Samsung Electronics Co., Ltd.

Won-seok Chung

Kak Namkoong

Joon-Ho Kim

Chin-sung Park

Kyung-ho Kim

Jeo-young Shim

Kyu-tae Yoo

Kyu-sang Lee

Won-jong Jung

Yeon-ja Cho

Sun-ok Jung

Kyu-youn Hwang

Hee-kyun Lim

Myo-yong Lee

Woochang Lee

Joon-sub Shim

Chang-Ho Lee

Chang-eun Yoo

Kwang-Yong Lee

Zion Kwon

Se-hun Oh

Yeo-wan Yun

Sung-min Chi

Soo-Kwan Lee

Sung-hong Kwon

Han-kyung Ji

A portable device includes a keyboard unit; a display unit; a connection unit which is connected to each of the keyboard unit and the display unit, moves relatively with respect to each of the keyboard unit and the display unit, and supports the display unit so that the display unit covers or uncovers the keyboard unit; and a controller which is placed inside the connection unit and controls operation of the portable device.

Portable device

A microfluidic system for analyzing nucleic acid, the microfluidic system including a reagent supply device including a sample chamber into which a sample can be injected, one or more reagent chambers for containing one or more reagents for extracting nucleic acid from the sample, and a waste chamber in which the used reagent can be discarded; a binding-lysis chamber in which cells are captured from the sample and lysed to form a cell lysate containing nucleic acid; plurality of particles for cell binding disposed in the binding-lysis chamber; a plurality of rehydration chambers into which the cell lysate formed in the binding-lysis chamber can be distributed and mixed with a nucleic acid amplification reagent to form an amplification reaction mixture; a plurality of amplification chambers in which a nucleic acid amplification reaction is performed on the amplification reaction mixture introduced from the plurality of rehydration chambers; and a flow channel system including an outlet and a plurality of inlets connected to the reagent supply device and forming an integrated fluid flow between the binding-lysis chamber, the rehydration chambers, and the amplification chambers.

Microfluidic system for nucleic acid analysis

A reagent supply device includes a plurality of chambers which are separated from each other such that different reagents may be injected, the plurality of chambers having bottom surfaces made of a membrane, the membrane comprising a destruction pattern which is formed at a position corresponding to each of the plurality of chambers and breachable by an external impact to discharge the injected reagent from the chamber.

Reagent supply device for analysis of nucleic acid

Provided is a semiconductor device including an asymmetric electrode arrangement in which a plurality of electrodes are arranged asymmetrically in a vertical or horizontal direction.

Semiconductor device including asymmetric electrode arrangement

Provided are a multi-channel fluorescence detecting module and a nucleic acid analysis system including the multi-channel fluorescence detecting module. The nucleic acid analysis system includes: a plurality of loaders configured to accommodate a plurality of cartridges respectively, the cartridges comprising microfluidic devices; a transfer module including a linear actuator, the linear actuator including a movable unit configured to move linearly; and a fluorescence detecting module fixed to the movable unit, the fluorescence detecting module being configured to emit excitation light to the cartridges and detect fluorescence emitted from samples on the cartridges. The loaders are arranged in a row in a linearly moving direction of the movable unit.

Multi-channel fluorescence detecting module and nucleic acid analysis system having the same

A microarray package device and a method of manufacturing the same. An effective microarray analyzing reaction is performed by using the microarray package device that provides structural stability and reliable experimental results.

Microarray package device and method of manufacturing the same

A method of analyzing nucleic acid by compensating for crosstalk in polymerase chain reaction (PCR) data and other data, wherein crosstalk signals associated with multiple fluorescent dyes are corrected by using fluorescent intensity variations detected from a concentration difference of the fluorescent dyes, and apparatus for performing the method.

Method and apparatus for analyzing nucleic acid by compensating for crosstalk in polymerase chain reaction data and other data

A fluid control apparatus including a detecting unit including a light source for irradiating light toward a microfluidic device, and a photodetector for detecting light reflected from the microfluidic device, a transporting unit for moving the detecting unit; and a determining unit for controlling a transporting operation by the transporting unit, where determining a state of a fluid at a particular position relative to the microfluidic device is based on light reflected from the microfluidic device, and method of using same.

Apparatus and method of detecting and controlling fluid in microfluidic device

A gene analysis apparatus includes a sample preparation chip in which a polymerase chain reaction ('PCR') sample is prepared, a PCR chip in which a PCR is performed on the PCR sample, and a package layer on which the sample preparation chip and the PCR chip are mounted. The package layer includes a channel through which a material flows from the sample preparation chip to the PCR chip. The sample preparation chip and the PCR chip are on a same side or on opposing sides of the package layer.

Gene analysis apparatus and gene analysis method using the same

A gene analysis device including an illumination optical system radiating exciting light onto a sample solution; a microfluidic device for forming a bio-reaction space of the sample solution and including at least one micro-chamber in which a reflection pattern is formed; and a detection optical system for detecting a fluorescence signal generated by a bio-reaction in the micro-chamber and comprising a photodetector.

Gene analysis device

A fluorescence detection optical system detects fluorescence beams with two or more different wavelengths and maintains a focal position through an automatic focusing function. A multi-channel fluorescence detection apparatus includes the fluorescence detection optical system. The fluorescence detection optical system includes an automatic focusing unit which receives light reflected off a microfluidic device and determines a focal point by using an astigmatic method or a knife edge method, and an actuator which adjusts a position of an objective lens according to control of the automatic focusing unit. In addition, the fluorescence detection optical system may include a plurality of dual band pass filters, dichroic devices, etc., which provide light beams emitted from at least two light sources and transfer fluorescence generated from the microfluidic device to a photodetector.

Fluorescence detecting optical system and multi-channel fluorescence detection apparatus including the same

A polymerase chain reaction ('PCR') apparatus includes a PCR chip holder which accommodates and supports a PCR chip, a housing which supports ends of the PCR chip holder, a temperature control element which moves perpendicularly with respect to the PCR chip holder in a space between the housing and the PCR chip holder in the housing, and an elastic unit which elastically biases the temperature control element toward the PCR chip holder, between the temperature control element and the housing. The temperature control element includes a top surface which is selectively contacted to a bottom surface of the PCR chip.

Polymerase chain reaction apparatus

A microarray reaction device includes a fluid container, a reaction chamber, a first channel connected with the fluid container, a second channel connected with the reaction chamber, and a valve. The valve includes a first and second support unit, respectively including a first and second penetration opening unit, extended through a first and second surface thereof. The first and second penetration opening unit is connected to a second end of the first and second channel, respectively. The second support unit includes a third penetration opening unit extended through a second surface thereof. The first and second surfaces contact each other, such that the first support unit and the second support unit are slidably disposed with each other. The microarray reaction device further includes a storing chamber connected with the third penetration opening unit, and a pump connected to the storing chamber and providing pressure to the storing chamber.

Microarray reaction device and method of using the same

A fluorescence detecting optical system, and a multi-channel fluorescence detection apparatus comprising same, comprising a light source that emits excitation light, a polarizer that transmits light having a predetermined polarization component, a polarizing beam splitter that transmits light having a predetermined polarization component and reflects light having a different polarization component than the predetermined polarization component, and a quarter-wave plate converting linearly polarized to circularly polarized light or vice versa.

Fluorescence detecting optical system and multi-channel fluorescence detection apparatus having the same

A field effect transistor for detecting an analyte having a thiol group includes a substrate, a source region and a drain region formed apart from each other on the substrate, the source region and the drain region being doped such that a polarity of the source and drain region is opposite to a polarity of the substrate, a channel region disposed between the source region and the drain region, an insulating layer formed of an electrically insulating material and disposed on the channel region, a gold layer disposed on the insulating layer and a reference electrode disposed apart from the gold layer.

Field effect transistor comprising gold layer, microfluidic device comprising the field effect transistor, and method of detecting analyte having thiol group using the field effect transistor and the microfluidic device

Growing community of inventors

Suwon-si, South Korea

Won-seok Chung