Samsung Electronics Co., Ltd.

Humax Networks, Inc.

Samsung Display Co., Ltd.

Hyundai Motor Company

Samsung Mobile Display Co., Ltd.

Ajou University Industry-Academic Cooperation Foundation

Inha-Industry Partnership Institute

Telace Inc.

Young in Ace Co., Ltd.

Hun Joo Lee

Soo Suk Lee

Yeol Ho Lee

Ji-hoon Choi

Cheol-hoi Kim

Jin Tae Kim

Min-Kyu Kim

Jae-Kyeong Jeong

Jin-Seong Park

Yeon-gon Mo

Hui-Won Yang

Jong-Han Jeong

Hyun-Soo Shin

Tae-Kyung Ahn

Joo-yoon Bae

Nam Kyu Cho

Kieun Kim

Jung Nam Lee

Youn Suk Choi

Eun Chul Cho

Soosuk Lee

Chinsung Park

Soo Hyung Choi

Ki Baek Kim

Kak Namkoong

Jeong-gun Lee

Minseok Kim

Joon-Ho Kim

Jae Ho Kim

Sang Kyu Kim

Joon Hyung Lee

Hee-kyun Lim

Sung-young Jeong

Jeong Goo Lee

Jongmyeon Park

Mi Jeong Song

Jae Phil Do

Hee Kyun Lim

Joon Ho Kim

Dae Keun Park

Kee Hyon Park

Choon Woo Kim

Gyoung Soo Park

Hye Sung Jang

Taeseok Sim

No Hyoung Lee

Jae Uk Kim

Kyung Yeong Han

Kyung Yeon Han

Sung Young Jeong

Jin Hee Han

Eun Chol Cho

Sung Won Kang

Yoon Jin Jeong

Yeul Ho Lee

Provided is a mass spectrometer including: an ion generation unit configured to provide an ion generation path; an ion selection unit configured to provide an ion selection path connected to the ion generation path; a reaction unit configured to provide a reaction path connected to the ion selection path; a second ion selection unit configured to provide a second ion selection path connected to the reaction path; and an ion detection unit coupled to the second ion selection unit. The ion selection path and the reaction path extend in a first direction, and the reaction unit includes: a reaction pipe extending in the first direction to define the reaction path; and a sample inflow pipe coupled to the reaction pipe. The sample inflow pipe provides a sample inflow path connected to the reaction path, and the sample inflow path includes an inclined path. The inclined path extends to form an acute angle (α) with respect to the first direction.

Mass spectrometer

Wireless communication equipment includes a communication interface, a memory, and a processor electrically connected with the communication interface and the memory. The processor is configured to activate communication of the wireless communication equipment, to scan an external device for a network connection at a periphery of the wireless communication equipment, using the communication interface, to receive information including a mesh ID sent from the external device, using the communication interface, and to configure a mesh network with the external device by using the communication interface, when a designated string stored in the memory is included in the mesh ID.

Wireless communication equipment and method for configuring mesh network thereof

Disclosed are a charger and a method of charging an electric vehicle. A main body of the charger includes a plurality of sub main bodies coupled to each other to transform its shape. The charger with the main body having a first shape moves toward the electric vehicle, and is then transformed to have a second shape. The first shape refers to a shape allowing the main body to be movable on a ground, and the second shape refers to a shape making the main body occupy a smaller surrounding area of the electric vehicle than the first shape. The electric vehicle is charged as connected to the charger having the second shape. The charger does not obstruct traffic of other vehicles because its size is reduced during charging.

Charger for electric vehicle and charging control method of electric vehicle

A display control method of an electronic device is provided. The display control method includes sensing, by the electronic device, a chromaticity and an illuminance of an incident light, calculating an optimal white of a display based on the chromaticity of the incident light, and correcting the calculated optimal white by using the illuminance of the incident light.

Electronic device and display control method thereof

A method of sharing a wireless data service, including receiving, by a first terminal, a wireless data service share request from a second terminal, checking, by the first terminal, available wireless data service remaining amount information, and transmitting, by the first terminal, a response to the wireless data service share request to the second terminal based on the checked wireless data service remaining amount information. Another such sharing method includes requesting, by a second terminal, wireless data service remaining amount information available by a first terminal from the first terminal, transmitting, by the second terminal, a wireless data service share request to the first terminal based on the wireless data service remaining amount information received from the first terminal, and receiving, by the second terminal, a response to the wireless data service share request from the first terminal.

Method and apparatus for sharing wireless data service

A method of connecting to an online service where a terminal transmits information regarding a selected online service and first authentication information to an external device, receives second authentication information detected based on the transmitted information, from the external device, and is then logged into the selected online service based on the received second authentication information.

Method and apparatus for connecting to online service

A biosensor cartridge includes a plasma separator, a plasma metering chamber, a mixer, and a biosensor.

Biosensor cartridge

Provided is a method for amplifying a frequency variation of a detected signal in a biosensor that is used for detecting a biomolecule by measuring a change in frequency of an oscillating signal, the change being caused by pressure a biomolecule applies to a piezoelectric substance. The method for amplifying a frequency variation of a detected signal comprises the steps of: (a) applying a sample to a probe being fixed to an upper portion of a substrate of the biosensor to allow a biomolecule in the sample to be bound to the probe; (b) applying protein tagged with a metal particle to the biosensor to allow the protein and the biomolecule to be bound with each other; and (c) applying a metal enhancer to the biosensor to allow the metal enhancer to be bound to the metal particle having been bound to the protein.

Method for amplifying variation of frequency of signal in piezoelectrical biosensor

Provided is a multiple SAW sensor system capable of sensing a plurality of target materials in the SAW sensor with a single detector by using a multiplexer. According to the multiple SAW sensor system, the target materials in SAW sensors may be sensed with a single detector, thereby avoiding unnecessary power loss. Also, a plurality of target materials in a sample may be sensed, thereby reducing a waste of the sample.

Multiple surface acoustic wave sensor system

Provided herein is a fluid sensor, which includes a closed reaction unit in which reaction of a fluid sample takes place. The reaction unit is tapered on a side through which the fluid is injected so as to prevent generation of air bubbles during the injection of the fluid. Thus, the sensor has improved sensitivity.

Fluid sensor preventing generation of air bubbles

A method of manufacturing an IGZO active layer includes depositing ions including In, Ga, and Zn from a first target, and depositing ions including In from a second target having a different atomic composition from the first target. The deposition of ions from the second target may be controlled to adjust an atomic % of In in the IGZO layer to be about 45 atomic % to about 80 atomic %.

Thin film transistor having semiconductor active layer

A surface acoustic wave sensor system includes a base substrate, a piezoelectric substrate disposed on the base substrate, inter-digital transducer (IDT) electrodes disposed along a longitudinal direction on the piezoelectric substrate, each IDT electrode including an input inter-digital transducer and an output inter-digital transducer paired with and facing the input inter-digital transducer, each pair of input and output IDTs forming a surface acoustic wave unit sensor with the piezoelectric substrate, and connection electrodes disposed in the base substrate and electrically connected to the surface acoustic wave unit sensors.

Surface acoustic wave sensor system

Provided herein is a surface acoustic wave ('SAW') sensor device including an isolation component of a target biomolecule. A sample containing the target biomolecule is separated by its size using electrophoresis, and sequentially reacts with a SAW sensor. In other words, the device is capable of detecting the target biomolecule by separating biomolecules using electrophoresis, and applying the separated biomolecules to the SAW sensor.

Surface acoustic wave sensor device including target biomolecule isolation component

A pH adjusting apparatus includes an electrolytic chip receiving a solution, an electrolytic chip loading station receiving the electrolytic chip, an input unit inputting electrolysis conditions, a control unit receiving the electrolysis conditions and controlling electrolysis performed in the electrolytic chip, and a display unit displaying the electrolysis conditions and a progress of the electrolysis. Thus, the pH of a solution can be adjusted easily and accurately, by precisely controlling a constant current, a constant voltage, and current and voltage application times, thereby enabling useful application in various biological assays such as cell lysis. Furthermore, the pH adjusting apparatus has small size and weight and can be operated for a long time after charging once due to low power consumption.

Apparatus and method for adjusting pH of solution

Growing community of inventors

Seoul, South Korea

Hun Joo Lee