Lg Chem, Ltd

Samsung Electronics Co., Ltd.

Korea Institute of Science and Technology

Korea Institute of Ceramic Engineering and Technology

Sung-Ho Yoon

Won-Jong Kwon

Sang-Ho Kim

Woo-Ram Lee

Kyung-Hoon Lee

Hyuk Joo Kim

Ki-Huk Lee

Won Jong Kwon

Jin-Hong Jeong

Seung-Cheol Lee

Jung-Won Park

Hyung-Jin Jung

Tae-Gun Park

Gyo-Hyun Hwang

Se-Ho Park

Sung-Kyu Lee

Sang-Uck Lee

Eunhae Koo

Yeo-Jin Jeon

Jong-chul Lee

Jong-hee Kim

Goo-Dae Kim

No-Kyung Park

Yong-Gyu Shin

Sang-Keun Yoo

A method for processing content in an electronic device and an electronic device for doing the same are provided. The method includes acquiring content including at least one character, and performing at least one of classifying the acquired content into at least one of a plurality of categories by analyzing the acquired content or generating vector images including a vector image corresponding to the at least one character based on the acquired content and displaying at least a part of the vector images on a display functionally connected to the electronic device.

Method of processing content and electronic device using the same

The present invention relates to a metal nanoplate, a method for manufacturing same, and a conductive ink composition and a conductive film comprising metal nanoplate. The metal nanoplate does not require application of a high temperature and high pressure and thus can be easily manufactured at a low temperature and at normal pressure, and a conductive film or a conductive pattern, among others, having excellent conductivity can be formed even when the conductive ink composition comprising the metal nanoplate is printed on a substrate and then heat-treated or dried at a low temperature. As a result, the metal nanoplate and the conductive ink composition comprising same can be very appropriately applied to various semiconductor elements, display devices, or when forming a conductive pattern or a conductive film for a solar cell in an environment requiring low-temperature firing.

Metal nanoplate, a method for preparing the same, a conductive ink composition, and a conductive film comprising the same

The present invention relates to a belt-shaped metal nanostructure in which a wide surface area of catalytically active material can be realized even by a relatively small amount thereof so that it shows an excellent catalytic activity, and a method for preparing same.

Belt-shaped metal nanostructure and method for preparing same

This disclosure relates to a method of preparing a metal nanobelt. According to the method, a metal nanobelt having various applicabilities, for example, capable of easily forming a conductive film or a conductive pattern with excellent conductivity, may be easily prepared by a simple process at room temperature and atmospheric pressure. The method comprises reacting a conductive polymer and a metal salt.

Preparation method of metal nanobelt

The present invention provides a nanohybrid type nitrogen monoxide detecting sensor and a production method therefor in which the nanohybrid type nitrogen monoxide detecting sensor includes a fluorescent semiconducting quantum dot and a transition metal compound. Employing a nanohybrid structure including semiconducting quantum dot nano-particles combined with a molecule recognizer selectively forming a bonding to nitrogen monoxide, the nitrogen monoxide detecting sensor is enabled to detect an infinitesimal amount of nitrogen monoxide by bringing about photoluminescence upon detection of nitrogen monoxide.

Nanohybrid nitrogen monoxide detecting sensor and a production method therefor

A CuO spherical assembly particle composition is composed of CuO spherical assembly particles, each of which is formed by agglomerating a plurality of CuO ultrafine particles that have an average diameter in the range from 1 to 100 nm and a standard deviation on the diameter in the range from 0 to 10%. The CuO spherical assembly particles have an average diameter in the range from 0.1 to 10 &#x3bc;m and a standard deviation on the diameter in the range from 0 to 40%. This CuO spherical assembly particle composition is composed of CuO assembly particles with excellent uniformity, so it shows excellent properties such as realizing a good electric conductivity during a curing process for wiring. Accordingly, the spherical CuO assembly particle composition may be usefully used as precursors for solar energy conversion, magnetic storage medium, catalyst, gas sensor, and copper wire formation.

Spherical assembly particle composition of cuprous oxide and preparation method thereof

A preparation method of a copper particle composition includes dissolving a copper carboxyl compound, or a carboxyl group-containing compound and a copper salt, in a solvent to prepare a copper(II) precursor solution; putting a weak reducing agent with a standard reduction potential of &#x2212;0.2 to &#x2212;0.05V to the prepared copper(II) precursor solution to assemble a plurality of CuO fine particles having an average diameter of 1 to 100 nm with a standard deviation of 0 to 10%, thereby forming spherical CuO assembly particles having an average diameter of 0.1 to 10 &#x3bc;m with a standard deviation of 0 to 40%; reducing the spherical CuO assembly particles into copper particles by using a reducing agent; and separating the copper particles from the result product. Thus, copper particles can be produced fast, economically, and the obtained copper particles have good crystallinity and good resistance against oxidation.

Preparation method of copper particle composition

The vacuum insulator in accordance with the present invention comprises glass white wool body which density is 0.1&#x2dc;0.5 g/cmin density and is below 0.0023 kcal/mh&#xb0; C. in thermal conductivity, and a non permeable container surrounding the body in which the pressure is between 10&#x2dc;10torr. The vacuum insulator is fabricated by piling up glass white wool, thermal-pressutizing the piled glass white wool to form a body of 0.1&#x2dc;0.5 g/cmin density wherein the pressurizing is done at 0.007&#x2dc;1.5 kg/cmand under 20&#xb0; C. for more than 10 minutes, putting the body in the non-permeable container, and producing a vacuum in the container.

Vacuum insulator using glass white wool and its fabrication method

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Seoul, South Korea

Sung-Ho Yoon