Search Results - "Chun, Junhyun"

A 16Gb/s/pin 8Gb GDDR6 DRAM with bandwidth extension techniques for high-speed applications by Kyu-Dong Hwang, Boram Kim, Sang-Yeon Byeon, Kyu-Young Kim, Dae-Han Kwon, Hyun-Bae Lee, Geun-Il Lee, Sang-Sic Yoon, Jin-Youp Cha, Soo-Young Jang, Seung-Hun Lee, Yong-Suk Joo, Gang-Sik Lee, Sung-Soo Xi, Soo-Bin Lim, Kyung-Ho Chu, Joo-Hwan Cho, Junhyun Chun, Jonghoon Oh, Jinkook Kim, Seok-Hee Lee

“…Recently the demand for high-bandwidth graphic DRAM, for game consoles and graphic cards, has dramatically increased due to the development of virtual reality,…”
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A 16Gb 1.2V 3.2Gb/s/pin DDR4 SDRAM with improved power distribution and repair strategy by Seokbo Shim, Sungho Kim, Jooyoung Bae, Keunsik Ko, Eunryeong Lee, Kwidong Kim, Kyeongtae Kim, Sangho Lee, Jinhoon Hyun, Insung Koh, Joonhong Park, Minjeong Kim, Sunhye Shin, Dongha Lee, Yunyoung Lee, Sangah Hyun, Wonjohn Choi, Dain Im, Dongheon Lee, Jieun Jang, Junhyun Chun, Jonghoon Oh, Jinkook Kim, Seok-Hee Lee

“…Advances in silicon technology bring high-performance mobile devices and networks that connect people all over the world. In the meantime, data centers with…”
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A Compact Resistor-Based CMOS Temperature Sensor With an Inaccuracy of 0.12 °C (3[Formula Omitted]) and a Resolution FoM of 0.43 pJ[Formula Omitted]K[Formula Omitted] in 65-nm CMOS by Choi, Woojun, Lee, Yongtae, Kim, Seonhong, Lee, Sanghoon, Jang, Jieun, Chun, Junhyun, Makinwa, Kofi A A, Chae, Youngcheol

“…This paper presents a compact resistor-based CMOS temperature sensor intended for dense thermal monitoring. It is based on an [Formula Omitted] poly-phase…”
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A 1.3-4-GHz Quadrature-Phase Digital DLL Using Sequential Delay Control and Reconfigurable Delay Line by Park, Hyunsu, Sim, Jincheol, Choi, Yoonjae, Choi, Jonghyuck, Kwon, Youngwook, Park, Seungwoo, Park, Gyutae, Chung, Jinil, Kim, Kyeong-Min, Jung, Hae-Kang, Kim, Hyungsoo, Chun, Junhyun, Kim, Chulwoo

“…A 1.3-4-GHz quadrature-phase digital delay-locked loop (DDLL) with sequential delay control and a reconfigurable delay line is designed using a 28 nm CMOS…”
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A 1ynm 1.25V 8Gb, 16Gb/s/pin GDDR6-based Accelerator-in-Memory supporting 1TFLOPS MAC Operation and Various Activation Functions for Deep-Learning Applications by Lee, Seongju, Kim, Kyuyoung, Oh, Sanghoon, Park, Joonhong, Hong, Gimoon, Ka, Dongyoon, Hwang, Kyudong, Park, Jeongje, Kang, Kyeongpil, Kim, Jungyeon, Jeon, Junyeol, Kim, Nahsung, Kwon, Yongkee, Vladimir, Kornijcuk, Shin, Woojae, Won, Jongsoon, Lee, Minkyu, Joo, Hyunha, Choi, Haerang, Lee, Jaewook, Ko, Donguc, Jun, Younggun, Cho, Keewon, Kim, Ilwoong, Song, Choungki, Jeong, Chunseok, Kwon, Daehan, Jang, Jieun, Park, Il, Chun, Junhyun, Cho, Joohwan

“…With advances in deep-neural-network applications the increasingly large data movement through memory channels is becoming inevitable: specifically, RNN and…”
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A 1ynm 1.25V 8Gb 16Gb/s/Pin GDDR6-Based Accelerator-in-Memory Supporting 1TFLOPS MAC Operation and Various Activation Functions for Deep Learning Application by Kwon, Daehan, Lee, Seongju, Kim, Kyuyoung, Oh, Sanghoon, Park, Joonhong, Hong, Gi-Moon, Ka, Dongyoon, Hwang, Kyudong, Park, Jeongje, Kang, Kyeongpil, Kim, Jungyeon, Jeon, Junyeol, Kim, Nahsung, Kwon, Yongkee, Kornijcuk, Vladimir, Shin, Woojae, Won, Jongsoon, Lee, Minkyu, Joo, Hyunha, Choi, Haerang, Kim, Guhyun, An, Byeongju, Lee, Jaewook, Ko, Donguc, Jun, Younggun, Kim, Ilwoong, Song, Choungki, Kim, Ilkon, Park, Chanwook, Kim, Seho, Jeong, Chunseok, Lim, Euicheol, Kim, Dongkyun, Jang, Jieun, Park, Il, Chun, Junhyun, Cho, Joohwan

“…In this article, a 1.25-V 8-Gb, 16-Gb/s/pin GDDR6-based accelerator-in-memory (AiM) is presented. A dedicated command (CMD) set for deep learning (DL) is…”
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A Compact Resistor-Based CMOS Temperature Sensor With an Inaccuracy of 0.12 °C (3 \sigma ) and a Resolution FoM of 0.43 pJ \cdot K ^ in 65-nm CMOS by Choi, Woojun, Lee, Yongtae, Kim, Seonhong, Lee, Sanghoon, Jang, Jieun, Chun, Junhyun, Makinwa, Kofi A. A., Chae, Youngcheol

“…This paper presents a compact resistor-based CMOS temperature sensor intended for dense thermal monitoring. It is based on an <inline-formula> <tex-math…”
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A 1.1-V 10-nm Class 6.4-Gb/s/Pin 16-Gb DDR5 SDRAM With a Phase Rotator-ILO DLL, High-Speed SerDes, and DFE/FFE Equalization Scheme for Rx/Tx by Kim, Dongkyun, Park, Minsu, Jang, Sungchun, Song, Jun-Yong, Chi, Hankyu, Choi, Geunho, Choi, Sunmyung, Kim, Changhyun, Han, Minsik, Koo, Kibong, Kim, Yongmi, Lee, Dong Uk, Lee, Jaein, Kwon, Kihun, Choi, Byeongchan, Kim, Hongjung, Ku, Sanghyun, Kim, Jongsam, Oh, Seungwook, Im, Dain, Lee, Yongsung, Park, Mingyu, Choi, Jonghyuck, Chun, Junhyun, Jin, Kyowon

“…A 1.1-V 6.4-Gb/s/pin 16-Gbit DDR5 is presented in 10-nm class CMOS technology. Various functions and circuits' techniques are newly adopted to improve…”
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A 24-Gb/s/Pin 8-Gb GDDR6 With a Half-Rate Daisy-Chain-Based Clocking Architecture and I/O Circuitry for Low-Noise Operation by Kang, Ji-Hyo, Yang, Jaehyeok, Kim, Kyunghoon, Chae, Joo-Hyung, Lee, Gangsik, Byeon, Sangyeon, Kim, Boram, Kim, Dong-Hyun, Kim, Youngtaek, Cho, Yeongmuk, Ji, Junghwan, Jeong, Sera, Cha, Jaehoon, Park, Minsoo, Kim, Hongdeuk, Park, Sijun, Kim, Sunho, Jung, Hae-Kang, Jang, Jieun, Lee, Sangkwon, Kim, Hyungsoo, Cho, Joo-Hwan, Chun, Junhyun, Cha, Seonyong

“…The demand for high-performance graphics systems used for artificial intelligence, cloud game, and virtual reality continues to grow; this trend requires…”
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Process-Portable and Programmable Layout Generation of Digital Circuits in Advanced DRAM Technologies by Yoon, Youngbog, Han, Daeyong, Chu, Shinho, Lee, Sangho, Han, Jaeduk, Chun, Junhyun

“…This paper introduces a physical layout design methodology that produces DRC-clean, area-efficient, and programmable layouts of digital circuits in advanced…”
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A 192-Gb 12-High 896-GB/s HBM3 DRAM with a TSV Auto-Calibration Scheme and Machine-Learning-Based Layout Optimization by Park, Myeong-Jae, Cho, Ho Sung, Yun, Tae-Sik, Byeon, Sangjin, Koo, Young Jun, Yoon, Sangsic, Lee, Dong Uk, Choi, Seokwoo, Park, Jihwan, Lee, Jinhyung, Cho, Kyungjun, Moon, Junil, Yoon, Byung-Kuk, Park, Young-Jun, Oh, Sang-muk, Lee, Chang Kwon, Kim, Tae-Kyun, Lee, Seong-Hee, Kim, Hyun-Woo, Ju, Yucheon, Lim, Seung-Kyun, Baek, Seung Geun, Lee, Kyo Yun, Lee, Sang Hun, We, Woo Sung, Kim, Seungchan, Choi, Yongseok, Lee, Seong-Hak, Yang, Seung Min, Lee, Gunho, Kim, In-Keun, Jeon, Younghyun, Park, Jae-Hyung, Yun, Jong Chan, Park, Chanhee, Kim, Sun-Yeol, Kim, Sungjin, Lee, Dong-Yeol, Oh, Su-Hyun, Hwang, Taejin, Shin, Junghyun, Lee, Yunho, Kim, Hyunsik, Lee, Jaeseung, Hur, Youngdo, Lee, Sangkwon, Jang, Jieun, Chun, Junhyun, Cho, Joohwan

“…Ever since the introduction of high bandwidth memory (HBM DRAM) and its succeeding line-ups, HBM DRAM has been heralded as a prominent solution to tackle the…”
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A 0.53pJK2 7000μm2 resistor-based temperature sensor with an inaccuracy of ±0.35°C (3σ) in 65nm CMOS by Choi, Woojun, Lee, Yong-Tae, Kim, Seonhong, Lee, Sanghoon, Jang, Jieun, Chun, Junhyun, Makinwa, Kofi A. A., Chae, Youngcheol

“…In microprocessors and DRAMs, on-chip temperature sensors are essential components, ensuring reliability by monitoring thermal gradients and hot spots. Such…”
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25.1 A 24Gb/s/pin 8Gb GDDR6 with a Half-Rate Daisy-Chain-Based Clocking Architecture and IO Circuitry for Low-Noise Operation by Kim, Kyunghoon, Chae, Joo-Hyung, Yang, Jaehyeok, Kang, Jihyo, Lee, Gangsik, Byeon, Sangyeon, Kim, Youngtaek, Kim, Boram, Kim, Dong-Hyun, Cho, Yeongmuk, Choi, Kangmoo, Park, Hyeongyeol, Ji, Junghwan, Jeong, Sera, Joo, Yongsuk, Cha, Jaehoon, Park, Minsoo, Kim, Hongdeuk, Park, Sijun, Kong, Kyubong, Kim, Sunho, Lee, Sangkwon, Chun, Junhyun, Kim, Hyungsoo, Cha, Seonyong

“…The demand for high-performance graphics systems used for artificial intelligence continues to grow; this trend requires graphics systems to achieve ever…”
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23.4 A 512GB 1.1V Managed DRAM Solution with 16GB ODP and Media Controller by Lee, Seongju, Jeon, Byungdeuk, Kang, Kyeongpil, Ka, Dongyoon, Kim, Nayeon, Kim, Yongseop, Hong, Yunseok, Kang, Mankeun, Min, Jinyong, Lee, Mingyu, Jeong, Chunseok, Kim, Kwandong, Lee, Doobock, Shin, Junghyun, Han, Yuntack, Shim, Youngbo, Kim, Youngjoo, Kim, Yongsun, Kim, Hyunseok, Yun, Jaewoong, Kim, Byungsoo, Han, Seokhwan, Lee, Changwoo, Song, Junyong, Song, Houk, Park, II, Kim, Yongju, Chun, Junhyun, Oh, Jonghoon

“…While the fast-growing big-data and cloud-computing markets are driving demand for server-oriented high-capacity memory, the high costs and high-power…”
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23.2 A 1.1V 1ynm 6.4Gb/s/pin 16Gb DDR5 SDRAM with a Phase-Rotator-Based DLL, High-Speed SerDes and RX/TX Equalization Scheme by Kim, Dongkyun, Park, Minsu, Jang, Sungchun, Song, Jun-Yong, Chi, Hankyu, Choi, Geunho, Choi, Sunmyung, Kim, Jaeil, Kim, Changhyun, Kim, Kyungwhan, Koo, Kibong, Song, Seonghwi, Kim, Yongmi, Lee, Dong Uk, Lee, Jaein, Kim, Daesuk, Kwon, Kihun, Han, Minsik, Choi, Byeongchan, Kim, Hongjung, Ku, Sanghyun, Kim, Yeonuk, Kim, Jongsam, Kim, Sanghui, Seo, Youngsuk, Oh, Seungwook, Im, Dain, Kim, Haksong, Choi, Jonghyuck, Chung, Jinil, Lee, Changhyun, Lee, Yongsung, Cho, Joo-Hwan, Chun, Junhyun, Oh, Jonghoon

“…Required system performance for the computing and server, cost and power forces DRAM to improve its bandwidth, capacity and power. DDR5 SDRAM has been proposed…”
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22.3 A 128Gb 8-High 512GB/s HBM2E DRAM with a Pseudo Quarter Bank Structure, Power Dispersion and an Instruction-Based At-Speed PMBIST by Lee, Dong Uk, Cho, Ho Sung, Kim, Jihwan, Ku, Young Jun, Oh, Sangmuk, Dae Kim, Chul, Kim, Hyun Woo, Lee, Woo Young, Kim, Tae Kyun, Yun, Tae Sik, Kim, Min Jeong, Lim, SeungGyeon, Lee, Seong Hee, Yun, Byung Kuk, Moon, Jun Il, Park, Ji Hwan, Choi, Seokwoo, Park, Young Jun, Lee, Chang Kwon, Jeong, Chunseok, Lee, Jae-Seung, Lee, Sang Hun, We, Woo Sung, Yun, Jong Chan, Lee, Doobock, Shin, Junghyun, Kim, Seungchan, Lee, Junghwan, Choi, Jiho, Ju, Yucheon, Park, Myeong-Jae, Lee, Kang Seol, Hur, Youngdo, Shim, Daeyong, Lee, Sangkwon, Chun, Junhyun, Jin, Kyo-Won

“…There is enormous demand for high-bandwidth DRAM: in application such as HPC, graphics, high-end server and artificial intelligence. HBM DRAM was developed [1]…”
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Memory-Centric Computing with SK Hynix's Domain-Specific Memory by Kwon, Yongkee, Kim, Guhyun, Kim, Nahsung, Shin, Woojae, Won, Jongsoon, Joo, Hyunha, Choi, Haerang, An, Byeongju, Shin, Gyeongcheol, Yun, Dayeon, Kim, Jeongbin, Kim, Changhyun, Kim, Ilkon, Park, Jaehan, Park, Chanwook, Song, Yosub, Yang, Byeongsu, Lee, Hyeongdeok, Park, Seungyeong, Lee, Wonjun, Lee, Seongju, Kim, Kyuyoung, Kwon, Daehan, Jeong, Chunseok, Kim, John, Lim, Euicheol, Chun, Junhyun

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System Architecture and Software Stack for GDDR6-AiM by Kwon, Yongkee, Vladimir, Kornijcuk, Kim, Nahsung, Shin, Woojae, Won, Jongsoon, Lee, Minkyu, Joo, Hyunha, Choi, Haerang, Kim, Guhyun, An, Byeongju, Kim, Jeongbin, Lee, Jaewook, Kim, Ilkon, Park, Jaehan, Park, Chanwook, Song, Yosub, Yang, Byeongsu, Lee, Hyungdeok, Kim, Seho, Kwon, Daehan, Lee, Seongju, Kim, Kyuyoung, Oh, Sanghoon, Park, Joonhong, Hong, Gimoon, Ka, Dongyoon, Hwang, Kyudong, Park, Jeongje, Kang, Kyeongpil, Kim, Jungyeon, Jeon, Junyeol, Lee, Myeongjun, Shin, Minyoung, Shin, Minhwan, Cha, Jaekyung, Jung, Changson, Chang, Kijoon, Jeong, Chunseok, Lim, Euicheol, Park, Il, Chun, Junhyun, Hynix, Sk

“…This poster presents system architecture, software stack, and performance analysis for SK hynix's very first GDDR6-based processing-in-memory (PIM) product…”
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