Samsung Electronics Co., Ltd.

Hl Klemove Corp.

Lg Innotek Co., Ltd.

Lg Electronics Inc.

Sungkyunkwan University

Other

Electronics and Telecommunications Research Institute

Dongbu Electronics, Co. Ltd.

Soongsil University

Jusung Engineering Co., Ltd.

Jung Hwan Choi

Young Chul Cho

Han Byul Lee

Young Don Choi

Jae Hyun Han

Jung Bae Lee

Jae Woo Park

Jin Do Byun

JinGu Lee

Jingu Lee

Young Ik Eom

Joo Hwan Kim

Jae Wook Kwon

Jung Hoon Seo

Eun Seok Shin

Dong Young Huh

Jun Young Park

Hyun-Yoon Cho

Jae Sam Lee

Myoung Bo Kwak

Chunfeng Jin

Seung Jin Park

Kwang Sun Ko

Hyeok Jun Choi

Kyoung Jun Roh

Hyun Woo Lee

Taehyoung Kim

So Yeon Kim

Seung Hun Lee

Suhwan Kim

Seok Bae

Young-Soo Sohn

Hyun Jin Cho

Jai Hoon Yeom

Jae Sung Kim

Tae Hyoung Kim

Jae Yeong Lee

Young-Hoon Son

Sang Seok Lee

Chang Sun Kim

Hwang Joon Lee

Hyunwoo Choi

Man Hee Kim

Hyunjin Cho

Yong Woo Jung

Pan Suk Kwak

Sun Pyo Hong

Su Cheol Lee

Sung Bae Park

Seong Soo Lee

Yun Sung Lee

Young Ki Han

In Seong Sohn

Jin Seok Heo

Ki Ho Chung

Hyun Bae Lee

Myung Hun Lee

Young Min Ku

Ho Young Jin

Seong Hoon Choi

Jang Hyun Park

Wang Soo Kim

Young Soo Sohn

Young Hoon Son

Min Jae Lee

Tae Hyeong Ha

Hyunsu Jang

In Dal Song

Gyehyeon Gyeong

Hyun Su Jang

Ju Ho Jeon

Hyun Woo Choi

Jun Ha Lee

Zhen Zhao

Gye Hyeon Gyeong

Yongwoo Jung

Zhao Zhen

Younwoo Kim

Ju Yeon Lee

Joo Suk Kang

Do Youn Kang

Bong I Kim

Mun K Kim

Jeong Hun Kim

Young K An

Nam C Kang

Yoo Chang Sung

Young-hoon Son

Kwang Seob Shin

Jun Han Choi

Seok Hun Hyun

Jin Ook Jung

Jeong Kyoum Kim

Kyung Woong Park

Yun Seok Yang

Youn Woo Kim

The embodiments relate to a radar control device and method. Specifically, a radar control device according to the embodiments may include an antenna device comprising a non-uniform linear array (NLA) antennas spaced apart according to a predetermined ratio, a first uniform linear array (ULA) antenna generated by being spaced apart by a first interval based on the NLA antenna, and a second ULA antenna generated by being spaced apart by a second interval based on the NLA antenna, a transceiver configured to transmit a transmission signal through the antenna device and receive a reflection signal reflected from an object, and a controller configured to determine an angular power spectrum (APS) for the reflection signal and determine an angle at which the object is located based on the APS.

Radar control device and method

One embodiment of the disclosure relates to a vehicle radar device and a method for controlling the same. According to the present embodiments, a vehicle radar device may comprise an antenna unit including Nt transmission antennas and Nr reception antennas, wherein Nt is a natural number equal to or larger than 1, and Nr is a natural number equal to or larger than 2, a transceiver controlling the transmission antenna to transmit a transmission signal and the reception antenna to receive a reception signal reflected by a target, a signal processor detecting one or more peak signals for the target and separately detecting Nt*Nr channel reception signals corresponding to each peak signal, a target angle estimator calculating a target angle estimate from k channel reception signals selected from among the Nt*Nr channel reception signals, and a target size information estimator calculating size information about the target based on up toCk target angle estimates calculated by the target angle estimator.

Vehicle radar device and control method

The embodiments of the present disclosure relate to a radar device including an antenna unit including a transmission antenna for transmitting a transmission signal and a receiving antenna for receiving a reception signal reflected from a target, a signal processor configured to determine target direction information by using a phase difference between the reception signals received from the respective receiving antennas, and a controller configured to control to perform a first mode and a second mode for transmitting and receiving signals at different pulse repetition intervals, respectively.

Radar device for vehicle and controlling method thereof

A magnetic coupling device is disclosed. The magnetic coupling device includes a core portion including an upper core and a lower core spaced apart from each other in a first direction, a primary coil and a secondary coil disposed between the upper core and the lower core in the state of being spaced apart from each other in the first direction, and a core connector electrically connected to the upper core and the lower core. A discharge phenomenon of a slim magnetic coupling device is prevented by the provision of the core connector.

Magnetic coupling device and flat panel display device including the same

A non-volatile memory chip comprises a cell region that includes a first surface, a second surface opposite to the first surface, a first cell structure, and a second cell structure spaced apart from the first cell structure; a peripheral circuit region on the first surface of the cell region, and that includes a first peripheral circuit connected to the first cell structure, a second peripheral circuit connected to the second cell structure, and a connection circuit between the first and second peripheral circuits; a through via between the first and second cell structures and that extends from the second surface of the cell region to the connection circuit of the peripheral circuit region; a redistribution layer that covers the through via on the second surface of the cell region, is connected to the through via, and extends along the second surface; and a chip pad connected to the redistribution layer.

Nonvolatile memory chip and semiconductor package including the same

The embodiments relate to a radar control device and method. Specifically, a radar control device according to the embodiments may include a transceiver configured to transmit a transmission signal to the surroundings of a host vehicle and receive a reception signal received by reflecting the transmission signal on an object, a determiner configured to generate a first range-Doppler map by performing fast Fourier transform (FFT) on the reception signal and generate a second range-Doppler map based on a comparison group including a plurality of preset temporary lateral distances, and determine a correlation coefficient between the first range-Doppler map and the second range-Doppler map, and an estimator configured to estimate a lateral distance between the host vehicle and the object based on the correlation coefficient.

A data receiving device may include a dummy stage block. The dummy stage block may include m dummy stages, wherein m is a natural number greater than or equal to two. Each of the m dummy stages may be configured to remove inter-symbol interference (ISI) from a dummy input signal using dummy coefficient information to generate a dummy output signal free of the ISI. Each of the m dummy stages may be further configured to output the dummy output signal. A normal stage block may include n normal stages, wherein n is a natural number greater than or equal to two. Each of the n normal stages may be configured to remove ISI from an input signal using coefficient information to generate an output signal free of the ISI and may be further configured to output the output signal.

Data receiving device

A method includes measuring a linearity of a first pull-up circuit, a second pull-up circuit, a third pull-up circuit, a first pull-down circuit, a second pull-down circuit and a third pull-down circuit using an initial pull-up code and an initial pull-down code, each of the first pull-up circuit, the second pull-up circuit and the third pull-up circuit having a respective resistance value determined based on a respective pull-up code, and each of the first pull-down circuit, the second pull-down circuit and the third pull-down circuit having a respective resistance value determined based on a respective pull-down code, and determining a calibration setting indicator based on the measurement result, the calibration setting indicator indicating a calibration method of a transmission driver including the first pull-up circuit, the second pull-up circuit, the third pull-up circuit, the first pull-down circuit, the second pull-down circuit and the third pull-down circuit.

Memory device and method for calibrating the device and fabricating the device

A memory device, a host device and a method of operating the memory device are provided. The memory device includes a data signal generator configured to provide a data signal to a transmission driver, the transmission driver configured to output a multi-level signal having any one of first to third signal levels based on the data signal, a command decoder configured to receive a feedback signal from outside of the memory device and decode the feedback signal, a data signal controller configured to adjust the data signal based on a decoding result of the command decoder, and a drive strength controller configured to adjust at least one of the first to third signal levels based on the decoding result of the command decoder.

Memory device, host device and method of operating the memory device

The present disclosure relates to a device and method for detecting vertical misalignment of a vehicle radar device and vehicle radar device with the same. A radar device according to an embodiment determines a monitoring range including the ground in front by using the radar signal, determines an error of vertical angles for a number of ground distances within the monitoring range, and detects the vertical mounting misalignment of the radar device by using the error. According to embodiments, it is possible to accurately determine the vertical mounting misalignment of the radar device even if there is a road surface non-uniformity, road slope, or radar beam width change.

Device and method for detecting vertical mounting misalignment of radar device, and radar device with the same

An inductor according to an embodiment of the present invention may include: a plurality of first E-type cores, each of which has a base unit and a center leg extending in a first direction from the base unit; a first I-type core arranged in the first direction from the plurality of first E-type cores; and a coil wound around the center leg of each of the plurality of first E-type cores. Here, the plurality of E-type cores may be arranged in a line along the first direction.

Inductor and DC converter including same

A semiconductor device including an error amplifier configured to receive a voltage of an output node and a reference voltage, a flipped voltage follower (FVF) circuit configured to receive an output of the error amplifier and maintain the voltage of the output node at the reference voltage, and a bias current control circuit configured to receive first to third mode signals, control a magnitude of a bias current flowing through the FVF circuit based on the first to third mode signals, control the bias current of a first magnitude, based on the first mode signal, control the bias current of a second magnitude smaller than the first magnitude, based on the second mode signal, and control the bias current of a third magnitude smaller than the second magnitude, based on the third mode signal.

Semiconductor device and memory device comprising the same

A memory device in which reliability of a clock signal is improved is provided. The memory device comprises a data module including a clock signal generator configured to receive an internal clock signal from a buffer, and to generate a first internal clock signal, a second internal clock signal, a third internal clock signal, and a fourth internal clock signal having different phases, on the basis of the internal clock signal, and a first data signal generator configured to generate a first data signal on the basis of first data and the first internal clock signal, generate a second data signal on the basis of second data and the second internal clock signal, generate a third data signal on the basis of third data and the third internal clock signal, and generate a fourth data signal on the basis of fourth data and the fourth internal clock signal.

Memory device, operating method of the memory device and memory system comprising the memory device

Various embodiments relate to a device and method for controlling vehicles and a radar system for vehicles. The vehicle controller may include a spectrum generator generating a 2D spectrum, a range-velocity map generator generating a range-velocity map corresponding to each height value included in a height set, a correlation coefficient determiner determining a correlation coefficient corresponding to each height value included in the height set, and a target determiner estimating a height of a target based on the correlation coefficient and recognizing the target based on the height of the target.

Device and method for controlling vehicle and radar system for vehicle

Growing community of inventors

Seoul, South Korea

Jung Hwan Choi