to form film and subjecting film to two-step scanning using semiconductor laser light.

WU D, LAI Z, LEI J, ZHANG Z, YANG Y, SUN W, LI M, CUI J, ZHANG M

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

Preparing reduced graphene oxide/MXene/titanium dioxide/iron carbide multilevel heterostructure porous microsphere absorbing material comprises dispersing graphene oxide and Ti3C2TxMXene suspension in water, freeze-drying, mixing porous microspheres with metallocene, adding carbon fibers, reacting.

XU P, WANG G, QIN F

Preparing three-dimensional net shaped tin disulfide composite sulfur-nitrogen doped graphene for preparing lithium battery negative electrode involves adding stannous chloride dihydrate, L-cysteine, glycolic acid, graphene dispersion liquid into the deionized water and ethanol, stirring uniformly.

ZHONG P, WEI M, LI Y

Preparing carbon/graphene/lithium titanate composite cathode material comprises e.g. adding sulfuric acid into three-necked flask, dissolving titanium source composite in isopropanol, ultrasonically treating, calcining powder, and adding composite material into absolute ethanol.

CAI H, WU X, ZHANG P, LI X, LI J, LAI X, ZHU J

Preparing nitrogen-doped porous graphene-supported copper oxide electrode material used as enzyme-free glucose electrochemical sensor electrode material, involves dispersing uniformly graphene oxide, nitrogen-containing precursors and activator in water, drying water, calcining, washing, and drying.

WEI Q, WANG M