Samsung Electronics Co., Ltd.

Korea Institute of Science and Technology

Korea University Industrial Academic Collaboration Foundation

Osong Medical Innovation Foundation, Korea University Research and Business Foundation

Samsung Display Co., Ltd.

Byeong-kwon Ju

In-sang Song

Jin-Woo Lee

Byeoung-ju Ha

Yong-Chul Kim

Jae-Sung Rieh

Jea-shik Shin

Young-Min Park

Yun-kwon Park

Yoon-chul Son

Jeong-na Heo

Young-Ho Kim

Jinwoo Park

Hoon Sik Kim

Young-Chul Kim

Sung-woo Hwang

Hee-Tae Kim

Joo-won Lee

Ji Yoon Kang

Tae Song Kim

Byung Kyu Kim

Seok Pyo Yun

Eun Gyeong Yang

Hyun Joon Shin

Myung-Hwan Oh

Woo-Sung Cho

Jong Oh Park

Yong-Kyu Kim

Han-Sang Cho

Youngtak Lee

Seung-wook Kim

Yoon-Taek Jang

Jai-Kyeong Kim

Kwang-Ho Kim

Yu-Ri Kang

Cheolhwee Park

Kyeong-Kap Paek

Yun-Hi Lee

Chang-Hoon Choi

Woo-Beom Choi

Yun-Kwon Park

Youngwook Park

Jung Hwan Kim

A display device includes a light emitting element layer and a light scattering layer disposed on the light emitting element layer. The light scattering layer may include a low refractive part that includes a plurality of protruding portions and a high refractive part that covers the protruding portions.

Display device and manufacturing method thereof

A resonator fabrication method is provided. A method includes providing a plurality of electrode patterns disposed apart from each other on a substrate using a nano-imprint technique; and forming an extended electrode pattern connected to a plurality of electrode patterns, and forming a nano structure laid across an extended electrode patterns. Therefore, a nano-electromechanical system (NEMS) resonator is easily fabricated at a nanometer level.

Resonator and fabrication method thereof

A field electron emitter including a metal electrode; and a plurality of carbon nanotubes, wherein a portion of the plurality of carbon nanotubes protrude from a surface of the metal electrode and a portion of the plurality of carbon nanotubes are in the metal electrode. Also disclosed is a field electron emission device including the field electron emitter and a method of manufacturing the field electron emitter.

Field electron emitter, field electron emission device including the same, and method of manufacturing the field electron emitter

A field electron emitter includes a thin film layer including a carbon nanotube ('CNT') disposed on a substrate, wherein the thin film layer includes nucleic acid.

Field electron emitter including nucleic acid-coated carbon nanotube and method of manufacturing the same

A resonant structure is provided, including a first terminal, a second terminal which faces the first terminal, a wire unit which connects the first terminal and the second terminal, a third terminal which is spaced apart at a certain distance from the wire unit and which resonates the wire unit, and a potential barrier unit which is formed on the wire unit and which provides a negative resistance component. Accordingly, transduction efficiency can be enhanced.

Resonant structure comprising wire and resonant tunneling transistor

A method of preparing a field electron emitter includes preparing an aqueous solution including a carbon nanotube-nucleic acid composite, preparing a substrate to receive the carbon nanotube-nucleic acid composite, and electrophoresis-depositing the carbon nanotube-nucleic acid composite onto the substrate.

Method of preparing field electron emitter and field electron emission device including field electron emitter prepared by the method

Disclosed relates to a method and an apparatus for measuring fluorescence polarization FP in a lab-on-a-chip and, more concretely, to a method and an apparatus that measure quantitatively interactions between biomolecules and fluorescently labeled biomaterials and enzyme activities using the measurement of fluorescence polarization FP. The method and the apparatus of the invention provide rapid assays with minute amounts of samples using an automated device compared to conventional methods. Accordingly, the method and the apparatus of the invention can be usefully applied to the measurement of interactions between biomolecules and to the protease assays using a protein substrate.

Method and apparatus for measuring fluorescence polarization in lab-on-a-chip

The present invention discloses an inorganic thin layer which is composed of an inorganic composite containing at least two kinds of inorganic materials and shows excellent moisture and oxygen proof, an organic electroluminescence device including the inorganic thin layer as a passivation layer, and a fabrication method thereof.

Inorganic thin layer, organic electroluminescence device including the same, and fabrication method thereof

Disclosed are methods and apparatuses for separating cells using magnets and droplet type cell suspension according to the present invention, which may effectively separate cells by forming droplet type cell suspension with cell suspension sample containing cells to which magnetic beads are coupled and applying magnetic force to the droplet type cell suspension. The apparatus of separating cells according to the present invention includes: a droplet type cell suspension forming part for forming a droplet type cell suspension under a lower part of the droplet type cell suspension forming part with cell suspension sample containing cells to which magnetic beads are coupled; a cell suspension inlet for supplying the droplet type cell suspension forming part with the cell suspension sample; a magnet for applying magnetic force to the droplet type cell suspension; a cell buffer inlet for supplying the droplet type cell suspension with cell buffer; and a temperature maintaining part for maintaining a temperature of the droplet type cell suspension.

Methods and apparatuses of separating cells using magnets and droplet type cell suspension

A fabrication method of metallic nanowires includes the steps of: forming a layer of autocatalytic metal with a thickness of 30 nm-1000 nm on the surface of a substrate; and forming nanowires on the front surface of the layer of autocatalytic metal, wherein the substrate is put into an evaporator and the layer of autocatalytic metal is grown by autocatalytic reaction for 10&tilde;5000 seconds. A large amount of nanowires can be grown on a substrate without a lithography process.

Fabrication method of metallic nanowires

An electrostatic thermal bonding method for bonding a pair of glass substrates, is capable of solving the problems such as a contamination of a device and incomplete vacuum packaging due to gas generated during the bonding of glass substrates utilizing a conventional epoxy or frit. The electrostatic thermal bonding method uses a silicon-glass bonding mechanism. First, a silicon thin film is deposited on a metal thin film formed on a side of one glass substrate, and the two glass substrates are brought face to face with each other by bringing the silicon thin film into contact with the surface of the other glass substrate. A predetermined direct current voltage is applied between the metal thin film and the other glass substrate under a predetermined temperature, thereby the bonding between glass substrates is performed. In the glass-glass bonding method utilizing the silicon thin film, the direct current voltage in the range of 0 to 1000V is applied under a bonding temperature between 100 to 500&deg; C. and the elements are combined between a surface of the glass and a surface of the silicon thin film. Therefore, such a bonding results in an improved bonding strength and an improved vacuum packaging.

Method for electrostatic thermal bonding of a pair of glass substrates by utilizing a silicon thin film

Growing community of inventors

Seoul, South Korea

Byeong-kwon Ju