Samsung Electronics Co., Ltd.

Lg Electronics Inc.

Qualcomm Incorporated

Harvard College

Jinseok Lee

Kyubong Choi

Junseok Lee

Junmo Park

Yeonho Park

Eunsil Park

Chungho Cho

Hyunho Lee

Jae-Young Kim

Jae-won Choi

Sungil Cho

Hongkun Park

Seungbo Shim

Kyu Woong Hwang

Yeon-Gon Cho

Kyungho Lee

Alexander K Shalek

Won-Sub Kim

Hyunsik Kim

Pankaj Agarwal

Sungyong Lim

Parichay Kapoor

Byeonggeun Kim

Wootae Kim

Donghyeon Na

Rakie Kim

Heejun Shim

Apoorv Kansal

Jiho Uh

Nam Kyun Kim

Sunho Moon

Wonjin Kim

Jin Young Bang

Myung-Han Yoon

Jin-Hyo Kim

Keongho Lee

Minjoon Kim

Mingu Lee

Nikunj Saunshi

Jisu Oh

Kihong Cho

Dooyong Sung

Dong-Gi Jang

Seung-Beom Lee

Marsela Jorgolli

Wangseop Lim

Hyunghoon Kim

Jinkyu Lee

Wonil Chang

Subin Jo

Yenjo Han

EunGyeong Yang

Jacob Robinson

Amy Sutton

Kyuchul Shim

Namki Cho

Moongi Jeong

Changguk Lee

Changhun Yu

Tae-sun Shin

Deokjin Kwon

Minwook Ahn

Bongju Lee

Kyoungsoo Cho

A semiconductor device is provided. The semiconductor device includes: first, second and third active patterns on a logic cell region of a substrate and are spaced apart from each other in a first direction; first and second gate electrodes, the first gate electrode crossing the first active pattern and the second gate electrode crossing the second active pattern; a first separation pattern provided between the first and second active patterns; a second separation pattern provided between the second and third active patterns; a first gate insulating layer interposed between the first gate electrode and the first active pattern; and a first gate cutting pattern interposed between the first and second gate electrodes, and in contact with a top surface of the first separation pattern. The first separation pattern is wider than the second separation pattern, and the first gate insulating layer extends between the first gate electrode and the first separation pattern, and contacts side and top surfaces of the first separation pattern.

Semiconductor device

A semiconductor device includes a substrate including a first active fin and a second active fin respectively extending in a first direction, the substrate having a recess between the first and second active fins, a device isolation film on the substrate, first and second gate structures on the first and second active fins, respectively, and extending in a second direction, and a field separation layer having a first portion between the first and second active fin and in the recess, and a second portion extending from both sides of the first portion in the second direction to an upper surface of the device isolation film. The recess has a bottom surface lower in a third direction intersecting the first direction and the second direction than the upper surface of the device isolation film, and a region of the upper surface of the device isolation film has a flat surface.

System and method for operating an always-on ASR (automatic speech recognition) system by selecting target keywords and continuously detecting the selected target keywords in voice commands in a mobile device are provided. In the mobile device, a processor is configured to collect keyword candidates, collect usage frequency data for keywords in the keyword candidates, collect situational usage frequency data for the keywords in the keyword candidates, select target keywords from the keyword candidates based on the usage frequency data and the situational usage frequency data, and detect one or more of the target keywords in a voice command using continuous detection of the target keywords.

Target keyword selection

Discussed is a backlight unit, including a base substrate; a partition wall on the base substrate and including a plurality of grooves; semiconductor light-emitting devices on the base substrate and in the plurality of grooves, respectively; a phosphor layer defined in each of the plurality of grooves to cover the semiconductor light-emitting devices and absorbs light in a specific wavelength band to emit light in a wavelength band different from the light in the specific wavelength band; a light diffusion layer that above the phosphor layer and diffuses light; and a spacer between the partition wall and the light diffusion layer, wherein the spacer includes: a body part attached to the partition wall; and a protruding part protruding in a direction toward the light diffusion layer and attached to the light diffusion layer, such that the light diffusion layer and the phosphor layer are spaced apart from each other.

Backlight unit using semiconductor light-emitting element

A method of fabricating a semiconductor device include; seating a substrate having a substrate radius on an electrostatic chuck, applying first radio-frequency power to the electrostatic chuck to induce plasma in a region at least above the electrostatic chuck, and generating a magnetic field in the region at least above the electrostatic chuck using a magnet having a ring-shape and disposed above the electrostatic chuck by applying second radio-frequency power to the magnet, wherein the magnet has an inner radius ranging from about one-half to about one-fourth of the substrate radius.

Apparatus and method fabricating semiconductor device

A substrate processing apparatus including an electrostatic chuck on which a substrate is mountable; a ring surrounding the electrostatic chuck, the ring including a first coupling groove; and a first floating electrode in the first coupling groove of the ring, the first floating electrode having a ring shape, wherein a top surface of the first floating electrode is exposed at the ring, and the first floating electrode has a tapered shape including an inclined surface that is inclined in a downward direction toward the electrostatic chuck.

Substrate processing apparatus

The present disclosure relates to system resource management in a variety of situations. The present disclosure provides a method and an apparatus for reducing memory requirements and improving processing speed when an electronic device performs padding for a particular arithmetic operation on data. To achieve the above objective, a method for operating an electronic device according to the present disclosure comprises the steps of: reading a first portion of data from a first memory; determining a first padding address based on the address of a byte belonging to a boundary region of the data among a plurality of bytes included in the first portion; writing values of the plurality of bytes and a value corresponding to the first padding address to a second memory; and reading a second portion of the data from the first memory.

Method and apparatus for system resource management

A pipeline processor which meets a latency restriction on an equal model is provided. The pipeline processor includes a pipeline processing unit to process an instruction at a plurality of stages and an equal model compensator to store the results of the processing of some or all of the instructions located in the pipeline processing unit and to write the results of the processing in a register file based on the latency of each instruction.

Pipeline processor and an equal model compensator method and apparatus to store the processing result

A molecular delivery system including a plurality of nanowires (e.g., Si NWs), each of the nanowires having a surface layer formed of a silicon-containing material and a covalently bound linker (e.g., silane linker) attached to the surface layer, and optionally including a substrate to which the nanowires are adhered or a molecule to be delivered attached to the linker. Also disclosed is a method of delivering into a cell an exogenous molecule.

Molecular delivery with nanowires

Growing community of inventors

Seoul, South Korea

Jinseok Lee