Minsung Kim will present his FPO "Quantum and Quantum-Inspired Computation for Wireless Networks" on Tuesday, 10/3/2023 at 2pm in CS 302.

The members of his committee are as follows:
Examiners: Kyle Jamieson (adviser), Jennifer Rexford, and Yasaman Ghasempour
Readers: Ravi Netravali, Lin Zhong (Yale), and Davide Venturelli (NASA/USRA)

Talk abstract follows below.  All are welcome to join.

Abstract:
A central design challenge for future generations of wireless networks is to meet the
ever-increasing demand for wireless capacity. While significant progress has been made
in designing advanced wireless technologies, the current computational capacity at
base stations to support them has been consistently identified as the bottleneck, due to
limitations in processing time. Quantum computing is a potential tool to overcome the
tradeoff between the wireless performance and computational complexity. It exploits
unique information processing capabilities based on quantum mechanics to perform
fast calculations that are intractable by traditional digital methods. This dissertation
presents four design directions of quantum compute-enabled wireless systems to
expedite baseband processing at base stations, which would unlock unprecedented levels
of wireless performance in telecommunication networks: (1) quantum optimization
on specialized hardware, (2) quantum-inspired computing on classical computing
platforms, (3) hybrid classical-quantum computational structures, and (4) scalable
and elastic parallel quantum optimization. For the directions, we introduce our
prototype systems (QuAMax, ParaMax, IoT-ResQ, X-ResQ) that are implemented on
real-world quantum processors. The prototypes are designed for quantum-accelerated
near-optimal wireless signal processing in Multiple-Input Multiple-Output (MIMO)
systems that could drastically increase wireless capacity for the cellular 5G New Radio
roadmap, as well as in next generation wireless local area networks. We provide design
guidance in the systems with underlying principles and technical details, and discuss
future research directions based on the current challenges and opportunities observed.