国家/地区 中国（36）
IPC部 C（36）
IPC大类 C01（36） H01（8） B82（7）
C07（2）
IPC小类 C01B（36）
IPC C01B031/04（13） B82Y040/00（6） C01B032/194（5）
C01B032/198（5） H01M004/58（5） B82Y030/00（4）
C01B003/00（3） C01B019/04（3） C01B025/45（3）
C01B032/184（3） C01B032/19（3） H01M010/0525（3）
C01B031/02（2） C01B032/05（2） C07D487/22（2）
发明人 WU C（36）
公开年 2021（8） 2022（5） 2014（4） 2012（3） 2015（3） 2020（3） 2013（2） 2016（2） 2018（2） 2023（2）
申请年 2021（7）  2014（5）  2022（5）  2018（3）  2020（3）  2010（2）  2012（2）  2013（2）  2016（2）  2019（2） 
专利权人 UNIV FUZHOU（4） QINGDAO JIUH.（3） UNIV SOUTHWE.（3） BEIJING JING.（2）
ENN SCI TEC.（2） NAT CENT NAN.（2） NAT CENT NAN.（2） UNIV BEIJING.（2）
UNIV SICHUAN（2） UNIV TONGJI（2）

Preparing hydrogen adsorbent involves weighing magnesium powder, iron powder, modified graphene and tetrahydrofuran, adding magnesium powder, iron powder, modified graphene and tetrahydrofuran into ball milling tank, and then introducing hydrogen into ball milling tank.

LIU F, WU C, WU Z

Hydrogen storage alloy bed with high heat conductivity and high stability for hydrogen storage tank, comprises hydrogen storage alloy powder, wetting agent, adhesive, and heat conducting agent.

CHEN Y, WU C, KONG H, YAN Y

Comprehensive resource recovery and reuse of titanium dioxide by-product ferrous sulfate and waste graphite cathode materials, comprises e.g. mixing titanium dioxide by-product ferrous sulfate and waste graphite cathode material with high-molecular organic matter and calcining.

LI Q, LI J, WU C, HAO X, LI L, CHEN M, QI J, SHEN X, SHANGGUAN E

Preparation method of X element-doped graphene hydrogen storage material modified by palladium-X alloy, involves dispersing metal source, non-metal source and graphene in solvent to obtain mixed dispersion, freezing dry dispersion liquid to obtain powder, and carrying out heat treatment.

CHEN Y, YAN Y, XIA G, WANG Y, JIN C, WU C

Plasma enhanced chemical vapor deposition method used in semiconductor structure, comprises turning on radio frequency source of radio frequency system to decompose aromatic hydrocarbon precursor into multiple active radicals at specific frequency to form graphene layer on magnetic layer.

WU Z, NI I, XU Y, HUANG J, WU C, HSU Y, HUANG J Z, HSU Y H

Producing lithium iron phosphate used as anode material of lithium ion battery, comprises mixing trivalent iron salt, phytic acid and phosphate in water to obtain ferric phosphate precursor body fluid, mixing obtained solution with lithium salt and carbon source, drying and calcining.

WU C, LI C, XIN M

Preparing lithium iron phosphate used as anode material of lithium ion battery, comprises mixing trivalent iron salt, phytic acid, and phosphate in water to react to obtain ferric phosphate precursor body fluid, filtering, calcining and mixing with lithium salt and carbon source in water.

LAI Y, XIN M, WU C, LI C

Porphyrin phthalocyanine covalent bifunctional graphene nonlinear nano-hybrid material prepared by e.g. bonding porphyrin and phthalocyanine to surface of graphene through radical addition reaction, adding n-hexyl mercaptan and reacting with monoaminoporphyrin and isoamyl nitrite.

WU C, FU L, ZHANG C

Preparing copper oxide/graphene composite nano material useful for bifunctional electrode, comprises preparing copper oxide nano-particle solution, and mixing graphene nano-sheet dispersion liquid with copper oxide nano-particle solution.

WU C, HAO Y, TANG Y

Preparation of binary metal phosphate cathode material used for cathode sheet of battery by mixing phytic acid and phosphoric acid, adding transition metal salt and alkali metal salt, mixing, hydrothermally reacting, and annealing.

LI C, WU C