Korea Institute of Machinery & Materials

Korea Research Institute of Chemical Technology

Samsung Life Public Welfare Foundation

Korea Institute of Materials Science

Sung Gyu Park

Dong Ho Kim

Chang Su Kim

Jung Heum Yun

Gun Hwan Lee

Ho Sang Jung

Min Young Lee

Min Hee Kang

Kee-Seok Nam

Yung Doug Suh

Hyun Ju Park

Yong Soo Jeong

Jae Wook Kang

Jung-Dae Kwon

Sung Hun Lee

Hae Mi Lee

Byung Jin Cho

Jung Dae Kwon

Chae Won Mun

Jung Heum Yoon

The present invention relates to a target gene-detecting device and a method for detecting a target gene. According to an aspect, a target gene-detecting device can be conveniently fabricated at low cost by employing a porous substrate or a method for detecting a target gene allows the pretreatment of a sample, the extraction of a nucleic acid, the amplification of a nucleic acid, and the detection of a target gene to be conducted at high accuracy and specificity in an integral system, with no contamination plausibility and can be thus useful for gene inspection.

Target gene-detecting device and method for detecting target gene, using same

The present disclosure relates to a substrate with multiple nano-gaps and a manufacturing method therefor, and more particularly to a multiple nano-gaps substrate with high absorption and capable of using light sources in a wide range, and a manufacturing method therefor.

Substrate on which multiple nanogaps are formed, and manufacturing method therefor

The present disclosure relates to a substrate for surface enhanced Raman scattering, a fabricating method for the same and an analyzing method using the same. The present disclosure may provide a substrate for surface enhanced Raman scattering having excellent surface enhanced Raman scattering effects by randomly stacking of Ag nanowires in a simple way by utilizing a substrate having a filtering function, and a method for efficiently analyzing a material to be analyzed using the same.

Substrate for surfaced enhanced raman scattering, fabrication method for the same and analyzing method using the same

Disclosed are a substrate for surface-enhanced Raman spectroscopy allowing surface-enhanced Raman signals to be notably improved, even in cases of long-term storage, by producing the substrate so that metal nanoparticles thereon are distanced several nanometers apart, and a method for producing the substrate for surface-enhanced Raman spectroscopy at a large scale with simple equipment and at a low production cost.

Substrate for surface-enhanced Raman spectroscopy and method for producing same

A plasma generator according to an embodiment of the present invention is provided to generate a high density and stable plasma at near atmospheric pressure by preventing a transition of plasma to arc. The plasma generator includes a plate-shaped lower electrode for seating a substrate; and a cylindrical rotating electrode on the plate-shaped lower electrode, wherein the cylindrical rotating electrode includes an electrically conductive body that is connected to a power supply and includes a plurality of capillary units on an outer circumferential surface of the electrically conductive body; and an insulation shield layer that is made of an insulation material or a dielectric material, exposes a lower surface of the plurality of capillary units, and shields other parts.

Plasma generator, manufacturing method of rotating electrode for plasma generator, method for performing plasma treatment of substrate, and method for forming thin film having mixed structure by using plasma

Growing community of inventors

Changwon-si, South Korea

Sung Gyu Park