Evaluation of delay-time degradation of low-voltage BiCMOS based on a novel analytical delay-time modeling. - Minoru Fujishima; Kunihiro Asada; Takuo Sugano (IEEE J. Solid State Circuits, 1991)

Low-power 1/2 frequency dividers using 0.1- mu m CMOS circuits built with ultrathin SIMOX substrates. - Minoru Fujishima; Kunihiro Asada; Yasuhisa Omura; Katsutoshi Izumi (IEEE J. Solid State Circuits, 1993)

Generation of chaos with simple sets of semiconductor devices. - Koichiro Hoh; Takahiro Irita; Teppei Tsujita; Minoru Fujishima (KES (3), 1998)

Self-oscillating chaos generator using CMOS multivibrator. - Teppei Tsujita; Takahiro Irita; Minoru Fujishima; Koichiro Hoh (KES (1), 1998)

Band runlength coding for low-power continuous micro-monitors. - Minoru Fujishima; Yuji Kiniwa; Koichiro Hoh (CICC, 1999)

Microprocessor architecture utilizing redundant-binary operation. - Takahiro Irita; Takayuki Ogura; Minoru Fujishima; Koichiro Hoh (Syst. Comput. Jpn., 1999)

An 8-qubit quantum-circuit processor. - Shin-ichi O'Uchi; Minoru Fujishima; Koichiro Hoh (ISCAS (5), 2002)

FPGA-based high-speed emulator of quantum computing. - Minoru Fujishima (FPT, 2003)

High-speed processor for quantum-computing emulation and its applications. - Minoru Fujishima; Kaoru Saito; M. Onouchi; Koichiro Hoh (ISCAS (4), 2003)

Optimization of shield structures in analog integrated circuits. - Ken Yamamoto; Minoru Fujishima; Koichiro Hoh (ISCAS (1), 2003)

Chopper-stabilized high-pass sigma delta modulator utilizing a resonator structure. - Koichi Ishida; Minoru Fujishima (IEEE Trans. Circuits Syst. II Express Briefs, 2003)

55GHz CMOS frequency divider with 3.2GHz locking range. - Ken Yamamoto; Minoru Fujishima (ESSCIRC, 2004)

High-speed and wide-tuning-range LC frequency dividers. - Ken Yamamoto; Takayasu Norimatsu; Minoru Fujishima (ISCAS (4), 2004)

A 44-μW 4.3-GHz injection-locked frequency divider with 2.3-GHz locking range. - Ken Yamamoto; Minoru Fujishima (IEEE J. Solid State Circuits, 2005)

In Situ Evaluation Method for On-Chip Inductors Using Oscillator Response. - Mizuki Motoyoshi; Minoru Fujishima (CICC, 2006)

On-chip high-speed solver of inverse problems based on quantum-computing principle. - Minoru Fujishima; Masahiro Shimura (ISCAS, 2006)

70GHz CMOS Harmonic Injection-Locked Divider. - Ken Yamamoto; Minoru Fujishima (ISSCC, 2006)

Characterization of High Q Transmission Line Structure for Advanced CMOS Processes. - Ivan Chee Hong Lai; Hideyuki Tanimoto; Minoru Fujishima (IEICE Trans. Electron., 2006)

A New On-Chip Substrate-Coupled Inductor Model Implemented With Scalable Expressions. - Ivan Chee Hong Lai; Minoru Fujishima (IEEE J. Solid State Circuits, 2006)

Psuedo-Millimeter-Wave Up-Conversion Mixer with On-Chip Balun for Vehicular Radar Systems. - Ivan Chee Hong Lai; Minoru Fujishima (ASP-DAC, 2007)

22-29GHz Ultra-Wideband CMOS Pulse Generator for Collision Avoidance Short Range Vehicular Radar Sensors. - Ahmet Öncü; B. B. M. Wasanthamala Badalawa; Tong Wang 018; Minoru Fujishima (ASP-DAC, 2007)

50GHz Double-Balanced Up-Conversion Mixer Using CMOS 90nm Process. - Ivan Chee Hong Lai; Yuki Kambayashi; Minoru Fujishima (ISCAS, 2007)

CMOS on-chip stacked Marchand balun for millimeter-wave applications. - Ivan Chee Hong Lai; Chiaki Inui; Minoru Fujishima (IEICE Electron. Express, 2007)

A Scalable Model of Shielded Capacitors Using Mirror Image Effects. - Koji Ishibashi; Ivan Chee Hong Lai; Kyoya Takano; Minoru Fujishima (IEICE Trans. Electron., 2007)

An Integrated Low-Power CMOS Up-Conversion Mixer Using New Stacked Marchand Baluns. - Ivan Chee Hong Lai; Minoru Fujishima (IEICE Trans. Electron., 2007)

22-29 GHz Ultra-Wideband CMOS Pulse Generator for Short-Range Radar Applications. - Ahmet Öncü; B. B. M. Wasanthamala Badalawa; Minoru Fujishima (IEEE J. Solid State Circuits, 2007)

4.8 GHz CMOS Frequency Multiplier Using Subharmonic Pulse-Injection Locking for Spurious Suppression. - Kyoya Takano; Mizuki Motoyoshi; Minoru Fujishima (IEICE Trans. Electron., 2008)

Low-power CMOS transceiver circuits for 60GHz band millimeter-wave impulse radio. - Ahmet Öncü; Minoru Fujishima (ASP-DAC, 2009)

Recent trends and future prospective on millimeter-wave CMOS circuits. - Minoru Fujishima (IEICE Electron. Express, 2009)

High-Attenuation Power Line for Wideband Decoupling. - Yasuo Manzawa; Masato Sasaki; Minoru Fujishima (IEICE Trans. Electron., 2009)

140GHz CMOS amplifier with group delay variation of 10.2ps and 0.1dB bandwidth of 12GHz. - Mizuki Motoyoshi; Ryuichi Fujimoto; Kyoya Takano; Minoru Fujishima (IEICE Electron. Express, 2011)

Device Modeling Techniques for High-Frequency Circuits Design Using Bond-Based Design at over 100 GHz. - Ryuichi Fujimoto; Kyoya Takano; Mizuki Motoyoshi; Uroschanit Yodprasit; Minoru Fujishima (IEICE Trans. Electron., 2011)

Prospective Silicon Applications and Technologies in 2025. - Koji Kai; Minoru Fujishima (IEICE Trans. Electron., 2011)

Analysis of De-Embedding Error Cancellation in Cascade Circuit Design. - Kyoya Takano; Ryuichi Fujimoto; Kosuke Katayama; Mizuki Motoyoshi; Minoru Fujishima (IEICE Trans. Electron., 2011)

125 GHz CMOS oscillator controlled by p-type bulk voltage. - Naoko Ono; Mizuki Motoyoshi; Kosuke Katayama; Minoru Fujishima (RWS, 2012)

135 GHz 98 mW 10 Gbps ASK transmitter and receiver chipset in 40 nm CMOS. - Naoko Ono; Mizuki Motoyoshi; Kyoya Takano; Kosuke Katayama; Ryuichi Fujimoto; Minoru Fujishima (VLSIC, 2012)

A 120-GHz Transmitter and Receiver Chipset with 9-Gbps Data Rate Using 65-nm CMOS Technology. - Ryuichi Fujimoto; Mizuki Motoyoshi; Kyoya Takano; Uroschanit Yodprasit; Minoru Fujishima (IEICE Trans. Electron., 2012)

Bias-Voltage-Dependent Subcircuit Model for Millimeter-Wave CMOS Circuit. - Kosuke Katayama; Mizuki Motoyoshi; Kyoya Takano; Ryuichi Fujimoto; Minoru Fujishima (IEICE Trans. Electron., 2012)

Low-power high-speed communication with short-millimeter-wave CMOS transceivers. - Minoru Fujishima (ASICON, 2013)

14.4mW 10Gbps CMOS limiting amplifier with local DC offset cancellers. - Kyoya Takano; Ryuichi Fujimoto; Mizuki Motoyoshi; Kosuke Katayama; Minoru Fujishima (RWS, 2013)

A 120 GHz/140 GHz Dual-Channel OOK Receiver Using 65 nm CMOS Technology. - Ryuichi Fujimoto; Mizuki Motoyoshi; Kyoya Takano; Minoru Fujishima (IEICE Trans. Fundam. Electron. Commun. Comput. Sci., 2013)

Modeling of Short-Millimeter-Wave CMOS Transmission Line with Lossy Dielectrics with Specific Absorption Spectrum. - Kyoya Takano; Shuhei Amakawa; Kosuke Katayama; Mizuki Motoyoshi; Minoru Fujishima (IEICE Trans. Electron., 2013)

98 mW 10 Gbps Wireless Transceiver Chipset With D-Band CMOS Circuits. - Minoru Fujishima; Mizuki Motoyoshi; Kosuke Katayama; Kyoya Takano; Naoko Ono; Ryuichi Fujimoto (IEEE J. Solid State Circuits, 2013)

23Gbps 9.4pJ/bit 80/100GHz band CMOS transceiver with on-board antenna for short-range communication. - Kensuke Nakajima; Akihiro Maruyama; Masato Kohtani; Tsuyoshi Sugiura; Eiichiro Otobe; Jaejin Lee; Shinhee Cho; Kyusub Kwak; Jeongseok Lee; Toshihiko Yoshimasu; Minoru Fujishima (A-SSCC, 2014)

E-Band 65nm CMOS Low-Noise Amplifier Design Using Gain-Boost Technique. - Kosuke Katayama; Mizuki Motoyoshi; Kyoya Takano; Chen Yang Li; Shuhei Amakawa; Minoru Fujishima (IEICE Trans. Electron., 2014)

9dB NF and +11dBm OIP3 CMOS Single Conversion Front-End for a Satellite Low-Noise Block Down-Converter. - Takeshi Mitsunaka; Yusuke Kishino; Masafumi Yamanoue; Kunihiko Iizuka; Minoru Fujishima (IEICE Trans. Fundam. Electron. Commun. Comput. Sci., 2014)

8-GHz Locking Range and 0.4-pJ Low-Energy Differential Dual-Modulus 10/11 Prescaler. - Takeshi Mitsunaka; Masafumi Yamanoue; Kunihiko Iizuka; Minoru Fujishima (IEICE Trans. Electron., 2014)

135GHz 98mW 10Gbps CMOS Amplitude Shift Keying Transmitter and Receiver Chipset. - Mizuki Motoyoshi; Naoko Ono; Kosuke Katayama; Kyoya Takano; Minoru Fujishima (IEICE Trans. Fundam. Electron. Commun. Comput. Sci., 2014)

124-GHz CMOS quadrature voltage-controlled oscillator with fundamental injection locking. - Kyoya Takano; Kosuke Katayama; Takeshi Yoshida; Shuhei Amakawa; Minoru Fujishima (A-SSCC, 2015)

Session 2 Overview: RF TX/RX design techniques: RF subcommittee. - Ehsan Afshari; Minoru Fujishima (ISSCC, 2015)

Recent progress and prospects of terahertz CMOS. - Minoru Fujishima; Shuhei Amakawa (IEICE Electron. Express, 2015)

Tehrahertz CMOS Design for Low-Power and High-Speed Wireless Communication. - Minoru Fujishima; Shuhei Amakawa; Kyoya Takano; Kosuke Katayama; Takeshi Yoshida (IEICE Trans. Electron., 2015)

97-mW 8-Phase CMOS VCO and Dividers for a 134-GHz PLL Synthesizer. - Takeshi Mitsunaka; Kunihiko Iizuka; Minoru Fujishima (IEICE Trans. Electron., 2015)

Session 25 overview: Mm-Wave and THz sensing. - Brian P. Ginsburg; Minoru Fujishima (ISSCC, 2016)

20.1 A 300GHz 40nm CMOS transmitter with 32-QAM 17.5Gb/s/ch capability over 6 channels. - Kosuke Katayama; Kyoya Takano; Shuhei Amakawa; Shinsuke Hara; Akifumi Kasamatsu; Koichi Mizuno; Kazuaki Takahashi; Takeshi Yoshida; Minoru Fujishima (ISSCC, 2016)

28.3 CMOS biosensor IC focusing on dielectric relaxations of biological water with 120GHz and 60GHz oscillator arrays. - Takeshi Mitsunaka; Nobuyuki Ashida; Akira Saito; Kunihiko Iizuka; Tetsuhito Suzuki; Yuichi Ogawa; Minoru Fujishima (ISSCC, 2016)

Compact 141-GHz Differential Amplifier with 20-dB Peak Gain and 22-GHz 3-dB Bandwidth. - Shinsuke Hara; Kosuke Katayama; Kyoya Takano; Issei Watanabe; Norihiko Sekine; Akifumi Kasamatsu; Takeshi Yoshida; Shuhei Amakawa; Minoru Fujishima (IEICE Trans. Electron., 2016)

A 300 GHz CMOS Transmitter With 32-QAM 17.5 Gb/s/ch Capability Over Six Channels. - Kosuke Katayama; Kyoya Takano; Shuhei Amakawa; Shinsuke Hara; Akifumi Kasamatsu; Koichi Mizuno; Kazuaki Takahashi; Takeshi Yoshida; Minoru Fujishima (IEEE J. Solid State Circuits, 2016)

CMOS Biosensor IC Focusing on Dielectric Relaxations of Biological Water With 120 and 60 GHz Oscillator Arrays. - Takeshi Mitsunaka; Daiki Sato; Nobuyuki Ashida; Akira Saito; Kunihiko Iizuka; Tetsuhito Suzuki; Yuichi Ogawa; Minoru Fujishima (IEEE J. Solid State Circuits, 2016)

Terahertz CMOS transceiver for tera-bps wireless link. - Minoru Fujishima (ASICON, 2017)

17.9 A 105Gb/s 300GHz CMOS transmitter. - Kyoya Takano; Shuhei Amakawa; Kosuke Katayama; Shinsuke Hara; Ruibing Dong; Akifumi Kasamatsu; Iwao Hosako; Koichi Mizuno; Kazuaki Takahashi; Takeshi Yoshida; Minoru Fujishima (ISSCC, 2017)

Foreword. - Minoru Fujishima (IEICE Trans. Electron., 2017)

Integrated-Circuit Approaches to THz Communications: Challenges, Advances, and Future Prospects. - Minoru Fujishima; Shuhei Amakawa (IEICE Trans. Fundam. Electron. Commun. Comput. Sci., 2017)

A 37-GHz-Input Divide-by-36 Injection-Locked Frequency Divider with 1.6-GHz Lock Range. - Sangyeop Lee; Kyoya Takano; Ruibing Dong; Shuhei Amakawa; Takeshi Yoshida; Minoru Fujishima (A-SSCC, 2018)

300-GHz CMOS transmitter module with built-in waveguide transition on a multilayered glass epoxy PCB. - Kyoya Takano; Kosuke Katayama; Shinsuke Hara; Ruibing Dong; Koichi Mizuno; Kazuaki Takahashi; Akifumi Kasamatsu; Takeshi Yoshida; Shuhei Amakawa; Minoru Fujishima (RWS, 2018)

32-Gbit/s CMOS Receivers in 300-GHz Band. - Shinsuke Hara; Kosuke Katayama; Kyoya Takano; Ruibing Dong; Issei Watanabe; Norihiko Sekine; Akifumi Kasamatsu; Takeshi Yoshida; Shuhei Amakawa; Minoru Fujishima (IEICE Trans. Electron., 2018)

Ultrahigh-Speed One-Chip CMOS Transceiver with 300-GHz Band. - Minoru Fujishima (ASICON, 2019)

Wideband Power-Line Decoupling Technique for Millimeter-Wave CMOS Integrated Circuits. - Shuhei Amakawa; Minoru Fujishima (ISCAS, 2019)

An 80Gb/s 300GHz-Band Single-Chip CMOS Transceiver. - Sangyeop Lee; Ruibing Dong; Takeshi Yoshida; Shuhei Amakawa; Shinsuke Hara; Akifumi Kasamatsu; Junji Sato; Minoru Fujishima (ISSCC, 2019)

An 80-Gb/s 300-GHz-Band Single-Chip CMOS Transceiver. - Sangyeop Lee; Shinsuke Hara; Takeshi Yoshida; Shuhei Amakawa; Ruibing Dong; Akifumi Kasamatsu; Junji Sato; Minoru Fujishima (IEEE J. Solid State Circuits, 2019)

A 300GHz CMOS Transceiver Targeting 6G. - Minoru Fujishima (ASICON, 2021)

A 76-Gbit/s 265-GHz CMOS Receiver. - Shinsuke Hara; Ruibing Dong; Sangyeop Lee; Kyoya Takano; Naoya Toshida; Satoru Tanoi; Tatsuo Hagino; Mohamed H. Mubarak; Norihiko Sekine; Issei Watanabe; Akifumi Kasamatsu; Kunio Sakakibara; et al. (A-SSCC, 2021)

Advances in Terahertz CMOS for 6G. - Minoru Fujishima (BCICTS, 2021)

A 272-GHz CMOS Analog BPSK/QPSK Demodulator for IEEE 802.15.3d. - Sangyeop Lee; Shinsuke Hara; Ruibing Dong; Kyoya Takano; Shuhei Amakawa; Takeshi Yoshida; Minoru Fujishima (ESSCIRC, 2021)

Overview of sub-terahertz communication and 300GHz CMOS transceivers. - Minoru Fujishima (IEICE Electron. Express, 2021)

Erratum: Overview of sub-terahertz communication and 300GHz CMOS transceivers [IEICE Electronics Express Vol. 18 (2021) No. 8 pp. 20212002]. - Minoru Fujishima (IEICE Electron. Express, 2021)

300-GHz-Band OFDM Video Transmission with CMOS TX/RX Modules and 40dBi Cassegrain Antenna toward 6G. - Yohei Morishita; Sangyeop Lee; Toshihiro Teraoka; Ruibing Dong; Yuichi Kashino; Hitoshi Asano; Shinsuke Hara; Kyoya Takano; Kosuke Katayama; Takenori Sakamoto; Naganori Shirakata; Koji Takinami; et al. (IEICE Trans. Electron., 2021)

254-GHz-to-299-GHz Down Conversion Mixer Using 45nm SOI CMOS. - Yuta Sako; Tomohiro Kobayashi; Shinsuke Hara; Shuhei Amakawa; Takeshi Yoshida; Minoru Fujishima (MWSCAS, 2022)

A 76-Gbit/s 265-GHz CMOS Receiver With WR-3.4 Waveguide Interface. - Shinsuke Hara; Ruibing Dong; Sangyeop Lee; Kyoya Takano; Naoya Toshida; Akifumi Kasamatsu; Kunio Sakakibara; Takeshi Yoshida; Shuhei Amakawa; Minoru Fujishima (IEEE J. Solid State Circuits, 2022)

A 0.4-V 29-GHz-Bandwidth Power-Scalable Distributed Amplifier in 55-nm CMOS DDC Process. - Sangyeop Lee; Shuhei Amakawa; Takeshi Yoshida; Minoru Fujishima (IEICE Trans. Electron., 2022)

A 27-to-65-GHz CMOS Amplifier with Tunable Frequency Response. - Leshan Xu; Takeshi Yoshida; Shunsuke Yabuki; Minoru Fujishima; Satoshi Tanaka (ASICON, 2023)

Suppression of Reflections and Elimination of Transmission Disparities in Differential Crossover Line Junctions. - Zhen Yan; Minoru Fujishima; Satoshi Tanaka; Takeshi Yoshida (ASICON, 2023)

A 2D Beam-Steerable 252-285-GHz 25.8-Gbit/s CMOS Receiver Module. - Takeshi Yoshida; Shinsuke Hara; Tatsuo Hagino; Mohamed H. Mubarak; Akifumi Kasamatsu; Kyoya Takano; Yoshiki Sugimoto; Kunio Sakakibara; Shuhei Amakawa; Minoru Fujishima (A-SSCC, 2023)

A 58-%-Lock-Range Divide-by-9 Injection-Locked Frequency Divider Using Harmonic-Control Technique. - Sangyeop Lee; Shuhei Amakawa; Takeshi Yoshida; Minoru Fujishima (IEICE Trans. Electron., 2023)

A 0.6-V 41.3-GHz Power-Scalable Sub-Sampling PLL in 55-nm CMOS DDC. - Sangyeop Lee; Kyoya Takano; Shuhei Amakawa; Takeshi Yoshida; Minoru Fujishima (IEICE Trans. Electron., 2023)

Introduction to the Special Section on the 2022 Asian Solid-State Circuits Conference (A-SSCC). - SeongHwan Cho; Joo-Young Kim 001; Minoru Fujishima; Jun Zhou 017 (IEEE J. Solid State Circuits, 2023)

A 300-GHz-Band 36-Gb/s Scalable 2x2 2D Phased-Array CMOS Receiver. - Satoshi Tanaka; Shinsuke Hara; Kyoya Takano; Akifumi Kasamatsu; Yoshiki Sugimoto; Kunio Sakakibara; Shunichi Kubo; Takeshi Yoshida; Shuhei Amakawa; Minoru Fujishima (A-SSCC, 2024)

25.9-Gb/s 259-GHz Phased-Array CMOS Receiver Module with 28° Steering Range. - Shinsuke Hara; Mohamed H. Mubarak; Akifumi Kasamatsu; Yoshiki Sugimoto; Kunio Sakakibara; Kyoya Takano; Takeshi Yoshida; Shuhei Amakawa; Minoru Fujishima (RWS, 2024)

Effects of Parasitic Elements on L-Type LC/CL Matching Circuits. - Satoshi Tanaka; Takeshi Yoshida; Minoru Fujishima (IEICE Trans. Fundam. Electron. Commun. Comput. Sci., 2024)

Advancements in Terahertz Communication: Harnessing the 300GHz Band for High-Efficiency, High-Capacity Wireless Networks. - Minoru Fujishima (IEICE Trans. Electron., 2024)

De-Embedding Method for Accurate Electromagnetic Analysis of Differential Circuits with Discontinuities. - Koki Mochida; Satoshi Tanaka; Takeshi Yoshida; Shuhei Amakawa; Minoru Fujishima (EuCNC/6G Summit, 2025)

A Compact D-Band 360° Active Differential Phase Shifter for Sub-Terahertz Phased-Array Antennas in 40Nm CMOS. - Zhen Yan; Satoshi Tanaka; Takeshi Yoshida; Minoru Fujishima (EuCNC/6G Summit, 2025)