国家/地区 中国（76）
IPC部 C（76）
IPC大类 C08（76） B29（10） C09（8）
D01（5） B32（4） C01（4）
C02（3） H01（3） H05（3）
B01（2） B82（2） C25（2）
IPC小类 C08L（76）
IPC C08K003/04（62） C08K009/06（16） C08K009/04（14）
C08L079/08（12） C08K013/06（11） C08K003/22（10）
C08L023/12（10） C08J005/18（9） C08K007/06（9）
C08L023/06（9） C08L063/00（9） C08K003/08（7）
C08K007/24（7） C08L083/04（7） C08K003/34（6）
发明人 WANG D（76）
公开年 2022（21） 2021（15） 2016（10） 2020（9） 2023（6） 2018（4） 2014（3） 2017（3） 2019（3）
申请年 2021（19）  2022（14）  2020（11）  2016（7）  2019（6）  2017（4）  2023（4）  2015（3）  2018（3）  2013（2）  2014（2） 
专利权人 UNIV JILIN（6） ZBOM KITCHEN.（5） GRAPHENE SOU.（3） NINGGUO ZHON.（3）
UNIV DONGHUA（3） ANHUI YUZE P.（2） JIANGSU RUDO.（2） KINGFA SCI .（2）
SHANGHAI KIN.（2） TIANJIN JINF.（2） UNIV CHINA T.（2） UNIV JIANGNA.（2）
UNIV SHANDON.（2） UNIV WUHAN T.（2）

Carbon nano-porous frame comprises multiple carbon nano units whose surfaces are connected and assembled to form three-dimensional network framework structure and there are gaps between adjacent carbon nano-units and carbon nano materials and polymers wrapped on surface of carbon nano materials.

KONG L, WANG D, ZHANG J, HUANG S, LI X

Anti-fatigue polypropylene alloy material comprises polypropylene fiber and nylon 6 fiber, where polypropylene fiber includes thin fiber and thick fiber and surface of thick fiber grafted with maleic anhydride, and thick fiber connected and fixed with nano-graphene oxide through maleic anhydride.

ZHAO S, XU S, CAO P, ZHAO C, GUO B, GAO J, ZHANG C, WANG D

Preparing three dimensional thermally conductive skeleton/polyimide thermally conductive composite material comprises subjecting thermally-conducting porous material soaked by polyamic acid solution, performing freeze drying and phase conversion treatment to thermally-conducting porous material.

CHEN C, ZHAO X, ZHOU H, ZHAO J, YANG L, WANG D

Preparing thermally conductive filler/polyimide aerogel metallized high thermally conductive composite material, involves preparing thermally conductive filler/polyimide aerogel, electroplating aerogel material, and vacuum hot pressing.

CHEN C, ZHAO X, ZHOU H, ZHAO J, YANG L, WANG D

Preparing high electromagnetic shielding nanofiber gas gel having gradient structure, comprises e.g. mixing isopropanol, deionized water and poly(vinyl alcohol-co-ethylene) nanofiber, adding graphene oxide, silver nanowires into poly(vinyl alcohol-co-ethylene) nanofiber suspension, and freeze-drying.

WANG W, YAN K, WEN X, YANG C, WANG D

Torsion-resistant cable material comprises ethylene propylene diene monomer rubber, butyl rubber, vulcanizing agent, carbon black, zinc stearate, anti-aging agent RD, anti-aging agent 4020and (3-trimethoxysilylpropyl) diethylenetriamine grafted X- graphene oxide.

WANG D, MAO R, WANG J, YUAN K, LIU Y

Degradable plastic masterbatch for plastic products used for e.g. packaging and buildings, comprises polylactic acid, Indocalamus leaf powder, modified biochar, calcium lignosulfonate, dioctyl adipate and polyethylene glycol.

LIU G, WANG D, ZHAO S

Preparation of stainless steel-based electromagnetic shielding material e.g. paint, involves reacting mercapto graphene and silicone oil to N,N-dimethylformamide, catalyst, mixing silicone rubber, dicumyl peroxide, silicone oil grafted graphene and stainless steel fibers and molding.

XIONG H, WANG D, LU J

Preparation of uniformly dispersed and directionally arranged graphene reinforced asphalt composite material for e.g. road paving material, involves heating base asphalt to obtain molten asphalt, adding graphene, high-speed shearing to obtain mixture of asphalt and graphene, heating, and cooling.

WANG X, LU Z, HONG B, XIE X, LI L, WANG D, JI Q, ZHANG Y, YANG Q

Preparing high-normal direction heat conducting polymer nano-complex sheet comprises mixing the polymer, nano-filler and coupling agent to obtain reaction mixture, melting and mixing the reaction mixture, extruding and molding.

CHEN J, WANG D, YE W, WANG P, ZHANG J, CHEN Y