Kunio Sakakibara

Professor

Nagoya Institute of Technology

Japan

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About

Kunio Sakakibara is a Professor at Nagoya Institute of Technology in Japan. His research primarily focuses on advanced antenna design and microwave engineering, as evidenced by his recent publications on broadband connections, dielectric lenses, and waveguide transitions in the 270 GHz and 300 GHz bands. His work contributes significantly to the development of high-frequency communication technologies.

Articles (16)

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2025

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2025

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2025

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2025

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2025

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2024

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2024

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2024

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2023

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2023

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2023

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2022

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2021

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2020

Collaborators (3)

Minoru Fujishima

professor

Hiroshima University

JAPAN

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Shuhei Amakawa

Hiroshima University

JAPAN

View details

Takeshi Yoshida

Hiroshima University

JAPAN

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Kunio Sakakibara

Research Interests

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Articles (16)

A 300-GHz-Band 36-Gb/s Scalable 2-D Phased-Array CMOS Double Superheterodyne Receiver

Homogeneous Dielectric Multibeam Spherical Lens Antenna With High Crossover Gain for Wide-Angle Coverage in the 270 GHz Band

Broadband Connection of SIWs in Different Layers Using Back-Short Structures and Patch Element in 270-GHz Band

Broadband Back-Short Transition From Waveguide to Thin Substrate-Integrated Waveguide in Multilayer Substrate in 270-GHz Band

Loss Evaluation of Microstrip Line Using Low-Loss Olefin-Based Resin Build-Up Film in 160-GHz Band

Mechanical/Electrical Hybrid Two-Dimensional Beam Scanning Cylindrical Dielectric Lens Antenna Fed by a Phased Array Primary Radiator

Shaped Lens Antenna for 5G Mobile With Wide Angle Multi-Beam and Optimum Feed Position

Best Feed Positions and Radiation Patterns of Typical Multibeam Dielectric Lens Antenna

Broadband GCPW-to-Waveguide Transition in Multi-Layer Dielectric Substrates With Modified V-Shaped and Double Patch in 270 GHz Band

Broadband Waveguide-to-Differential-Line Transition in Multi-Layer Substrates With Triple Stacked Patch in 300 GHz Band

2 × 2 Lens Array Antenna Using Square-Bottom Concave-Convex Lens in 300-GHz Band

Broadband Differential-Line-to-Waveguide Transition in Multi-Layer Dielectric Substrates With an X-Shaped Patch Element in 280 GHz Band

Reduction of Surface Reflection on Dielectric Lens Antenna by Matching Periodic Square-Pillars in 300-GHz Band

A 76-Gbit/s 265-GHz CMOS Receiver With WR-3.4 Waveguide Interface

Far-Field Estimation Method of Antennas Above Conductive Plane Using a Partially Spherical Near-Field

Millimeter-Wave Butler Matrix Beamforming Circuit Using Finline in Double-Layer Dielectric Substrate

Collaborators (3)

Minoru Fujishima

Shuhei Amakawa

Takeshi Yoshida

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