国家/地区 中国（26）
IPC部 H（15） C（9） B（7）
IPC大类 H01（15） B01（4） C01（4）
B82（3） C10（3）
IPC小类 H01G（10） H01M（5） B01J（3）
B82Y（3） C01B（3） C10M（3）
C10N（3） B01D（2）
IPC H01G011/24（9） H01G011/30（9） H01G011/36（7）
H01G011/46（7） H01G011/86（5） H01M004/36（4）
B82Y040/00（3） C10N030/06（3） H01M004/58（3）
H01M004/62（3） H01M010/0525（3） B82Y030/00（2）
C01B032/192（2） C10M125/02（2） C10M173/02（2）
发明人 LIU Y（26）
公开年 2018（9） 2016（4） 2017（4） 2015（3） 2019（3）
申请年 2018（8）  2016（6）  2015（3）  2019（3）  2014（2）  2017（2） 
专利权人 SHANGHAI INST TECHNOLOGY（26）

Preparation of graphene oxide/metal-organic framework-derived porous cobalt oxide/graphene material used in super capacitor, involves adding potassium hexacyanocobaltate solution to graphene oxide solution, ultrasonically mixing and adding cobalt chloride.

HUANG Y, LUO Y, KONG Y, ZHANG W, MA J, LIU X, WU Y, ZHU W, LIU Y, LIN H, HAN S, XUE Y

Preparing single-layer graphene-coated ferrous disulfide/carbon nanotube composite material involves e.g. dissolving iron sulfite in water and refluxing with sodium disulfide solution and graphene oxide and carbon nanotube suspensions.

HAN S, CHANG B, LIU Y, LIU F, KONG Y, MA J, SUN Y, XUE Y

Method for preparing flower-like nickel molybdate graphene three-dimensional composite material for use in supercapacitor electrode material, involves preparing aqueous solution of nickel(II) chloride and adding sodium molybdate dihydrate.

LU D, CHANG Z, XU Y, LIN J, LIU Y, ZHANG X, HAN S, LIN H

Preparing manganese-cerium-doped graphene catalyst useful in low-temperature SCR flue gas denitration system, comprises e.g. adding manganese nitrate tetrahydrate and urea into container, and dispersing.

JIN S, WANG J, YANG S, WU J, GU F, WEI X, LIANG H, WEI J, HOU J, JIN M, ZHANG R, LIU Y

Method for preparing nickel cobaltite/nitrogen-doped graphene composite material for supercapacitor electrode material, involves dissolving cobalt chloride hexahydrate, nickel chloride hexahydrate and urea in water followed by stirring.

LIN H, LIU S, HU X, CHEN J, LIU Y, YIN S, YANG T, HAN S

Microwave heating reduction of graphene oxide, involves ultrasonically processing mixed solution of graphite oxide and water, centrifuging, reducing obtained colloid, drying, microwave-reacting, and cooling.

JIN S, TANG S, MA M, ZHANG B, WANG J, YANG S, JIN M, ZHANG R, WANG Z, LIU Y

Preparing heteropoly acid-graphene oxide composite catalytic material comprises heating ammonium heptamolybdate tetrahydrate aqueous solution, adding aqueous solution of iron (III) nitrate hexahydrate, filtering, cooling and precipitating.

LU D, CHANG Z, LIU Y, HAN S, LIN J, ZHANG X, WEI W, XUE Y, CHANG W, YAN S, YAO L, LIAN J, ZHAO D, XIE M, CHEN F, REN X

Preparation of cobalt-nickel sulfide/graphene composite material for supercapacitor, involves mixing cobalt (II) nitrate hexahydrate, nickel(II) nitrate hexahydrate and thioacetamide in ethanol, and adding ethanol solution of graphene oxide.

LU D, CHANG Z, LIN J, HAN S, LIU Y, ZHANG X, XUE Y, WEI W, CHANG W, YAN S, YAO L, LIAN J, ZHAO D, XIE M, CHEN F, REN X

Method for preparing three-dimensional flower-shaped cobalt hydroxide-graphene composite material, involves adding graphene oxide into de-ionized water, followed by adding ammonia water and performing hydro-thermal reaction.

HAN S, ZHAO D, CHANG X, HUANG Q, CHANG W, LIN J, LIU Y, LIAN J, YAN S, YAO L, CHANG Z, XIE M, CHEN F, XUE Y, LI L, LIAO T, QIAN C

Preparation of flower-like cobalt tetroxide-graphene composite material involves mixing graphene oxide dispersion liquid and cobalt nitrate aqueous solution, adding urea, mixing, reacting, drying, heating, calcining, and naturally cooling.

HAN S, ZHAO D, CHANG X, HUANG Q, CHANG W, LIN J, LIU Y, LIAN J, YAN S, YAO L, CHANG Z, JIE M, CHEN F, XUE Y, QIAN C, LI L, LIAO T