国家/地区 中国（116）
IPC部 C（116）
IPC大类 C01（116） H01（22） B82（17）
C09（10） B01（9） C08（8）
D01（5） B22（3） C03（3）
C04（3） C22（3） B32（2）
C23（2） H05（2）
IPC小类 C01B（116）
IPC C01B032/184（116）
发明人 ZHANG J（116）
公开年 2017（30） 2020（17） 2018（15） 2022（13） 2016（12） 2021（10） 2023（7） 2015（6） 2014（3） 2019（3）
申请年 2016（27）  2017（17）  2020（13）  2019（12）  2018（10）  2022（10）  2015（9）  2021（9）  2014（5）  2023（4） 
专利权人 JINAN SHENGQ.（10） UNIV SOUTHEA.（7） JIANGSU SIDI.（5） UNIV SHANDON.（5）
SIXTH ELEMEN.（4） UNIV QINGDAO.（4） UNIV SHENZHE.（4） JINAN SHENGQ.（3）
JINAN SHENGQ.（3） UNIV FUDAN（3） UNIV PEKING（3） UNIV SHANGHA.（3）
UNIV WUHAN T.（3） BEIJING GRAP.（2） CHINESE ACAD.（2） CUI H（2）
HARBIN BAIDU.（2） JILIN JLU GE.（2） NINGBO INST .（2） SUN J（2）

Method for in-situ preparing high-reduction-rate oxide graphene thin film, involves covering upper substrate above rectangular groove, constructing reaction system, and drying reaction system to form reduction oxidation graphene film.

GUAN R, CUI H, YANG D, FAN L, YANG Z, ZHANG J

High-throughput laser synthesis method of graphene loaded nanoparticles useful as anode material of the lithium carbon dioxide battery by carrying out in-situ conversion polyimide polymer film or polyethyleneimine polymer film by laser, dropping metal precursor salt solution to substrate and drying.

WANG J, ZHANG J, XIE K, GUO C, HAN X

Preparing germanium embedded graphene layer-based three-dimensional carbon network composite material useful in preparing lithium-ion battery cathode, comprises e.g. preparing pluronic F-127 solution, adding germanium(IV) oxide, graphene oxide and carbon nanotubes, sonicating, and carbonizing.

LIU Y, ZHENG X, GUO X, GU H, ZHANG J

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 self-supporting three-dimensional graphene framework used in field of heat dissipation, comprises e.g. adding metal foam to graphene oxide solution, coating polymethyl methacrylate on graphene skeleton-metal foam, removing metal foam and polymethyl methacrylate, cleaning and freeze-drying.

ZHANG J, SUN S, WANG J, ZHAO Y

Preparing high modulus, highly elastic graphene foam material for stretchable conductor, smart sensor or aerospace field, involves fixing compressed graphene oxide foam material with clamp, burning flame completely, removing fixture, and heat-treating burned product in inert atmosphere.

ZHANG J, DUAN Y, ZHANG X, LIU X, LIU L, YANG H

Direct manufacture of graphene from anthracite involves mixing pulverized coal sample of anthracite and copper chloride and drying to obtain mixed pulverized coal, grinding and irradiating to obtain coarse product of coal-based graphene, separating crude graphene product and purifying.

DONG W, LI J, ZHANG J, NIU H, KANG J, CHEN C, HUANG J, LI K

Preparing graphene-based composite heat-conducting film comprises e.g. heating coal tar asphalt under an argon atmosphere, screening coal tar asphalt, subjecting pre-reduced graphene oxide-based composite film to two-step thermal reduction treatment and carrying out hot pressing treatment.

SONG M, ZHANG J, JIN C

Preparing graphene heat-conducting film with graphene, comprises dispersing graphene filter cake and soluble polyimide in solvent to obtain uniform composite slurry with high viscosity, and performing vacuum defoaming treatment.

ZHANG J, NI J, SONG M, JIN C

Preparing graphene thin film, comprises soaking graphene oxide film in ethanol solution, drying to obtain graphene oxide film intercalated with ethanol, subjecting graphene oxide film intercalated with ethanol to thermal annealing treatment, thermal reduction treatment and graphitization.

ZHANG J, SONG M, JIN C