国家/地区 中国（43） 日本（4） 美国（2）
IPC部 B（51）
IPC大类 C22（51） B22（46） C01（12）
C23（9） H01（8） B82（7）
B21（6） C21（4） B23（3）
B33（3） C25（3） B01（2）
H02（2）
IPC小类 C22C（51） B22F（39） C22F（14）
C01B（12） C23C（9） B22D（8）
B82Y（7） B21C（5） H01B（5）
C21D（4） B22C（3） B23P（3）
B33Y（3） B01J（2） C22B（2）
IPC C22C001/10（51）
发明人 LI X（4） CHEN W（3） LI Y（3）
LIU W（3） LIU Y（3） XIONG C（3）
XIONG J（3） YAN H（3） DONG L（2）
DUAN H（2） HE G（2） HE X（2）
JIA D（2） KAWASAKI R（2） KUBOTA K（2）
公开年 2021（51）
申请年 2021（28）  2020（20）  2019（3） 
专利权人 UNIV NANCHAN.（3） GUANGXI YOUH.（2） HARBIN INST .（2） INNER MONGOL.（2）
NIPPON SHOKU.（2） UNIV SHANGHA.（2） UNIV SOUTH C.（2） UNIV TOHOKU（2）

Graphene-copper composite powder material forming processing device, has high frequency induction heating wire whose outlet end is provided with water cooling pipe that is around mold to cool lower half portion of mold.

GU Z, CHEN L, BIAN F, JU J, FENG Y

Preparing aluminum-based composite conducting bar remanufactured by motor involves pre-heating groove of rotor iron core to cast graphene-aluminum based composite liquid to obtain aluminum based composite guide strip.

REN G, HE G, LUO Y, LI Q

Preparation of cast aluminum guide bar used for motor involves preheating rotor iron core and casting molten aluminum alloy mixed with graphene in iron core groove of rotor to obtain guide bar.

REN G, HE G, LUO Y, LI Q

Carbon metal composite molded article for e.g. electronic parts or electric wires of aircraft or automobile, comprises flaky carbon material having graphene skeleton and alloy particles of magnesium.

KAWASAKI R, NOMURA N, SHU I I, KUBOTA K, ONO H

Manufacture of aluminum-aluminum carbide composite molded product used as electronic component and electric wire for aircraft and automobile, involves pressurizing flaky carbon material having graphene structure and aluminum particles.

KAWASAKI R, NOMURA N, SHU I I, KUBOTA K, ONO H

METHOD FOR PRODUCING HEAT-CONDUCTING COMPOSITE MATERIAL FROM POWDERS OF ALUMINIUM OR ALLOY THEREOF WITH GRAPHENE COATING.

ZHURAVLEV V V, GERASIMOV V F, CHERNYAEVA S O, EREMIN S A

Preparation of cast-in-situ growth graphene-reinforced copper composite material used in e.g. civil application, involves reducing surface of copper powder, carrying out radio frequency plasma enhanced chemical vapor deposition, smelting sample, continuously stirring, and cooling.

HUANG P, ZHENG Z, WANG F

Preparing magnetic graphene nano-wave absorbing material useful in e.g. civil and military fields comprises e.g. dissolving graphene oxide sponge, acidified carbon nano tube and cobalt nitrate in deionized water, mechanically stirring to uniform and performing electrostatic self-assembly.

KANG H, LI Y, LU S, LIU Y, HONG Y, QIN W, YAO Y, SHI T, WU X

Increasing nitrogen content of vanadium iron nitride used for e.g. high-strength thread steel, involves mixing vanadium source, carbonaceous reducing agent, iron powder, and tin dioxide, ball milling, vacuumizing, introducing mixed gas of nitrogen and ammonia and heating.

ZHANG C

Preparation of graphene oxide/ titanium carbon nitride-doped tungsten copper composite material involves weighing copper powder, tungsten powder, and graphene oxide powder, putting powders in sealed tank, filling composite powder into graphite mold and placing in vacuum sintering furnace.

CHEN W, LI W, LI X, HUANG Y