国家/地区 中国（27） 美国（3） 欧洲专利局（EPO）（2） 世界知识产权组织（2）
IPC部 C（29）
IPC大类 C08（29）
IPC小类 C08G（29）
IPC H01G011/86（29）
发明人 ZHANG Q（6） FENG W（4） FENG Y（4）
LIU Y（4） LIN H（3） CHEN H（2）
HU J（2） LI S（2） LIU F（2）
LIU R（2） LIU S（2） MU J（2）
QIN Z（2） WANG H（2） WANG X（2）
公开年 2017（7） 2022（6） 2016（4） 2021（3） 2023（3） 2015（2） 2020（2）
申请年 2021（6）  2013（4）  2016（4）  2015（3）  2020（3）  2022（3）  2017（2）  2023（2） 
专利权人 UNIV TIANJIN（4） JINJIANG RUI.（2） UNIV FUZHOU（2） UNIV WUYI（2）

Synthesizing reduced graphene oxide/polyaniline composite coating on solid substrate used in electrochemical energy storage device, involves immersing substrate in aqueous solution of reduced graphene oxide, aniline and ammonium persulfate.

SANKAPAL S R, BAGDE A G, PAWAR D C, LOKHANDE C D

Preparation method for supercapacitor electrode active material, involves adding graphene microflakes and sodium nitrate into three-necked flask, add concentrated sulfuric acid while stirring, continue to stir and react after adding, then add potassium permanganate to continue stirring and react.

ZHANG J, TANG Z, ZHAO C, WU Y

Composite electrode material for use in supercapacitor, comprises open-shell donor-acceptor polymer comprising multiple alternating electron-rich and electron-deficient monomers bonded together via conjugated backbone, and reduced graphene oxide.

AZOULAY J, YAO L, NG T N

Preparing boron-doped fluorinated polyimide film used in supercapacitor, involves obtaining polyimide by weighing certain amount of diamine, and four organic solvent and adding into mouth flask, stirring at normal temperature to diamine to dissolve, and weighing certain mass of dianhydride.

LI X

Flexible covalent organic framework-based composite fibers useful in quasi-solid symmetric supercapacitor, and prepared by synthesizing covalent organic frameworks, and adding aqueous graphene oxide solution, stirring, wet spinning in coagulation bath, and reducing.

GUO C, CHEN L, YAO M, WANG Y

In situ growth of graphene two-dimensional covalent organic framework composite comprises dissolving monomer with ketone group and monomer with amino functional group and graphene oxide in acetic acid and ethanol mixed solution separately, mixing the solutions, and annealing.

LIU M, LIU Y, BAI Y, CHEN J

Preparing temperature-responsive graphene-based hydrogel electrode useful in field of functional polymer material and electrochemistry, mixing graphene-grafted poly(N-isopropylacrylamide)-co-N-(4-aminophenyl)acrylamide-grafted polyaniline, acetylene black, and poly(1,1,2,2-tetrafluoroethylene).

XU J, MU J, LIN H, HU J, LI S, QIN Z, ZHANG R, CHEN H, LIU R

Preparing polyacrylic acid/graphene grafted polyaniline interpenetrating network hydrogel used for preparing electrode, involves preparing alkynyl functionalized poly-N-4-aminophenyl acrylamide, preparing graphene grafted poly N-4-aminophenyl acrylamide, carrying out polymerization reaction.

XU J, MU J, LIN H, HU J, LI S, QIN Z, ZHANG R, CHEN H, LIU R

Preparing triazinyl-based two-dimensional electrode material, comprises e.g. using Schiff base reaction to synthesize nitrogen-rich material with p-phenylenediamine and cyanuric acid, and attapulgite to induce synthesized nitrogen-rich material into two-dimensional structure.

ZHANG C, LIU Y, YANG X, ZHANG L

Preparation of (P6Mo18O73)-based metal-organic framework porous electrode material used for anode material, involves mixing ammonium molybdate tetrahydrate, copper(II) acet2022/0085401ate monohydrate, 1.4-bis( 1,2,4-triazole) butane, pyrazine and strontium chloride hexahydrate.

SUN Y, LV J, ZHOU B, CUI L, YU K