国家/地区 中国（173）
IPC部 B（173）
IPC大类 B82（173）
IPC小类 C01B（173）
IPC B82Y030/00（113） B82Y040/00（105） C01B032/184（61）
C01B031/04（42） C01B032/194（34） G01N021/64（32）
B82Y015/00（29） C09K011/65（28） B82Y020/00（27）
C01B032/198（25） G01N027/30（23） C01B031/02（21）
G01N027/12（18） C01G009/02（15） B22F009/24（14）
发明人 ZHANG H（9） GAO X（8） WANG L（8）
LIU J（7） LIU X（7） WANG X（7）
YUE H（7） LI J（6） LI Y（6）
WANG J（6） WANG Y（6） ZHANG J（6）
JIANG K（5） LI X（5） WANG Q（5）
公开年 2021（32） 2022（28） 2020（22） 2014（13） 2017（13） 2018（10） 2019（10） 2013（9） 2016（9） 2023（9） 2011（8） 2015（5） 2012（3）
申请年 2021（33）  2020（23）  2022（22）  2019（18）  2017（12）  2012（11）  2013（10）  2016（10）  2015（7）  2014（6）  2018（6）  2011（5）  2023（4）  2009（3）  2010（3） 
专利权人 UNIV HARBIN .（7） UNIV TSINGHU.（6） HON HAI PREC.（5） HONGFUJIN PR.（5）
SHANGHAI INS.（4） EMPIRE TECHN.（3） UNIV CHINA T.（3） UNIV HENAN（3）
UNIV JINAN（3） UNIV SHANGHA.（3） UNIV ZHONGYU.（3） ENPAL TECHNO.（2）
ISLAND GIANT.（2） QINGDAO FENG.（2） SHANGHAI INS.（2） SHANGHAI NAT.（2）
SONY CORP（2） SUNG C（2） UNIV CHONGQI.（2） UNIV GUANGZH.（2）

Atomic force microscope based graphical method, involves emitting titanium dioxide beam emitted by UV laser beam on probe on same area as ultraviolet laser beam, so that oxidation graphene area is reduced to be graphene, and to form graphene pattern.

WANG M, LIU C, YAO S, PENG X, ZHANG Z

Method for preparing graphene sub-nanoscale gap by feedback control electric breakdown, involves stopping voltage to apply to two ends of single-layer graphene nanoribbon when resistance of single-layer graphene nanoribbon reaches preset resistance to construct and obtain graphene sub-nanoscale gap.

SU M, HONG W, LIU J, ZHANG C, YUAN Z

Preparation of graphene quantum dots used as e.g. fluorescent (closed) probe, involves carbonizing sea rice, dispersing in alkali solution, oxidizing with hydrogen peroxide, adjusting pH to neutrality, filtering, and dialyzing.

ZHENG C, LIANG Z, KANG X, WU Y, LUO X, LUO K, WEN Y

Preparing electrochemical sensor used for detecting zearalenone in food, involves modifying graphene nano ribbons and gold nanoparticles onto glassy carbon electrode by electrodeposition, and using electro polymerization to polymerize molecularly imprinted membrane on modified electrode surface.

ZHONG M, LI X, XIE H, SHENG X, ZHOU B

Preparing nitrogen and sulfur co-doped pH responsive graphene quantum dots used in pH value responsive reagent for selective iron detection, involves mixing carbon source compound and nitrogen and sulfur source compound, carrying out a hydrothermal reaction, centrifuging and filtering.

LI D, YAN J, ZHOU Y, LIU X

Preparation of double-layer polymer modified graphene material used in separation and enrichment of glycoprotein, involves mixing e.g. hydrophilic polymer and solvent for electrostatic adsorption, and mixing obtained material with hyaluronic acid buffer salt solution for electrostatic adsorption.

GUAN S, LI H, YU J, PENG J, WANG L, DONG P, ZHAO Y

Preparing modified graphene quantum dots involves mixing graphene oxide, hydrogen peroxide and N,N dimethylformamide, subjecting resulting dispersion to solvothermal reaction to obtain GQDs (graphene quantum dots), mixing GQDs, 1-(3-dimethylaminopropyl)-3-ethylcarbodiimide hydrochloride.

WU L, CAI F, CHEN G, GUO Y, ZHAO Q

New nitrogen-copper doped graphene compound used as quantum dots for detecting quercetin and tetracycline antibiotics including doxycycline.

HU H, WANG L, WANG Y, LI X, GUO G, TANG S, WANG C, CHENG J, CHEN D, LI T

Preparing ampicillin molecularly imprinted electrochemical sensor based on graphene nanocomposite synergies comprises e.g. ultrasonically cleaning alumina powder, constructing three-electrode system, constant potential depositing, preparing prepolymerization solution and electropolymerizing.

LUO J, YANG Y, XIE J, ZHAO J, LIU S, LIAN W

Use of nickel cobalt sulfide doped nitrogen and sulfur-reduced graphene oxide nanomaterials in visual detection of glucose.

YE H, LIU T, ZHANG L, WANG X