Hyundai Motor Company

Kia Motors Corporation

Kia Corporation

Hyundai Mobis Co., Ltd.

Samsung Electronics Co., Ltd.

Tokyo Electron Limited

Sl Corporation

Korea Institute of Science and Technology

Jin Hyun Kim

Hong Seok Choi

Seung Hyeon Jeon

Chang Woo Sim

Myeon Gyu Cha

Ju Young Kim

Wan Soo Oh

Jik Soo Shin

Chang Kook Chae

Heungseok Lee

Sukil Oh

Hideaki Sato

Choong Seob Park

Hiromi Hara

Kwang Min Won

Chul Sung Lee

Ga Hee Lee

So Jeong Kang

Koo Tae Kang

Sung Su Kim

Jin Soo Park

Seong Hun Kim

Young Hoon Kim

Heung Seok Lee

Byung Chui Lee

Mintack Oh

Kun Dong Kim

Suk Il Oh

Seok Hyun Hwang

Da Gyeom Hong

A system of automatic optimization of image quality of an image sensor includes an image learning data generation unit generating an image tuning knowledge database, which includes pairs of a plurality of sets of values of a plurality of parameters and a plurality of sets of image quality evaluation scores for a plurality of image quality evaluation items for evaluating a quality of each of a plurality of images generated by the image sensor, using an image tuning database sampling module, an image signal processor modeling unit generating a machine learning model, for each image, for automatically optimizing the quality of each image, and an image sensor image quality optimization unit automatically controlling values of some of the plurality of parameters based on a user's image quality selection and the machine learning model. The image quality evaluation scores are produced by a distributed camera simulation system including servers.

System and platform for automatic optimization of image quality of image sensor and operating method thereof

The present disclosure relates to a pedal simulator of a vehicle, the pedal simulator including a housing, a piston slidably disposed in the housing, an elastic part configured to elastically support the piston within the housing, and a damper provided in the piston and compressed onto the housing by a contact.

Pedal simulator for vehicle

The present disclosure relates to a pedal simulator of a vehicle, the pedal simulator includes a piston part slidably disposed in the housing part, an elastic part elastically supporting the piston part within the housing part, a damper part provided in the piston part and compressed onto the housing part by a contact, and a hollow cap part combined with the piston part and interposed between the piston part and the damper part.

Pedal simulator of vehicle

Rear combination lamp for an automobile

Head lamp for an automobile

A pedal simulator includes a pedal housing, a pedal unit rotatably mounted to the pedal housing, and a simulator unit mounted in the pedal housing and configured to compress a plurality of rods connected to the pedal unit by pressing the pedal unit.

Pedal simulator

Disclosed are a pedal simulator including a housing, a piston part slidably mounted in an inner space of the housing, and including a plurality of piston rod units, and a plurality of damper parts mounted in the housing, and disposed to face the plurality of piston rod units, respectively, wherein the damper parts are compressed by pressure from the piston rod units facing each other.

A single channel-based multi-functional light emitting diode lamp driving system includes: first and second light source groups distinguished for each lamp function thereof; a single LED lamp driving module adjusting an input voltage to a voltage required for each lamp function and to apply it to the first and second light source groups; a switching module controlling on or off of the first and second light source groups; and a control module controlling light amounts of the first and second light source groups by performing time-division control on an on or off time of the switching module in conjunction with the LED lamp driving module, wherein the control module is configured to perform time division turn-on control on the first and second light source groups by controlling at least one of a current value applied to the first and second light source groups or a duty ratio thereof in a high-beam passing mode.

System for single channel based multi-function LED lamp drive

A non-hydraulic pedal simulator may include: a housing part; a piston part inserted into the housing part, and moveable in connection with a pedal rod part; a mounting reaction part mounted on the piston part; a support reaction part inserted into the housing part, disposed on a moving path of the mounting reaction part, and configured to support the mounting reaction part; and a moving reaction part disposed between the piston part and the support reaction part, configured to elastically support the piston part, and supported by the support reaction part while being moved by the piston part.

Non-hydraulic pedal simulator

A system for driving a multi-functional light emitting diode (LED) lamp includes a first light source group and a second light source group classified depending on lamp functions, a single LED lamp driving device to regulate an input voltage to a voltage necessary for each lamp function and to apply the voltage to the first light source group and the second light source group, a switching device to control an On/Off state of the first light source group and the second light source group, and a control device to time-division control a time to turn on/off the switching device by internetworking with the LED lamp driving device and to control a light quantity of the first light source group and the second light source group.

System and method for driving multi-functional LED lamp based on single channel

A membrane device includes a trench substrate having trenches and a membrane having wrinkles. The membrane is not bonded to the trenches of the trench substrate but is bonded to the surface of the trench substrate in the shoulders of the trenches. Hills and valleys are alternately arranged in the membrane along the trenches. The membrane device can be used in various applications (for example, sensors) based on variations in the electrical properties of the membrane caused by a change in the shape of the wrinkles (a change in the strain) of the membrane in response to a change in the internal or external environment of the trenches.

Method for fabricating a membrane device including membrane having wrinkles formed along trenches

Disclosed a substrate liquid processing apparatus including: a liquid processing section configured to process a substrate with a processing liquid; a processing liquid supply section configured to supply the processing liquid; a diluent supply section configured to supply a diluent for diluting the processing liquid; a controller configured to control the diluent supply section; a concentration detection unit configured to detect a concentration of the processing liquid; and an atmospheric pressure detection unit configured to detect an atmospheric pressure. The controller acquires the concentration of the processing liquid from the concentration detection unit and the atmospheric pressure from the atmospheric pressure detection unit, controls an amount of the diluent supplied from the diluent supply section such that the acquired concentration of the processing liquid becomes a previously set concentration ('set concentration'), and corrects the set concentration according to, the acquired atmospheric pressure.

Substrate liquid processing apparatus and method, and computer-redable storage medium stored with substrate liquid processing program

Growing community of inventors

Suwon-si, South Korea

Jin Hyun Kim