Samsung Electronics Co., Ltd.

Samsung Mobile Display Co., Ltd.

Sungkyunkwan University

Samsung Techwin Co., Ltd.

Samsung Display Co., Ltd.

Kumho Electric Inc.

Min-su Kim

Dong-Su Yee

Chan-Kyoung Moon

Dai-Han Cho

Hyun-hee Lee

Chi-Hyun Cho

Kuen-Dong Ha

Jung-Ho Hwang

Jung-Jun Im

Chan-Hee Wang

Ji-Ho Kang

Sung-chan Jung

Oh-June Kwon

Jae-Wook Lee

Byung-Sun Kim

Seung-Chul Choi

Jong-Chan Lee

Hee-Sung Kang

Young-Gun Ko

Young-wug Kim

Hyun-Min Hwang

Youngoo Yang

Kwang-il Kim

Ki-Youn Jang

Kun-Tak Kim

Kwang-Jin Yun

Sung-bae Park

Han-shin Shin

Seung-Kwan Choi

Young-goo Yang

Gi-Seung Choi

In-Sung Her

Hyo-Jin Weon

Yong-seok Lee

Song-Hark Lee

Byoung-chul Park

Joung-Chung Kim

Kyung-jin Jeon

A method of manufacturing an IC includes detecting connectivity between polygons from layout data of the IC and extracting a layout netlist, by performing a DRC on the layout data. The DRC includes loading a rule file including a DRC syntax. The method includes performing LVS verification on the extracted layout netlist and schematic data of the IC to generate LVS result data. The method includes manufacturing the IC according to a layout based on the layout data and the LVS result data.

Method for designing an integrated circuit, and method of manufacturing the integrated circuit

A method and apparatus for determining a control temperature to control a function of an electronic device by using an atmospheric temperature when controlling a temperature of the electronic device, and for controlling the function of the electronic device according to a control step of the determined control temperature are provided. A method of operating an electronic device includes measuring an atmospheric temperature, determining at least one control temperature corresponding to the measured atmospheric temperature, measuring an internal temperature of the electronic device, and controlling a function in accordance with the measured internal temperature of the electronic device and the determined at least one control temperature.

Heating control method and electronic device thereof

A light-emitting diode (LED) driving apparatus driving an LED module includes: a first output circuit configured to supply a first driving current to a first LED array; a second output circuit configured to supply a second driving current to a second LED array; and a controller configured to transmit a first control signal and a second control signal respectively to the first output circuit and the second output circuit, wherein the controller is further configured to control the LED module based on the first input signal so that a color temperature of the LED module has a value between a first color temperature and a second color temperature, to control brightness of the LED module based on the second input signal, and includes a lookup table including information about the first control signal and the second control signal respectively corresponding to the first input signal and the second input signal.

LED driving apparatus, lighting apparatus including the same, and method of driving LED module

An electronic device is disclosed. The electronic device may include a data provider that stores at least one piece of data for calculating a current consumption value according to each application type; and a processor that changes a data collection period according to a power state of the electronic device, collect data from the data provider, calculates the current consumption value according to each application type based on the power state of the electronic device based on the collected data, and displays the calculated current consumption value according to each application type on a display.

Electronic device and method of controlling power of electronic device

A photo sensor-integrated tubular light emitting apparatus includes a cylindrical cover unit, a light-emitting module and a pair of sockets. The cylindrical cover unit includes a heat dissipation member and a cover. The cover has light-transmittance and is combined with the heat dissipation member. The light-emitting module is disposed in the cylindrical cover unit and has a plurality of arrayed light-emitting devices therein. The pair of sockets is combined with ends of the cylindrical cover unit. A photo sensor module is disposed in one of the pair of sockets. A driving voltage applied to the light-emitting module is adjusted based on an amount of light sensed by the photo sensor module.

Photo sensor-integrated tubular light emitting apparatus and lighting system using the same

An apparatus and method for removing a transmission leakage signal from a radio frequency identification (RFID) reader are provided. The apparatus includes a removing unit having a device of a large impedance and a phase shifter capable of a wide range phase change with respect to a leakage signal, thereby optimally removing the transmission leakage signal irrespective of a change in the frequency characteristics and a change in the length of a cable.

Apparatus and method for removing transmission leakage signal

An apparatus for removing a leakage signal includes a coupler including a transmission port through which a transmission signal is input, an antenna port through which the transmission signal is output to an antenna and a receiving signal is input from the antenna, and a receiving port through which the receiving signal is output; and a removing unit which outputs, to the receiving port, a leakage removing signal having a same magnitude as one of or a sum of a magnitude of a first leakage signal of the transmission signal, which is generated at the transmission port and input to the receiving port, and a magnitude of a second leakage signal of the transmission signal which is input to the receiving port through the antenna port, the leakage removing signal having an opposite phase to one of the phases or an aggregate phase of the first and second leakage signals.

Apparatus for removing leakage signal

An organic light emitting diode display includes a panel assembly having a display section and a pad section, and a bezel that couples with the panel assembly. The bezel includes a back on which the panel assembly is placed, side walls located at an edge of the back of the bezel, and a protrusion reinforcing portion formed at a region corresponding to the pad section and a vicinity of the pad section in the back of the bezel.

Organic light emitting diode display

An Organic Light Emitting Diode (OLED) display reduces damage to a panel assembly with an improved bezel structure. The OLED display includes a panel assembly including a display area, a pad area, and a plurality of OLEDs arranged in the display area and a bezel attached to the panel assembly. The bezel is has a rebound resilience in a range of 50-70%. The bezel is made of a silicon-based rubber.

Organic light emitting diode (OLED) display device

An organic light emitting diode display that includes a display panel and a bezel to receive the display panel, the bezel including a first bezel and a second bezel, each of the first bezel and the second bezel including different materials and including a bottom portion and a skirt portion protruding from edges of the bottom portion.

Organic light emitting diode display and method of manufacturing the same

An OLED display includes a display panel having a display area and a pad area, a first bezel receiving the display panel, and a second bezel combined with the first bezel along a display panel side where the pad area is formed.

Organic light emitting diode display device having a second bezel

An aquatic light emitting device comprising a plurality of point light emitting units and a plurality of linear light emitting units is disclosed. The point light emitting unit comprises a floating member, a light source part, and a power supply part. The floating member includes a hollow body which has an internal space isolated from the outside so as to give buoyancy, one or more junction portions formed on an outer surface thereof, and has a light inlet opening formed on an upper part, and a string connected to a lower surface of the hollow body. The light source part is attached to the upper surface of the floating member, has an isolated internal space with light outlet openings provided at the upper and lower surfaces thereof, and a light source and a light source control circuit contained in the isolated internal space. The power supply part is located on the upper surface of the light source part and includes a solar cell. The linear light emitting unit comprises at least one optical fiber which is introduced into the hollow body through a hole formed at the junction portion, one end of which is arranged at the light inlet opening of the hollow body, and part of which extends outwards through the junction portion, and is surrounded by a transparent tube.

Aquatic light emitting device

A silicon-on-insulator (SOI) integrated circuit and a method of fabricating the SOI integrated circuit are provided. At least one isolated transistor active region and a body line are formed on an SOI substrate. The transistor active region and the body line are surrounded by an isolation layer which is in contact with a buried insulating layer of the SOI substrate. A portion of the sidewall of the transistor active region is extended to the body line. Thus, the transistor active region is electrically connected to the body line through a body extension. The body extension is covered with a body insulating layer. An insulated gate pattern is formed over the transistor active region, and one end of the gate pattern is overlapped with the body insulating layer.

SOI semiconductor integrated circuit for eliminating floating body effects in SOI MOSFETs and method of fabricating the same

Growing community of inventors

Suwon-si, South Korea

Min-su Kim