国家/地区 中国（10）
IPC部 C（10）
IPC大类 C01（10） B82（8） B22（7）
C09（7） C25（7）
IPC小类 C01B（10）
IPC C01B031/04（10） B82Y040/00（8） B22F009/24（7）
C09K003/00（7） C25D013/00（7） B82Y030/00（3）
发明人 LIU Y（10）
公开年 2016（10）
申请年 2015（10）
专利权人 LIU Y（7）

Manufacture of graphene-nano nickel thermoelectric thin film involves washing copper substrate with acetone, deionized water and methanol, placing substrate in container including uniform graphene solution, and performing electrophoresis.

LIU Y

Manufacture of graphene-supported nano-nickel thermoelectric composite film involves mixing sulfonated graphite, triblock copolymer and ammonium acetate, adding nickel chloride, heating, forming membrane and performing electrophoresis.

LIU Y

Preparation of graphene-nano nickel thermoelectric thin film involves preparing wave-absorbing material from oxidized graphite, adding deionized water, and performing electrodeposition on copper substrate using obtained solution.

LIU Y

Preparation of graphene-loaded nano-nickel thermoelectric composite thin film involves preparing wave-absorbing material from oxidized graphite, adding to deionized water and electrodepositing obtained solution on copper substrate.

LIU Y

Preparation of graphene-loaded nano-nickel thermoelectric composite thin film involves preparing wave-absorbing material from oxidized graphite, adding to deionized water and electrodepositing obtained solution on copper substrate.

LIU Y

Preparation of graphene-loaded nano-nickel thermoelectric composite thin film involves preparing wave-absorbing material from oxidized graphite, adding to deionized water and electrodepositing obtained solution on copper substrate.

LIU Y

Graphene-supported nano-nickel thermoelectric thin-film is obtained by preparing wave-absorbing material using e.g. surface-treated graphite oxide, mixing with water and depositing resultant on processed copper substrate.

LIU Y

Preparation of graphene oxide-ionic liquid composite film involves adding graphene oxide aqueous solution to ionic liquid solution, obtaining mixed solution of graphene oxide and ionic liquid, suction-filtering, and drying.

LIU Y, MIN Y, MO S, SHEN J, ZHANG D

Ultrasonic cutting of graphene oxide comprises e.g. adding water to graphene oxide, performing ultrasonic treatment, controlling temperature suspension graphene oxide, centrifuging and drying graphene oxide precipitate.

CENG Z, CHEN K, LI S, LIU Y, WANG L, XU J

Deoxyribonucleic acid fluorescence detection involves adding carboxy-fluorescein-labeled single-stranded deoxyribonucleic acid and target strand deoxyribonucleic acid to buffer, adding reduced graphene oxide, reacting and detecting.

CHEN W, LIU Y, WANG Y, DENG H, HONG G