国家/地区 中国（68）
IPC部 C（68）
IPC大类 C01（68） B82（24） H01（24）
B01（11） C23（6） C09（5）
C25（5） B22（4） B32（3）
C08（3） D01（3） G01（3）
C07（2） C30（2） H05（2）
IPC小类 C01B（68）
IPC C01B032/16（68）
发明人 ZHANG J（6） LIU Y（5） LI J（4）
ZHAO X（4） HE X（3） JIANG X（3）
LI Y（3） PENG Q（3） XU X（3）
YANG Y（3） ZHANG X（3） CHEN Y（2）
CHEN Z（2） FENG Y（2） GAO W（2）
公开年 2021（19） 2022（12） 2016（7） 2019（7） 2020（6） 2015（4） 2017（4） 2018（4） 2023（3）
申请年 2021（20）  2020（12）  2019（9）  2014（5）  2016（5）  2022（5）  2015（3）  2017（3）  2018（3） 
专利权人 UNIV FUDAN（3） UNIV TIANJIN（3） AIXTRON SE（2） BEIHAI HUIKE.（2）
C2CNT LLC（2） HARBIN INST .（2） HKC CO LTD（2） SHENZHEN XIC.（2）
UNIV BEIJING.（2） UNIV HENAN N.（2） UNIV PEKING（2）

Preparation of nitrogen-doped carbon nano-tube embedded with iron-cobalt oxide coated iron cobalt alloy heterogeneous particles for use as catalyst for zinc-air battery, involves heating nitrogen-doped carbon nano-tube embedded with iron-cobalt alloy particles to calcine, fully reacting, and cooling.

LI T, YAN Z, CAO W, MA Y

Directional heat-conducting and heat-radiating integrated carbon material based on graphene-oriented carbon nano-tube array, obtained by e.g. dissolving single-layer graphene oxide powder in water, heat reducing, spraying polycarbosilane xylene solution, calcining, and growing carbon nanotube array.

FENG Y, PENG L, FENG W

Method for manufacturing clean surface carbon nano-tube for use in nano-electronics field, involves preparing a multi-wall carbon nano tube, cutting outer tube of multi-wall carbon nano tube, and exposing clean inner tube to obtain carbon nano-tube with clean surface.

CHEN Y, LI Y

Carbon composite material used as the conductive additive of secondary battery, has three-dimensional structure, and size of at least one dimension is nano level, comprising carbon nano tube graphene and carbon quantum dots, is prepared by taking first electrode as positive electrode in electrolyte.

LIN J, TANG J, HONG J, GUO K, YE Z, LI S, ZHOU Q

Preparing composite dimension carbon atom framework van der Waals homogeneous structure temperature control physical defogging film comprises e.g. preparing powder-shaped carbon nanotube material, spraying cellulose acetate by connecting cellulose acetate solution and obtaining defogging film.

JIANG X, DONG H, TIAN B

Preparing three-dimensional graphene/carbon nano tube/polydimethylsiloxane composite material with efficient sound absorption performance, involves ultrasonically treating graphene oxide solution and multi-walled carbon nanotubes, adding ascorbic acid and octadecyldecyl glucoside and freeze-drying.

YU S, SHI S, SHI Q, QIU J

Preparing ultra-flexible multifunctional carbon aerogel useful in e.g. high-performance sensing, comprises e.g. mixing graphene oxide with ethylenediamine, carrying out hydrothermal treatment and self-assembling, mixing ferrocene with 1,2-dichlorobenzene, and carrying out chemical vapor deposition.

FU S, YU H, DANG S, ZHANG C, XU X

Preparing iron-doped porous carbon nanotube electrode material comprises e.g. mixing carbon support substrate, polymerized monomer and acidity regulator, transferring to nickel boat, heating, heat preserving, naturally cooling, washing with hydrochloric acid solution, and drying.

JIANG K, WU D, GAO Z, WANG H, MA Z, LIU N, CHEN C

Preparing carbon graphene porous nano-tube layer-by-layer self-assembling complex material comprises dissolving trimesic acid in the deionized water, placing in an oil bath heating and stirring, centrifuging and separating and drying.

YU D, CHEN Q, FENG Y, LIU A, QIAN G

Preparing lithium sulfur battery anode material comprises e.g. adding graphene, nitrogen-containing organic matter, transition metal salt and dispersant in aqueous solution, spray drying, calcining, ball-milling transition metal-doped graphene-carbon nanotube composite microspheres and sulfur powder.

FAN H, ZHAO C, ZHANG T, YANG X, GAO W, LIU Y