国家/地区 中国（199） 美国（29） 韩国（28） 世界知识产权组织（22） 日本（13） 欧洲专利局（EPO）（10） 印度（7） 新加坡（4） 台湾（4） 澳大利亚（3） 加拿大（3） 香港（2）
IPC部 C（238）
IPC大类 C01（238）
IPC小类 C01B（238）
IPC C09K011/65（238）
发明人 LIU Y（15） CHEN W（12） LIU X（11）
ZHANG L（11） LI X（10） LI Y（10）
LIU J（10） WANG L（9） WANG X（9）
ZHU X（8） CHEN Y（7） DING G（7）
LI Z（7） SHEN J（7） TANG L（7）
公开年 2022（38） 2018（33） 2017（30） 2021（28） 2016（26） 2020（22） 2014（16） 2015（16） 2019（13） 2023（10） 2012（4） 2013（2）
申请年 2021（38）  2016（27）  2017（27）  2019（27）  2022（25）  2015（23）  2018（23）  2014（19）  2020（13）  2013（8）  2012（3）  2023（3）  2011（2） 
专利权人 UNIV CHINA T.（8） UNIV SHANGHA.（7） UNIV SHANGHA.（6） SHANGHAI INS.（5）
UNIV YUNNAN .（5） KOREA ADVANC.（4） KOREA ADVANC.（4） UNIV NORTHWE.（4）
UNIV QUANZHO.（4） UNIV SHANGHA.（4） UNIV ANHUI（3） UNIV CHINA P.（3）
UNIV DONGHUA（3） UNIV GACHON .（3） UNIV GUANGXI.（3） UNIV GUILIN .（3）
UNIV NANJING（3） UNIV RICE WI.（3） UNIV RICE WI.（3） UNIV SEOUL N.（3）

Preparing magnetic fluorescent graphene, involves grinding graphite flakes and stainless steel needles magnetically, oxidizing with concentrated nitric acid and concentrated sulfuric acid, then ultrasonicating, calcining, dissolving in deionized water, suction filtering, dialyzing, and freeze-drying.

SONG Z, LI J, LIU Y, ZHAO Z, ZHANG B

Method for generating white light using white light-emitting quantum dots, involves mixing naphthalene and heteroatom co-doping compound, fabricating heteroatom co-doped graphene quantum dots from obtained mixture, and generating white light using obtained white-light emitting quantum dots.

SAGAR V K, BISHT P B

Preparing highly stable and efficient excitation dependent luminescent graphene quantum dots from Bougainvillea glabra flower involves washing Bougainvillea Glabra flower with bract and cutting into small pieces, and mixing pieces of bougainvillea Glabra flower with bract along with distilled water.

PANACHIKKOOL M, PANDIYARAJAN T

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 metal nitrogen-doped graphene quantum dot composite material useful e.g. for preparing ammonium perchlorate catalyst, by e.g. dissolving organic acid and organic amine in solvent, carrying out hydrothermal reaction, adding soluble metal salt, dialyzing, and freeze-drying.

YIN Z, WANG Y, JIANG L, FU X, XU J, NIE F

Preparing graphene quantum dot based on heterogeneous catalyst, comprises e.g. dispersing manganese dioxide particles in water, adding hydrogen peroxide and neutral graphene oxide solution into reaction solution, then adding hydrochloric acid and hydrogen peroxide, and post-processing.

WANG J, LU Y, GE M, ZHANG F, CUI D

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

Preparing graphene quantum dot involves modifying first graphene oxide, cutting into graphene quantum dot, dispersing graphene oxide into aqueous dispersion, adding ammonia water to dispersion to neutralize its acidity, and additionally adding ammonium chloride solution as an amine source.

GE M, LU Y, ZHANG F, CUI D

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

Light emitter for laser and switch for fabricating electronic device, includes substrate, and quasi-one-dimensional graphene nanomaterial coupled to substrate, where quasi-one-dimensional graphene nanomaterial includes one or more topological defects.

YEH N, KISHORE K P D D