Electronics and Telecommunications Research Institute

Samsung Electronics Co., Ltd.

Korea Research Institute of Standards and Science

Other

Kcc Corporation

Melfas Inc.

Jin Tae Kim

Kwang Hyo Chung

Choon Gi Choi

Seung Koo Park

Jung Jin Ju

Suntak Park

Min-su Kim

Jin Sik Choi

Jae-Woo Seo

Doo Hyeb Youn

Young Jun Yu

Hong Kyw Choi

Joong-Seon Choe

Myung Hyun Lee

Young-Jun Yu

Jong-Moo Lee

Min Su Kim

Ha-Young Kim

Hun Joo Lee

Kyeong Deok Moon

Jun Hee Park

Sun Tak Park

Chang-Geun Ahn

Bong Kyu Kim

Jong Gun Lee

Ji Yeon Son

Myung Yung Jeong

Sung-Soo Kim

Yun Kyung Park

Tae Joong Song

Keun Ho Lee

Chunglae Cho

Eun-Ju Jeong

Hyoung-Suk Oh

Dal Hee Lee

Dong-yeon Heo

Byeong Cheol Kim

Sung Mo Yang

Woon Seob So

Sung We Cho

Yong Uk Shin

Chul Huh

Woo Jin Lee

Joon-Ho Kim

Jin Soo Kim

Yong Ki Park

Hyong Sik Won

Hee-kyun Lim

Sung-young Jeong

Ki Uk Kyung

Tetsuo Ariyoshi

Jun Seok Park

Seung Han Lee

Young Tak Han

Yo Han Choi

Chang Seok Bae

Jun Young Lee

Dong Won Han

Yong Hyeon Shin

Yeong Bae Yeo

Jong Myeon Park

Choul Ho Lee

Myung-Hyun Lee

Hae Geun Kim

Do Gyoon Kim

Seung Soo Hong

Seok Ho Song

Ki Un Lee

Nam Hwi Hur

Yong Keun Jee

Hyun Min Kim

Sung Sik Nam

Chan Gi Kim

Hee Kyun Lim

Byung Soo Moon

Jun Tae Kang

Joon Ho Kim

Je Myung Park

Hyun Do Park

Sung Young Jeong

Hongkyw Choi

Choong Gunn Park

Joo Hun Han

Do Hyeon Lee

Jong Chul Park

Yong Moo Shin

Provided is a device for amplifying and detecting a gene. The device for amplifying and detecting the gene includes a gene amplification chip comprising channels through which a sample flows and transparent heaters provided on the gene amplification chip. The channels include a first channel, a second channel, and a third channel, and the first to third channels have a triangular loop structure, and the transparent heaters include a first transparent heater, a second transparent heater, and a third transparent heater, which are respectively provided on the first to third channels.

Method and device for amplifying and detecting gene

Provided is a PCR tube including: an outer tube configured to provide a first space having a blocked lower portion; and an inner tube inserted to the first space. Here, the inner tube includes: an inner tube body configured to provide a second space; and a spiral structure protruding from a side surface of the inner tube body to the outside of the inner tube body, and a micro-channel is defined by the outer tube, the inner tube body, and the spiral structure in a state in which the inner tube is inserted into the first space.

PCR tube, apparatus for PCR including the same and PCR method using the same

Provided is a biosensor. The biosensor includes a substrate, an optical structure provided on the substrate, and a cover provided on the substrate and having a bridge shape that is in contact with a top surface of the substrate at both sides of the optical structure. The cover has a channel extending in a first direction, the optical structure is provided inside the channel, and the optical structure is configured to capture biomaterials that travel through the channel.

Biosensor

Provided is a biosensor device. The biosensor device includes a light source configured to generate source light, a photodetector configured to detect the source light, and a sample box accommodating a biomaterial that receives the source light to generate structured light beam from the source light. The sample box may include a substrate, a spacer on an edge of the substrate, a cover plate on the spacer, and a lower metamaterial pattern disposed on a top surface of the substrate.

Biosensor device

Provided are a fluorescence generating device and a digital PCR analysis system including the same. The fluorescence generating device includes a clad layer on a substrate, an optical waveguide arranged in a first direction within the clad layer, and a housing which is disposed on the optical waveguide and the clad layer and has a micro fluid channel extending in a second direction. The optical waveguide includes an input waveguide which is provided within one side of the clad layer and provides excitation light to a liquid drop within the micro fluid channel to generate fluorescent light, and an output waveguide which is provided within the other side of the clad layer and has an output inclined surface that reflects the fluorescent light.

Fluorescence generating device and digital polymerase chain reaction analysis system including the same

Provided is a biomaterial removing device including an air injection part, a first processing part spaced apart from the air injection part, and a second processing part spaced apart from the air injection part with the first processing part therebetween, wherein the first processing part includes a first biomaterial removing part configured to remove biomaterials included in air collected from the air injection part and a first monitoring part, and the second processing part includes a second biomaterial removing part configured to remove the residual biomaterials and a second monitoring part, wherein the first biomaterial removing part includes a dry air purifier, the second biomaterial removing part includes a wet air purifier, and the first biomaterial removing part and the second biomaterial removing part each include an image sensor.

Device for removing biomaterial

Provided is an antistatic powder coating composition, which includes single-walled carbon nanotubes (SWCNTs) having specific physical properties as a conductive additive, thereby providing an environmentally friendly coating exhibiting excellent coating workability and constantly demonstrating stable surface resistance, irrespective of the thickness of a film.

Antistatic powder coating composition

Disclosed is a laser device. The laser device includes a substrate, a pump light source which is disposed on the substrate and provided with a light emitting layer configured to generate pump light, and an upper waveguide which is disposed above the pump light source in a first direction and provided with an upper resonator configured to allow laser light to be generated and resonate by using the pump light.

Laser device

Provided is fluid control equipment for bio-reaction, including a pipette configured to transport a reaction solution, and a liquid pump configured to adjust the internal pressure of the pipette.

Fluid control equipment for bio-reaction, bio-reaction system and fluid control method for bio-reaction

A method for calibrating the intensity of touch input pressure according to an input position in a touch input device. The method includes a step in which the touch input device detects a touch input through a touch panel; a step in which the touch input device determines the position of the touch input on the touch panel; a step in which the touch input device measures a degree of change in capacitance corresponding to the intensity of pressure according to the touch input; and a step in which the touch input device calibrates the intensity of the pressure according to the position of the touch input.

Method for measuring intensity of touch pressure in touch input device, and touch input device for detecting intensity of touch pressure

Provided is a pressure sensor including a first optical waveguide inside a lower substrate, a graphene layer above the lower substrate, an upper substrate above the graphene layer, and spacers between the lower substrate and the upper substrate.

Pressure sensor

A method of manufacturing a semiconductor device includes configuring a layout pattern; and forming conductive lines corresponding to the layout pattern on a substrate, wherein configuring the layout pattern includes: arranging pre-conductive patterns and post-conductive patterns for a first logic cell, a second logic cell, and a third logic cell; rearranging the pre-conductive patterns and the post-conductive patterns so that two conductive patterns that are adjacent to a boundary between two adjacent logic cells from among the first logic cell, the second logic cell, and the third logic cell are formed by different photolithography processes; and arranging conductive patterns for a dummy cell arranged between the second logic cell and the third logic cell.

Method for designing layout of semiconductor device and method for manufacturing semiconductor device using the same

An integrated circuit including a first standard cell including, first transistors, the first transistors being first unfolded transistors, a first metal pin, a second metal pin, and a third metal pin on a first layer, the first metal pin and the second metal pin having a first minimum metal center-to-metal center pitch therebetween less than or equal to 80 nm, a fourth metal pin and a fifth metal pin at a second layer, the fourth metal pin and the fifth metal pin extending in a second direction, the second direction being perpendicular to the first direction, a first via between the first metal pin and the fourth metal pin, and a second via between the third metal pin and the fifth metal pin such that a first via center-to-via center space between the first via and the second via is greater than double the first minimum metal center-to-metal center pitch.

Standard cell for removing routing interference between adjacent pins and device including the same

The present disclosure relates to a microfluidic control system and a microfluidic control method using the same. The microfluidic control system includes: a microfluidic chip including a storage chamber for storing a reaction solution and a receiving chamber communicating with the storage chamber; and a microfluidic control device for controlling the reaction solution inside the microfluidic chip, wherein the microfluidic control device includes: a first roller which is in contact with the microfluidic chip and rotates together with the movement of the microfluidic chip; and a pressurizing protrusion formed on the outer peripheral surface of the first roller, wherein the pressurizing protrusion has a shape corresponding to the storage chamber.

Microfluidic control system and microfluidic control method using the same

Growing community of inventors

Daejeon, South Korea

Jin Tae Kim