国家/地区 中国（40）
IPC部 C（40）
IPC大类 C01（40） H01（6） B82（5）
C09（5） B01（2） B05（2）
C04（2） C07（2） C08（2）
C22（2）
IPC小类 C01B（40）
IPC C01B032/184（19） C01B032/194（9） C01B031/04（6）
C01B032/19（5） B82Y040/00（4） H01M010/0525（4）
B82Y030/00（3） C09K011/65（3） H01M004/36（3）
H01M004/38（3） H01M004/583（3） H01M004/62（3）
B05C011/04（2） C01B032/198（2） C01B032/205（2）
发明人 ZHOU S（40）
公开年 2022（13） 2018（8） 2021（5） 2017（3） 2020（3） 2014（2） 2016（2）
申请年 2022（9）  2021（8）  2016（7）  2019（4）  2017（3）  2018（3）  2014（2）  2020（2） 
专利权人 HANGZHOU FUX.（5） BYD CO LTD（3） ZHEXI NEW MA.（3） SUZHOU LIANX.（2）
TECH INST PH.（2） UNIV CHENGDU.（2） UNIV HENAN（2）

Preparing copper-graphene composite material involves utilizing mechanical alloying method to prepare copper and polymer powder to obtain copper-polymer powder, cold isostatic pressing copper polymer powder to get bar melting region to bar porous rod material.

LIANG J, ZHANG X, WANG D, LI X, ZHOU S, GUO G, BAO F

Preparing in-situ heteroepitaxial graphene-coated silicon material useful in lithium-ion battery, comprises e.g. removing magnetic impurities in silicon raw material, drying, sand milling, reacting with fluorocarbon radicals, spray drying, low heating and carrying in-situ heterogeneous epitaxy.

ZHOU S, SHEN J, CHEN M, LUO X, HOU Q, ZHANG X

Preparing graphene-coated silicon batch, involves preparing silicon carbon precursor by spray drying and low temperature heat treatment process, and preparing high-temperature and high-vacuum device based on prepared graphene silicon material.

ZHOU S, SHEN J, CHEN M, LUO X, HOU Q, ZHANG X

Preparing graphene material comprises e.g. coating graphene oxide slurry on surface of substrate, setting first layer of template, and drying graphene oxide slurry between substrate and first layer template to form first layer of graphene oxide coating.

ZHOU S, HU J, YANG S, GE X

Graphene heat conducting gasket, has graphene composite films bonded and stacked by adhesive, where graphene composite film is provided with adhesive tape and graphene thermal conductive film bonded on surface of adhesive tape.

YANG S, HU J, ZHANG P, LI Z, SHI Y, GE X, ZHOU S

Method for preparing graphene heat-conducting gasket, involves staggering graphene composite film and heat conducting filler/high molecular composite layer into block, and cutting block into multiple sheets to complete preparation of graphene heat-conducting gasket.

YANG S, ZHOU S, ZHANG P, LI Z, GE X, HU J

Preparing graphene foam block comprises e.g. arranging fiber array on substrate spreading fiber array flat on substrate along coating direction, coating graphene oxide slurry along laying direction, pulling up fiber array perpendicular to coating direction for drying treatment, and heat treating.

YANG S, HU J, ZHOU S, LI Z, SHI Y, GE X, ZHANG P

Preparing a graphene block for fiber-reinforced graphene block, graphene sheet, and for composite graphene sheet, involves arranging the fiber array vertically on the substrate, coating graphene oxide slurry between fiber arrays on the substrate, and drying after coating the graphene oxide slurry.

LI Z, ZHOU S, HU J, YANG S, ZHANG P, GE X, SHI Y

Preparing porous silicon/carbon nanotube composite material involves grinding metal magnesium and silicon dioxide in high-speed grinding machine, transferring ground metal magnesium and silicon dioxide into tube furnace, heating ground metal magnesium and silicon dioxide in argon atmosphere.

ZHOU S, YOU C, HAN S

Multi-pass scanning device for laser-induced graphene, comprises foil material conveying device comprising unreeling machine, guide roller, winder, feedback sensor, and controller, and laser scanning device including scanning focusing head.

YANG Y, SUN B, CHEN Y, ZHOU S