国家/地区 中国（89）
IPC部 C（89）
IPC大类 C22（89）
IPC小类 C22C（89） B22F（55） C23C（10）
C22F（9） C01B（8） B33Y（7）
A61L（5） B32B（2） B82Y（2）
IPC C22C014/00（89）
发明人 ZHANG Y（15） DONG L（11） LI J（11）
LIU Y（10） WANG Y（10） HUO W（8）
LI L（7） ZHANG H（7） LU J（6）
WANG X（6） ZHAO Y（6） CHEN B（5）
FAN Q（5） LU C（5） WANG Z（5）
公开年 2020（15） 2018（13） 2021（12） 2019（11） 2015（10） 2022（9） 2017（7） 2016（6） 2023（5）
申请年 2019（14）  2021（14）  2015（13）  2020（13）  2018（10）  2017（8）  2022（8）  2016（6）  2023（2） 
专利权人 NORTHWEST IN.（7） BEIJING INST.（6） UNIV NORTHWE.（5） XIAN RARE ME.（5）
LU C（4） AECC BEIJING.（3） UNIV JIANGSU（3） UNIV NORTH C.（3）
UNIV NORTHEA.（3） UNIV SOOCHOW（3） UNIV SOUTHEA.（3） UNIV WUHAN T.（3）
AVIATION IND.（2） BEIJING AOJI.（2） CHINA AVIATI.（2） CHINA NAT PE.（2）
CHINA NAT PE.（2） CHINA ORDNAN.（2） HARBIN INST .（2） UNIV NANCHAN.（2）

Medium-strength and high heat-conducting titanium-based composite material, comprises reinforcing body and pure titanium substrate.

JIANG P, ZHANG W, ZHAO Y, LI L, XU Y

Preparation method of graphene-interface phase core-shell network titanium matrix composite material used in aircraft engine, involves sintering titanium-based material and high-purity graphite ball after mixing powder to obtain composite material.

WANG X, LIU M, LI S, WANG L, ZHANG L, QU L, CUI B, WANG Y, DU Q, SUN Y, LI A

Preparing high-strength and high-plasticity graphene-titanium composite material by interface modification, comprises washing graphene oxide with acid and alkali to remove impurities, mixing iron oxide coated graphene oxide with titanium powder, and adopting discharge plasma method to sinter.

TANG B, WAN J, GAO Q, YANG J, LI J, YAN Q, CHEN B

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

Metal composite material of biomimetic double penetration structure useful in aerospace, military equipment and ocean engineering comprises integrally formed dense titanium, porous titanium, and integrally formed dense aluminum alloy and porous aluminum alloy.

XIONG Y, ZHANG F

Preparation method of graphene material of laminated aluminum/titanium laminated material, involves ultrasonically dispersing graphene, adding absolute ethyl alcohol, putting three beaker into ultrasonic oscillator, and mixing powder.

HOU H, XING Y, ZHANG X, CHEN L, LI M, LIU Y, ZHAO Y

Preparing aluminum carbide and titanium trialuminide reinforced aluminum/titanium laminate materials in situ, comprises adding graphene and deionized water into beaker, stirring uniformly to obtain aluminum powder slurry, discharging and sintering block in graphite mold.

HOU H, LIU Y, LI M, ZHAO Y

Preparing titanium-aluminum-chromium-niobium pre-alloy spherical powder and single graphene layer sheet nanometre sheet, comprises e.g. adding titanium-48-alumina-nickel-boron powder and adding absolute ethyl alcohol for low energy ball milling.

MAO Z, MA D, HOU B, WANG W, WANG A, XIE J, WANG Z, LIU P

Improving titanium-based composite material performance by oxygen-containing graphene modified dispersion comprises ultrasonically stirring and dispersing oxygen-containing graphene nanopowder in deionized water, placing reduced graphene oxide monomer solution and performing densification.

ZHANG Y, HUO W, LI L, ZHANG W, CHANG G, LI X, DONG L

Preparing titanium-nickel alloy matrix composite material with wide temperature range and high damping response, comprises cutting titanium-nickel foil into thin slices by wire cutting, polishing surface, adding graphene oxide to absolute ethanol for ultrasonic dispersion, and tiling and stacking.

LI L, DONG L, HUO W, CHANG G, LI X