国家/地区 中国（23）
IPC部 C（23）
IPC大类 C22（23）
IPC小类 C22C（19） B22F（8） C22F（8）
C21D（4） C23C（4） C01B（2）
C22B（2）
IPC C22C001/10（9） C22C001/05（6） C22C032/00（4）
B22F003/10（3） B22F003/14（3） B22F009/04（3）
C22C009/00（3） C22C027/04（3） C22F001/08（3）
B22F001/00（2） B22F003/02（2） C01B032/184（2）
C22C001/02（2） C22C009/01（2） C22C014/00（2）
发明人 WANG Q（23）
公开年 2021（6） 2020（4） 2022（4） 2018（3） 2019（2） 2023（2）
申请年 2021（6）  2019（5）  2016（3）  2020（3）  2018（2）  2022（2） 
专利权人 GLOBAL ENERG.（3） STATE GRID C.（3） STATE GRID S.（3） INST METAL R.（2）
JIANGSU PROV.（2） JIANGSU YUZH.（2） UNIV HEBEI T.（2） XIAN SIRUI A.（2）

Processing high-strength foamed aluminum alloy casting comprises cooling aluminum melt, adding tackifier, stirring, adding electroless nickel-plated graphene nano sheet and foaming agent, stirring, water cooling, machining foamed aluminum alloy blank, performing solution treatment and cooling.

SONG X, WANG Q, ZHUANG Q, DING X, DU X, HUANG L

Preparing titanium-graphene composite material involves mixing graphene, titanium metal powder and agglomerant and vacuum high-speed ball milling to form precursor, molding precursor under certain pressure, and vacuum degreasing precursor.

WEI S, PEI X, JIA D, LIU H, WANG Q

Preparing fine-grained high-purity oxygen-free copper plate comprises e.g. cleaning hearth of electron beam cooling bed smelting furnace, heating hot-pressed slab, milling milled hot-rolled billet up and down, annealing semi-finished sheet material, and cutting according to product shape.

WANG W, WANG C, LIU X, LIU Q, ZHOU B, WANG J, SUN J, LIANG X, WANG Q

Performing heat treatment process for improving age hardening capacity of aluminum-magnesium-silicon-zinc based aluminum alloy or composite material, carrying out high temperature and low temperature manual aging treatment to aluminum alloy.

MA Z, WANG Q, XIAO B, ZHU S, WANG D

Processing titanium alloy space sampling drill comprises e.g. spraying graphene dispersion liquid to titanium alloy drill bit subjected to nitriding treatment, and drying titanium alloy drill bit sprayed to obtain nitride-graphene composite coating on surface of titanium alloy drill bit.

WANG W, MENG D, FU Z, KANG J, WANG H, YUE W, WANG Q, GAO W, SHE D

Method for preparing graphene composite 18Ni-300 anti-friction metal material based on selective laser melting (SLM) technology, involves subjecting anti-friction metal material formed to aging treatment to obtain finished graphene composite anti-friction metal material.

WANG R, LIU W, ZHAO W, LU Y, WANG Q, OU B

Preparation of copper infiltrated wire involves mixing nickel, manganese, iron, zinc, and copper, adding mixture into vacuum melting furnace, molding alloy solution, forging and turning alloy ingots in electric furnace, hot rolling alloy bars into discs, drawing disc, and cutting alloy wire.

ZHOU B, TIAN D, GUO C, SUN J, WANG Q, LIU X, GOU S, LIU Q, LIANG X

Metal-based composite material, preferably multilayer graphene/copper-aluminum-manganese shape memory alloy layered composite material used in filed of e.g. noise reduction, comprises e.g. copper-aluminum-manganese and multilayer graphene.

WANG Q, JIAO Z, YIN F, JI P, ZHANG J, LIU L, LIU Y

Storage composite material comprises cobalt-copper-silicon composite with nitrogen and sulfur co-doped graphene.

LIU W, FAN W, SUN Y, LIU D, ZHAO J, LIU H, CHEN P, WANG Q, WANG X, WANG F

Alloy useful for preparing aluminum-based composite materials with low natural aging hardness and high artificial aging strength, comprises copper, magnesium, silicon, aluminum and unavoidable impurities.

XIAO B, ZHU S, WANG D, MA Z, WANG Q