国家/地区 中国（61） 韩国（7） 日本（4） 世界知识产权组织（4） 加拿大（3） 美国（3） 欧洲专利局（EPO）（2）
IPC部 C（66）
IPC大类 C08（66）
IPC小类 C08G（66） C08L（27） C08K（21）
C08J（13） C09D（11） C01B（9）
C08F（7） H01M（6） H01G（5）
B01J（4） B01D（3） C09K（3）
B29C（2） B33Y（2） B82Y（2）
IPC C08G083/00（66）
发明人 LI S（5） CHEN J（4） LIU Y（4）
WANG L（4） ZHANG Y（4） CHEN H（3）
GUO X（3） LIN H（3） WANG J（3）
WANG Y（3） XU J（3） YANG Y（3）
ZHANG X（3） CAO L（2） CHEN Y（2）
公开年 2021（43） 2022（22）
申请年 2021（66）
专利权人 DAEJIN ADVAN.（2） JINJIANG RUI.（2） SHANDONG FUK.（2） UNIV NANJING.（2）
UNIV NANKAI（2） UNIV WUYI（2） UNIV YUNNAN（2） XEROX CORP（2）

Preparing modified polysilazane nanocomposite material, comprises grafting nanoparticles with hydroxy groups on surface with double-end polysiloxane to prepare modified nanoparticles, and, carrying out dehydration condensation reaction with polysilazane.

REQUEST N N B P

Compatibilizer useful in organic-inorganic composite material for molded article i.e. abrasive sand, comprises inorganic compound-hyperbranched polymer composite comprising inorganic compounds, and hyperbranched polymer.

JUNG S, PAGKHIMUN, CHOI J I, WOOK K D, JUNG H, LEE B

Method for selective laser sintering for three-dimensional article, involves depositing carbon nanomaterial-graft-polyamide particles with other thermoplastic polymer particles, and exposing to laser to fuse polymer particles and form consolidated component by selective laser sintering.

SRISKANDHA S E, FARRUGIA V M, EMPARUZIA V, SIBANTIISWARISLISKANDA, SRISKANDAR S E

Selective laser sintering process for preparing highly spherical particles, involves depositing carbon nanomaterial-graft-polyurethane particles on nanomaterial surface and exposing nanomaterial grafted polyurethane particles to laser, for fusing polymer particles and forming consolidated body.

SRISKANDHA S E, FARRUGIA V M, CLARIDGE R, EMPARUZIA V, SIBANTIISWARISLISKANDA, EASWARI S, SRISKANDAR S E

Conductive structure useful in antistatic composition as coating solution for electronic materials i.e. electrical insulator, formed by connecting modified graphene oxide or modified carbon nanotube and conductive polymer.

MOON Y, KIMKWANYOUNG, YOO G M, KIM G 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

Carbon nanomaterial comprising modified carbon nanotube or modified graphene oxide useful in antistatic composition as coating solution for electronic materials i.e. electrical insulator.

MOON Y, KIMKWANYOUNG, YOO G M, KIM G Y

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 toughening high heat-conducting filler based on thermosetting resin for improving toughness and heat conductivity of thermosetting resin, involves firstly dispersing functionalized carbon material in solvent A, then dropping isocyanate into obtained functionalized carbon material solution.

LIU K, ZHU X, WENG L, YU Y, XU H, ZHANG X