An One-Dimensional analog Vision Chip System with Light-Adaptive Gain Control. - Seiji Kameda; Akira Honda; Tetsuya Yagi (ICONIP, 1998)

An analog VLSI which emulates biological vision. - Tetsuya Yagi; Yuki Hayashida; Seiji Kameda (KES (3), 1998)

Real Time Image Processing with an Analog Vision Chip System. - Seiji Kameda; Akira Honda; Tetsuya Yagi (Int. J. Neural Syst., 1999)

A parallel analog intelligent vision sensor with a variable receptive field. - Tetsuya Yagi; Seiji Kameda; Kunihiko Iizuka (Syst. Comput. Jpn., 1999)

An Analog Vision Chip Applicable to Real-Time Image Processings in Indoor Illumination. - Seiji Kameda; Tetsuya Yagi (IJCNN (3), 2000)

A Novel Robot Vision Employing a Silicon Retina. - Kazuhiro Shimonomura; Seiji Kameda; Kazuo Ishii; Tetsuya Yagi (J. Robotics Mechatronics, 2001)

An analog silicon retina with multi-chip configuration. - Seiji Kameda; Tetsuya Yagi (IJCNN, 2003)

A silicon retina system that calculates direction of motion. - Seiji Kameda; Tetsuya Yagi (ISCAS (4), 2003)

A Novel Robot Vision Applicable to Real-time Target Tracking. - Kazuhiro Shimonomura; Keisuke Inoue; Seiji Kameda; Tetsuya Yagi (J. Robotics Mechatronics, 2003)

An analog VLSI chip emulating sustained and transient response channels of the vertebrate retina. - Seiji Kameda; Tetsuya Yagi (IEEE Trans. Neural Networks, 2003)

An image pre-processing system employing neuromorphic 100×100 pixel silicon retina [robot vision applications]. - R. Takami; Kazuhiro Shimonomura; Seiji Kameda; Tetsuya Yagi (ISCAS (3), 2005)

Stereo Matching Algorithm Using a Weighted Average of Costs Aggregated by Various Window Sizes. - Kan'ya Sasaki; Seiji Kameda; Atsushi Iwata (ACCV (2), 2006)

An analog silicon retina with multichip configuration. - Seiji Kameda; Tetsuya Yagi (IEEE Trans. Neural Networks, 2006)

Wide-Dynamic-Range APS-Based Silicon Retina With Brightness Constancy. - Kazuhiro Shimonomura; Seiji Kameda; Atsushi Iwata; Tetsuya Yagi (IEEE Trans. Neural Networks, 2011)

Portable phosphene image generator simulating cortical visual prosthesis. - Hirotsugu Okuno; Tamas Fehervari; Masaru Matsuoka; Seiji Kameda; Tetsuya Yagi (BioCAS, 2012)

A multichannel current stimulator chip for spatiotemporal pattern stimulation of neural tissues. - Seiji Kameda; Yuki Hayashida; Yuta Tanaka; Dai Akita; Tetsuya Yagi (EMBC, 2014)

A vision sensor system with a real-time multi-scale filtering function. - Shinsuke Yasukawa; Hirotsugu Okuno; Seiji Kameda; Tetsuya Yagi (Int. J. Mechatronics Autom., 2014)

Cortical neural excitations in rats in vivo with using a prototype of a wireless multi-channel microstimulation system. - Yuki Hayashida; Yuichi Umehira; Kouki Takatani; Shigetoshi Futami; Seiji Kameda; Takatsugu Kamata; Arif Ullah Khan; Yoshinori Takeuchi; Masaharu Imai; Tetsuya Yagi (EMBC, 2015)

A programmable controller for spatio-temporal pattern stimulation of cortical visual prosthesis. - Tomoki Sugiura; Arif Ullah Khan; Jaehoon Yu; Yoshinori Takeuchi; Seiji Kameda; Takatsugu Kamata; Yuki Hayashida; Tetsuya Yagi; Masaharu Imai (BioCAS, 2016)

Clinical Application of Implantable Brain Machine Interfaces. - Masayuki Hirata; Seiji Kameda; Jason Palmer; Hiroshi Ando; Takafumi Suzuki; Yinlai Jiang; Hiroshi Yokoi; Yasuharu Koike (SMC, 2018)

A Swallowing Decoder Based on Deep Transfer Learning: AlexNet Classification of the Intracranial Electrocorticogram. - Hiroaki Hashimoto; Seiji Kameda; Hitoshi Maezawa; Satoru Oshino; Naoki Tani; Hui Ming Khoo; Takufumi Yanagisawa; Toshiki Yoshimine; Haruhiko Kishima; Masayuki Hirata (Int. J. Neural Syst., 2021)

Minimal Tissue Reaction after Chronic Subdural Electrode Implantation for Fully Implantable Brain-Machine Interfaces. - Tianfang Yan; Seiji Kameda; Katsuyoshi Suzuki; Taro Kaiju; Masato Inoue; Takafumi Suzuki; Masayuki Hirata (Sensors, 2021)

Intracranial EEG Recordings of High-Frequency Activity From a Wireless Implantable BMI Device in Awake Nonhuman Primates. - Tianfang Yan; Katsuyoshi Suzuki; Seiji Kameda; Takeru Kuratomi; Masashi Mihara; Makoto Maeda; Masayuki Hirata (IEEE Trans. Biomed. Eng., 2023)