Samsung Electronics Co., Ltd.

Samsung Techwin Co., Ltd.

Sungkyunkwan University

Samsung Sdi Co., Inc.

Hyosung Advanced Materials Corporation

Hanwha Compound Corporation

Hanmin Automotive Trim Industry Co., Ltd.

Eun-Kyung Lee

Tae-Ho Kim

Dong-mok Whang

Byoung-lyong Choi

Jae-hyun Lee

Byoung-Iyong Choi

Tae-hwan Kim

Sung-hwa Chang

Seung-seup Yoo

Jung-Hoon Park

Seung-nam Cha

Yi-Yeol Lyu

Jong-Min Kim

Tae-Yong Noh

Do-Hwan Kim

Jong-Sung Park

Se-hyun Park

Won-Jae Joo

Yong-Hee Lee

Jin-Hyung Lee

Byung-Sung Kim

Do-hwan Kim

Chang-beom Shin

Soo-Hyoung Lee

Jong-kuk Mun

Sang-Jin Lee

Na-ri Choi

Bang-lin Lee

Jong-woon Lee

Kyung-Sang Cho

Sun-hwak Woo

Kook-min Han

Sang-Rae Song

Hyun-sik Moon

Bang-Lin Lee

Won-Jin Seo

Kyung-ho Ha

Won-Sik Choo

Young-Hwan Yoon

Jin-Ho Hwang

Byoung-Chul Park

Chang-Mo Seong

Choong-ho Yu

Byoung-Lyong Choi

Kook-Min Han

Hyun-Sik Moon

Disclosed herein is a method for manufacturing a sound insulation material, a sound insulation material manufactured using this manufacturing method, and a carpet for a vehicle using the sound insulation material, and the sound insulation material is manufactured using a composite resin composition including 30 parts by weight to 70 parts by weight of aluminum oxide, 10 parts by weight to 20 parts by weight of nanoclay, 0.2 parts by weight to 0.8 parts by weight of an antioxidant, and 0.1 parts by weight to 0.5 parts by weight of a lubricant, with respect to 100 parts by weight of a base resin including PE, and the carpet for a vehicle is manufactured by coating the sound insulation material on a carpet fabric material and drying the result.

Method for manufacturing sound insulation material, sound insulation material manufactured using the method and carpet for vehicle using the same

A graphene dot structure and a method of manufacturing the same. The graphene dot structure includes a core including a semiconductor material; and a graphene shell formed on the surface of the core. The graphene dot structure may form a network.

Graphene structure and method of manufacturing the same

According to example embodiments, a wire structure includes a first wire that includes a first wire core and a first carbon shell surrounding the first wire core, and a second wire that extends in a longitudinal direction from the first wire. The first wire core has a wire shape. The first carbon shell contains carbon.

Wire structure and semiconductor device having the same, and method of manufacturing the wire structure

A graphene structure and a method of forming the same may include a graphene formed in a three-dimensional (3D) shape, e.g., a column shape, a stacking structure, and a three-dimensionally connected structure. The graphene structure can be formed by using Ge.

Graphene structure and method of fabricating the same

Provided are a porous nanostructure and a method of manufacturing the same. The porous nanostructure includes a plurality of pores disposed on an exterior surface of a nanostructure, wherein at least a portion of the plurality of pores extend inside the nanostructure.

Porous nanostructure and method of manufacturing the same

A graphene structure and a method of manufacturing the graphene structure, and a graphene device and a method of manufacturing the graphene device. The graphene structure includes a substrate; a growth layer disposed on the substrate and having exposed side surfaces; and a graphene layer disposed on the side surfaces of the growth layer.

Graphene structure and method of manufacturing the graphene structure, and graphene device and method of manufacturing the graphene device

A composite structure of graphene and polymer and a method of manufacturing the complex. The composite structure of graphene and polymer includes: at least one polymer structure having a three-dimensional shape; and a graphene layer formed on the at least one polymer structure.

Composite structure of graphene and polymer and method of manufacturing the same

A graphene-polymer layered composite and a method of manufacturing the same is provided. A graphene-polymer layered composite includes polymer layers surrounding a graphene sheet, and may include numerous polymer layers and graphene sheets in an alternating stacked configuration. The graphene-polymer layered composite has the characteristics of a polymer in that it provides flexibility, ease of manufacturing, low manufacturing costs, and low thermal conductivity. The graphene-polymer layered composite also has the characteristics of graphene in that it has a high electrical conductivity. Due to the low thermal conductivity and high electrical conductivity, the graphene-polymer layered composite may be useful for electrodes, electric devices, and thermoelectric materials.

Graphene-polymer layered composite and process for preparing the same

A method of manufacturing graphene includes forming a germanium layer on a surface of a substrate, and forming the graphene directly on the germanium layer by supplying carbon-containing gas into a chamber in which the substrate is disposed.

Method of manufacturing graphene by using germanium layer

Digital camera

An organic semiconducting copolymer according to example embodiments may be represented by Formula 1 below: An organic electronic device may include the above organic semiconducting copolymer. The organic semiconducting copolymer according to example embodiments may provide improved solubility, processability, and thin film properties. Consequently, the organic semiconducting copolymer may be used in a variety of electronic devices. A suitable electronic device may be an organic thin film transistor. When an active layer of an organic thin film transistor includes the organic semiconducting copolymer, higher charge mobility and lower breaking leakage current may be achieved.

Organic semiconducting copolymer and organic electronic device including the same

Provided is a control method for a digital image processing apparatus having a movement mode in which a user moves a target object to a target position, the method including: displaying icons including an image icon of a target object and an icon indicating a target position; displaying an icon indicating a new target position in response to the detection of a target position change signal; displaying an image icon of a new target object in response to the detection of a target object change signal; and moving the target object of the image icon currently displayed to the target position indicated by the icon currently displayed in response to the detection of a movement signal.

Control method for digital image processing apparatus for convenient movement mode and digital image processing apparatus using the method

Growing community of inventors

Seoul, South Korea

Eun-Kyung Lee