The IEEE AP-S Young Professional(YP) Ambassador Program
The IEEE AP-S Young Professional(YP) Ambassador Program 2026
At this event, IEEE AP-S Young Professional Ambassador, Dr. Kamil Yavuz Kapusuz will give a lecture on high-efficiency technologies for integrated circuit and antenna packaging design for D-band (110-170 GHz) active phased arrays. The lecture will be conducted in English.
This event is fully online.
Those who apply via the form below will receive the Zoom webinar URL.
We encourage everyone to apply enthusiastically.
Participation Fee: Free for everyone, whether IEEE members or non-members
Registration (Form) (Deadline: 10/1 (Thu)): Click here to apply
Lecture Content: Click here for the abstract and author information
| Date & Method | Speaker | Title |
| 10/5 16:00~17:00
Online (Zoom) |
Dr. Kamil Yavuz Kapusuz
IMEC and Ghent University |
From Chip to System: A Holistic Approach to 2D Scalable Low-Loss D-Band Active Phased Array Realization |
Date and Time
Location
Hosts
Registration
-
Add Event to Calendar
Loading virtual attendance info...
- Contact Event Host
- Co-sponsored by IEEE MTT-S Japan Chapter, IEICE Technical Committee on Antennas and Propagation, IEICE Technical Committee on Microwaves
Speakers
Dr. Kamil Yavuz Kapusuz
From Chip to System: A Holistic Approach to 2D Scalable Low-Loss D-Band Active Phased Array Realization
Brief Abstruct:
The relentless demand for multi-gigabit wireless communication and high-resolution sensing drives rapid innovation in D-band (110–170 GHz) systems. However, realizing efficient and scalable active phased arrays at these frequencies remains challenging due to high cost, interconnect losses, packaging parasitics, and heterogeneous integration constraints. This talk presents a holistic, system-level approach to low-loss D-band phased array integration that unifies circuit, antenna, and packaging co-design. Leveraging both silicon-based (CMOS, SiGe) and III–V integrated circuits, the approach emphasizes optimized beamformer and power amplifier architectures combined with low-cost 2D scalable, wide-angle scanning wideband antenna arrays implemented using low-cost PCB processes. Through electromagnetic co-optimization and advanced interconnect engineering, the framework achieves significant reduction in loss and improvement in overall system efficiency. Measured D-band results from prototype modules demonstrate wide-angle beam steering and data transmission rates up to 100 Gb/s. These results confirm the feasibility of steerable, high-capacity arrays suitable for both communication and sensing platforms.