Bin Li

TL;DR: In this paper, the authors present a series of physical layer techniques that are necessary to produce reliable and practical molecular communications, equipped with the appropriate channel knowledge, the design of appropriate modulation and error correction coding schemes, and transmitter and receiver side signal processing methods that suppress inter-symbol interference.

TL;DR: This article examines recent research in molecular communications from a telecommunications system design perspective, and focuses on channel models and state-of-the-art physical layer techniques.

TL;DR: This paper forms realistic beamforming (BF) training (or beam steering) in the emerging 60-GHz millimeter-wave communications as a numerical optimization problem, and presents an appealing global numerical algorithm inspired by simulated annealing (SA) mechanics.

TL;DR: While classical schemes fail to deal with doubly selective channels, the new sensing scheme can exploit the underlying channel memory and operate well, which provides a great promise to realistic applications.

TL;DR: A new joint estimation paradigm, namely deep sensing, is proposed for such challenging spectrum and location awareness applications that the mutual interruption between the two unknown quantities is fully considered and, therefore, the PU's emission state is identified by estimating its moving positions jointly.