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Dive into the research topics where Yoshitaka Kinoshita is active.

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Featured researches published by Yoshitaka Kinoshita.


IEEE Journal of Solid-state Circuits | 1990

A 23-ns 1-Mb BiCMOS DRAM

Goro Kitsukawa; Kazumasa Yanagisawa; Yutaka Kobayashi; Yoshitaka Kinoshita; Tatsuyuki Ohta; Tetsu Udagawa; Hitoshi Miwa; Hiroyuki Miyazawa; Yoshiki Kawajiri; Yoshiaki Ouchi; Hiromi Tsukada; Tetsuro Matsumoto; Kiyoo Itoh

A 1-Mb BiCMOS DRAM having a 23-ns access time is described. The DRAM uses a direct sensing technique and a nonaddress-multiplexing configuration. This technique combines the NMOS differential circuit on each pair of data lines with a common highly sensitive bipolar circuit. The resulting chip has been verified to have high-speed characteristics while maintaining a wide operating margin and a relatively small chip size of 62.2 mm/sup 2/, in spite of a 1.3- mu m lithography level. >


european solid state circuits conference | 1989

A 23ns 1Mbit BiCMOS DRAM

Kazumasa Yanagisawa; Goro Kitsukawa; Yutaka Kobayashi; Yoshitaka Kinoshita; Tatsuyuki Ohta; Tetsu Udagawa; Kyoko Ishii; Hitoshi Miwa; Hiroyuki Miyazawa; Yoshiaki Ouchi; Hiromi Tsukada; Tetsuro Matsumoto; Kiyoo Itoh

I -_JLd Lioduction Bit density oi DRAMs has continued to be improved by a factor of four times every three years. In contrast with these remarkable improvemenls in bit densitv, improvements in access and cycle times of DRAMs available in the market are insufficient for higher performance applications. For improving DRAM speed with reasonable process complexity, a 1.3ßm 1Mbit BiCMOS DRAM has been reported (I). However, performance of the previous DRAM is insufficient, although BiCMOS technology was verified as having advantages for improving speed, power dissipation and soft error rate (2)(3). In this paper, a 23ns 1.3 fi m 1Mbit BiCMOS DRAM, suitable for imss production, is described. First, high-speed sensing circuit techniques combined with a non


Archive | 2000

Semiconductor device and memory module

Masayasu Kawamura; Atsushi Nakamura; Yoshihiro Sakaguchi; Yoshitaka Kinoshita; Yasushi Takahashi; Yoshihiko Inoue


Archive | 1991

Resin-encapsulated semiconductor memory device useful for single in-line packages

Yasushi Takahashi; Kazuyuki Miyazawa; Hidetoshi Iwai; Masaya Muranaka; Yoshitaka Kinoshita; Satoru Koshiba


Archive | 2000

Semiconductor storage device having memory chips in a stacked structure

Masayasu Kawamura; Atsushi Nakamura; Yoshihiro Sakaguchi; Yoshitaka Kinoshita; Yasushi Takahashi; Yoshihiko Inoue


Archive | 1998

Dynamic RAM having word line voltage intermittently boosted in synchronism with an external clock signal

Yoshitaka Kinoshita; Kenji Nishimoto; Kazumasa Yanagisawa; Hitoshi Tanaka


Archive | 1990

Bi-CMOS semiconductor memory device, including improved layout structure and testing method

Kazumasa Yanagisawa; Tatsuyuki Ohta; Tetsu Udagawa; Kyoko Ishii; Hitoshi Miwa; Atsushi Nozoe; Masayuki Nakamura; Tetsurou Matsumoto; Yoshitaka Kinoshita; Yoshiaki Ouchi; Hiromi Tsukada; Shoji Wada; Kazuo Mihashi; Yutaka Kobayashi; Goro Kitsukawa


Archive | 1998

Dynamic RAM provided with a defect relief circuit

Hiromasa Noda; Kenji Nishimoto; Yoshitaka Kinoshita; Masakazu Aoki


Archive | 1992

Testing method for a semiconductor memory device

Kazumasa Yanagisawa; Tatsuyuki Ohta; Tetsu Udagawa; Kyoko Ishii; Hitoshi Miwa; Atsushi Nozoe; Masayuki Nakamura; Tetsurou Matsumoto; Yoshitaka Kinoshita; Yoshiaki Ouchi; Hiromi Tsukada; Shoji Wada; Kazuo Mihashi; Yutaka Kobayashi; Goro Kitsukawa


Archive | 1995

DATA PROCESSING SYSTEM AND SEMICONDUCTOR INTEGRATED CIRCUIT

Koichiro Ishibashi; Yoshitaka Kinoshita; Sadayuki Morita; Kiyoshi Nagai; Kazuyoshi Shoji; Kazumasa Yanagisawa; 和良 庄司; 嘉隆 木下; 一正 柳沢; 貞幸 森田; 清 永井; 孝一郎 石橋

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