国家/地区 中国（25）
IPC部 B（25）
IPC大类 B01（25） C01（25） C02（3）
IPC小类 B01J（25）
IPC C01B003/06（25）
发明人 SUN L（5） XU F（5） WANG S（4）
CHU H（3） LI B（3） LI J（3）
LIU Y（3） QIU S（3） WANG Y（3）
ZHANG Z（3） ZOU Y（3） CHEN X（2）
FU X（2） LI Y（2） LIANG J（2）
公开年 2022（8） 2013（4） 2014（3） 2017（3） 2020（3）
申请年 2022（7）  2012（3）  2014（3）  2017（3）  2020（3）  2016（2）  2021（2） 
专利权人 UNIV GUILIN .（7） UNIV ANHUI N.（2） UNIV DONGHUA（2） UNIV ZHENGZH.（2）

Preparation of graphene oxide-loaded ruthenium-doped cobalt phosphide based aerogel used in e.g. preparing catalyst, involves dispersing composite material in water, adding chitosan, dispersing graphene oxide in water to obtain solution, removing bubbles, and drying.

LU J, WANG M, WANG Y, WANG C, YAN P

Preparation of graphene oxide-supported ruthenium(IV) oxide-cobalt phosphide for preparing hydrogen evolution catalyst, involves reacting graphene oxide-loaded zeolitic imidazolate framework-67 and ruthenium trichloride hydrate in water, collecting precipitate, and phosphating in inert atmosphere.

LU J, WANG M, WANG Y, WANG C, YAN P

Cobalt-carbon nano tube-titanium-graphene oxide composite catalyst useful for potassium tetrahydroborate hydrogen production comprises support, carbon nanotubes and cobalt-N compounds.

LI J, YIN J, WEN Q, ZHAO J, GAO Y, WANG X, WANG G

Graphene oxide-based nitrogen-doped porous carbon-coated ruthenium-cobalt phosphide composite material comprises using graphene oxide, cobalt salts, ruthenium salts, organic ligands and nitrogen sources as raw materials, and obtaining ruthenium through a hydrothermal method.

SUN L, XU F, ZOU Y, QIU S, HUANG W, XIA Y, WEI Q, CHU H

Cobalt-chromium-boron/nitrogen-doped graphene composite nanomaterials used as borohydride hydrolysis hydrogen production catalyst, comprises nitrogen-doped graphene, soluble chromium salts and soluble cobalt salts, ultrasonic compounding is carried out in the ratio of a certain amount of substances.

SUN L, XU F, JIANG C, FU X, LIANG J, YANG Z, LI H, LI B

Preparing composite material that is used for producing catalytic hydrogen, involves dispersing uniformly graphene oxide in water solvent, adjusting pH is adjusted, adding dopamine hydrochloride, stirring reaction at room temperature to obtain first mixed solution, dispersing uniformly metal salt.

ZHAO L, LI J, HOU S, YAN K, WANG S, ZHANG Z, LV L, TAO K, XUE Y

Preparing flexible nitrogen-doped graphene-coated cobalt phosphide hollow microspheres useful in catalysis of ammonia borane to release hydrogen, comprises e.g. uniformly mixing metal cobalt hollow microspheres with phosphorus-containing compounds and nitrogen source organic matter, and calcining.

XIAO L, WANG J, CUI D

Reduced graphene oxide supported bimetallic nanocluster catalytic material includes reduced graphene oxide as carrier, where ruthenium and nickel are reduced to ruthenium-nickel bimetallic nanoclusters.

SUN L, XU F, ZOU Y, QIU S, XIA Y, WEI Q, CHU H

Preparing phosphorus-doped graphene-supported nickel-platinum nanocatalyst for catalyzing hydrolysis reaction of hydrazine borane, involves reducing mixed solution of nickel(II) chloride hexahydrate, potassium hexachloroplatinate and graphene oxide aqueous solution using sodium borohydride.

LIANG J, SHANG H, BAI Y, LIU Y, LI S

Preparing graphene loaded transition metal nitride nano composite material used to catalyze the hydrolysis of hydrogen storage compounds to produce hydrogen comprises mixing transition metal salt and graphene oxide, heating and nitriding.

LI P, CHEN R, LIN Y, LI W