Samsung Electronics Co., Ltd.

Samsung Sdi Co., Inc.

Sungkyunkwan University

Samsung Electro-mechanics Co., Ltd.

Industry-university Cooperation Foundation Hanyang University

Corning Precision Materials Co., Ltd.

Samsung Corning Precision Glass Co., Ltd.

Az Electronic Materials (japan) K.k.

Kumoh National Institute of Technology Industry-academic Cooperation

Samsung Display Co., Ltd.

Korea Advanced Institute of Science and Technology

Yonsei University

Samsung Corning Co., Ltd.

Kumoh National Institute of Technology Industry-academic Cooperation Foundation

Hanool Robotics Corp.

Jae-young Choi

Seon-mi Yoon

Hyeon-jin Shin

Won-mook Choi

Soon-ho Kim

Young-hee Lee

Young-Hee Lee

Seok-soo Lee

Eun-Sung Lee

Jai-yong Han

Sang-woo Kim

Yun-sung Woo

Yoon Chul Son

Yong-kyun Lee

Ho-bum Park

Sung-Jin Kim

Chan-ho Pak

Sang-Yoon Lee

Hi-Kuk Lee

Sang Il Kim

Hyeon Cheol Park

Doh Won Jung

Se Yun Kim

Byung-Ki Kim

Yun Sung Woo

Young-gyoon Ryu

Seung-Hyun Hong

Duck-young Yoo

Chan Kwak

Han-su Kim

Woojin Lee

Young-Gyoon Ryu

June-mo Koo

Seoung-jae Im

Moon-seok Kwon

Jinyoung Hwang

Daejin Yang

Bum Jun Kim

Kwang Hee Kim

Tae-Wan Kim

Sang-Hyun Yun

Won-young Kim

Kyung-sang Cho

Do-yun Kim

Eok-su Kim

Jong Wook Roh

Sung Woo Hwang

Jeong-Hee Lee

Kyoung-Seok Moon

Jin Seok Seo

Sang-Kook Mah

Youngjin Cho

Min-su Cheon

Jae-Ho Lee

Sang-hoon Lee

Jeong-Min Park

Jung-hyun Lee

Sang-Ho Lee

Jin Zhang

Sun-il Kim

Jongmin Lee

Myung-Kwan Ryu

Tae-wan Kim

Kyung-bae Park

Won Mok Kim

Tae-Gyun Kim

Tae-sang Kim

Jang-yeon Kwon

Jae-man Choi

Yu-Mi Sohn

Kwang-Soo Seol

Chang-Hyun Cho

Woong Il Choi

Yo-sep Min

Tae-hee Kim

Ji-sim Jung

Jae-hee Cho

Jeong-hee Lee

Woo-Seok Jeon

Byung-Soo Kim

Doo-Hee Jung

Su-jin Kim

Kwang-soo Seol

Ji-hoon Park

Dokwan Oh

Un-jeong Kim

Kyung-Seok Son

Moon-gyu Lee

Eun-sung Kim

Chang-ho Noh

Seok-gwang Doo

Shin-Ae Jun

Youn-Seon Kang

Jong-soo Rhyee

Whan-Kyun Kim

Sung-kyu Jang

Byoung-Ho Cheong

Un-gyu Paik

Ki-won Sohn

Bulliard Xavier

A method for manufacturing monocrystalline graphene, includes supplying an aromatic carbon gas onto a single-crystalline metal catalyst to manufacture the monocrystalline graphene.

Method for manufacturing monocrystalline graphene

An electrode structure includes: a first nonconductive layer; a first conductive layer disposed on the first nonconductive layer; a second nonconductive layer disposed on the first conductive layer; a second conductive layer disposed on the second nonconductive layer; and a third nonconductive layer disposed on the second conductive layer, where at least one of the first conductive layer and the second conductive layer includes a two-dimensional conductive material.

Electrode structure and touch detecting sensor using the same

A method of preparing crystalline graphene includes performing a first thermal treatment including supplying heat to an inorganic substrate in a reactor, introducing a vapor carbon supply source into the reactor during the first thermal treatment to form activated carbon, and binding of the activated carbon on the inorganic substrate to grow the crystalline graphene.

Direct graphene growing method

The present disclosure relates to a one-dimensional nano-chain structure including a single crystal structure as a minimum repeat unit structure.

One-dimensional nano-chain structure and preparing method thereof

An ultrasound medical imaging method includes: displaying an ultrasound image on a screen; determining a view plane, on which the displayed ultrasound image is captured, among view planes; and setting a region of interest corresponding to the determined view plane on the ultrasound image.

Ultrasound apparatus and ultrasound medical imaging method for identifying view plane of ultrasound image based on classifiers

An electrically conductive thin film including a compound represented by Chemical Formula 1 and having a layered crystal structureMeCh&#x2003;&#x2003;Chemical Formula 1

Electrically conductive thin films

A transparent electrode on at least one surface of a transparent substrate may include graphene doped with a p-dopant. The transparent electrode may be efficiently applied to a variety of display devices or solar cells.

Transparent electrode comprising doped graphene, process of preparing the same, and display device and solar cell comprising the electrode

A graphene laminate including a substrate, a binder layer on the substrate, and graphene on the binder layer, wherein the graphene is bound to the substrate by the binder layer.

Graphene laminate and method of preparing the same

A heat radiation-thermoelectric fin includes a thermoelectric inorganic material on a heterogeneous laminate of graphene. The heterogeneous laminate may be tube-shaped or plate-shaped, and a metal conductor may be coupled to one or more of the heterogeneous laminate. A thermoelectric module may be formed to include the fin, and a thermoelectric apparatus may include a heat supplier connected to the thermoelectric module.

Heat radiation-thermoelectric fin, and thermoelectric module and thermoelectric apparatus including the heat radiation-thermoelectric fin

An electrically conductive film including a compound represented by Chemical Formula 1 and having a layered crystal structure:MeCh&#x2003;&#x2003;Chemical Formula 1wherein, Me is Ru, Os, Re, Rh, Ir, Pd, Pt, Cu, Ag, or Au, and Ch is sulfur, selenium, tellurium, or a combination thereof.

An electrode structure includes a rolled graphene film which is wound about a central axis, and a nanomaterial dispersed on a surface of the rolled graphene film.

Electrode structure having rolled graphene film

An aqueous composition including: a conductive metal nanoparticle having an organic compound disposed on a surface of the conductive metal nanoparticle; a conductive metal nanowire; and a solvent including water and optionally an alcohol.

Aqueous compositions, methods of producing conductive thin films using the same, conductive thin films produced thereby, and electronic devices including the same

Provided is a process for economically preparing a graphene shell having a desired configuration which is applicable in various fields wherein in the process the thickness of the graphene shell can be controlled, and a graphene shell prepared by the process.

Graphene shell and process of preparing the same

An electrically conductive thin film including a plurality of nanosheets including a doped titanium oxide represented by Chemical Formula 1 and having a layered crystal structure:(ATi)O&#x2003;&#x2003;Chemical Formula 1wherein, in Chemical Formula 1, &#x3b4; is greater than 0, A is at least one dopant metal selected from Nb, Ta, V, W, Cr, and Mo, and &#x3b1; is greater than 0 and less than 1. Also, an electronic device including the electrically conductive thin film.

Growing community of inventors

Suwon-si, South Korea

Jae-young Choi