Special Sessions

Dimitris Pavlidis
Florida International Univ.
Yuanxun Ethan Wang
Univ. of California, Los Angeles
Abstract

Notions of reciprocity, time-reversal and sensitivity to defects in wave propagation and field transport will be address by discussing disruptive ways in which devices are designed and employed in enabling new functionalities at high frequencies. Platforms that can benefit from these approaches include electronic and photonic devices and circuits, filters, logic operators and circulators, and their on chip implementations.

PDFSlidesAbstract
We1E-1: Lamb Wave Resonator Loaded Non-Reciprocal RF Devices
Ting Lu, Joseph D. Schneider, Xiating Zou, Sidhant Tiwari, Zhi Yao, Greg Carman, Robert N. Candler, Yuanxun Ethan Wang
Ting Lu, Univ. of California, Los Angeles
PDFSlidesAbstract
We1E-2: Microwave Applications of Zirconium-Doped Hafnium Oxide Ferroelectrics: From Nanoscale Calculations up to Experimental Results
M. Aldrigo, M. Dragoman, E. Laudadio, S. Iordanescu, M. Modreanu, I.M. Povey, F. Nastase, S. Vulpe, P. Stipa, A. Di Donato, L. Pierantoni, D. Mencarelli
M. Aldrigo, IMT Bucharest
PDFSlidesAbstract
We1E-3: Novel Non-Reciprocal Microwave Spin Wave and Magneto-Elastic Wave Devices for On-Chip Signal Processing
Ilya N. Krivorotov, Eric A. Montoya, Amanatullah Khan, Andrei N. Slavin, Mingzhong Wu
Amanatullah Khan, Univ. of California, Irvine
PDFSlidesAbstract
We1E-4: Organic Ferrimagnetic Material Vanadium Tetracyanoethylene for Non-Reciprocal Microwave Applications
Na Zhu, Andrew Franson, Seth Kurfman, Michael Chilcote, Denis R. Candido, Katherine E. Nygren, Michael E. Flatté, Kristen S. Buchanan, Ezekiel Johnston-Halperin, Hong X. Tang
Hong X. Tang, Yale Univ.
PDFSlidesAbstract
We1E-5: Non-Reciprocal Lithium Niobate-on-Silicon Acoustoelectric Delay Lines
Hakhamanesh Mansoorzare, Reza Abdolvand
Hakhamanesh Mansoorzare, Univ. of Central Florida
PDFSlidesAbstract
We1E-6: A Highly Linear Non-Magnetic GaN Circulator Based on Spatio-Temporal Modulation with an IIP3 of 56dBm
Jose Antonio Bahaonde, Ioannis Kymissis, Harish Krishnaswamy
Jose Antonio Bahaonde, Columbia Univ.
Jeong-Sun Moon
HRL Laboratories
Kenneth Mays
Boeing
Abstract

RF and millimeter wave amplifiers are key elements in modern wireless and defense applications. Existing high speed transistor technologies are approaching their limits and current amplifier design practices focus on trade-offs between key performance parameters. With 5G deploying and upcoming millimeter wave systems for defense, next generation GaN transistor technologies are emerging. This session focuses of these emerging transistor technologies for these applications.

PDFSlidesAbstract
We1G-1: Emerging High Power mm-Wave RF Transistors
Young-Kai Chen, Abirami Sivananthan, Tsu-Hsi Chang
Tsu-Hsi Chang, HetInTec
PDFSlidesAbstract
We1G-2: Advanced GaN HEMT Modeling Techniques and Power Amplifiers for Millimeter-Wave Applications
Shintaro Shinjo, Masatake Hangai, Yutaro Yamaguchi, Moriyasu Miyazaki
Shintaro Shinjo, Mitsubishi Electric
PDFSlidesAbstract
We1G-3: Qorvo’s Emerging GaN Technologies for mmWave Applications
Y. Cao, V. Kumar, S. Chen, Y. Cui, Soack Dae Yoon, E. Beam, A. Xie, J. Jimenez, A. Ketterson, C. Lee, Douglas Linkhart, Anton Geiler
Y. Cao, Qorvo
PDFSlidesAbstract
We1G-4: High-Speed Graded-Channel GaN HEMTs with Linearity and Efficiency
Jeong-sun Moon, Bob Grabar, Mike Antcliffe, Joel Wong, Chuong Dao, Peter Chen, Erdem Arkun, Isaac Khalaf, Andrea Corrion, James Chappell, Nivedhita Venkatesan, Patrick Fay
Jeong-sun Moon, HRL Laboratories
PDFSlidesAbstract
We1G-5: Advances in the Super-Lattice Castellated Field Effect Transistor (SLCFET) for High Power Density, Energy Efficient RF Amplification
Josephine Chang, Shamima Afroz, Brian Novak, Jordan Merkel, Ken Nagamatsu, Robert Howell
Josephine Chang, Northrop Grumman
Chris Rodenbeck
Naval Research Laboratory
Chai-Chan Chang
National Chung Cheng Univ.
Abstract

Advances in SiGe, CMOS and GaN technology have lead to the widespread availability of low-cost millimeter wave radar transceivers. These sensors has enabled new capabilities in vibrometry and small scale motion sensing. Advances in this session include FMCW sensing of multiple targets, AI driven gesture recognition, picosecond pulse and interferometric techniques capable of resolving vibration ambiguities, and novel motion compensation approaches for vibrometry of moving targets.

PDFSlidesAbstract
We3D-1: Silent Speech Recognition Based on Short-Range Millimeter-Wave Sensing
Li Wen, Changzhan Gu, Jun-Fa Mao
Li Wen, Shanghai Jiao Tong Univ.
PDFSlidesAbstract
We3D-2: Non-Contact Vital Signs Monitoring for Multiple Subjects Using a Millimeter Wave FMCW Automotive Radar
Shekh M.M. Islam, Naoyuki Motoyama, Sergio Pacheco, Victor M. Lubecke
Shekh M.M. Islam, University of Hawaii at Manoa
PDFSlidesAbstract
We3D-3: Multi-Spectral THz Micro-Doppler Radar Based on a Silicon-Based Picosecond Pulse Radiator
Sam Razavian, Aydin Babakhani
Sam Razavian, Univ. of California, Los Angeles
PDFSlidesAbstract
We3D-4: Using FMCW Radar for Spatially Resolved Intra-Chirp Vibrometry in the Audio Range
Lukas Piotrowsky, Jan Siska, Christian Schweer, Nils Pohl
Lukas Piotrowsky, Ruhr-Universität Bochum
PDFSlidesAbstract
We3D-5: AI-Driven Event Recognition with a Real-Time 3D 60-GHz Radar System
Asaf Tzadok, Alberto Valdes-Garcia, Petar Pepeljugoski, J.-O. Plouchart, Mark Yeck, Huijuan Liu
Asaf Tzadok, IBM T.J. Watson Research Center
Christian Waldschmidt
Ulm Univ.
Martin Vossiek
Ulm Univ.
Abstract

Microwave and millimeter wave transmitters and receivers have been developed in Si technologies, which is attractive for the development of networked and distributed systems. Such systems promise much better imaging and or sensing properties than single transceiver systems. This session addresses such systems, in particular architectures, hardware realizations, the impact of hardware impairments, and low level signal processing approaches.

PDFSlidesAbstract
Th2C-1: A Self-Mixing Receiver for Wireless Frequency Synchronization in Coherent Distributed Arrays
Serge Mghabghab, Jeffrey A. Nanzer
Serge Mghabghab, Michigan State Univ.
PDFSlidesAbstract
Th2C-2: A Digital Interferometric Array with Active Noise Illumination for Millimeter-Wave Imaging at 13.7fps
Stavros Vakalis, Jeffrey A. Nanzer
Stavros Vakalis, Michigan State Univ.
PDFSlidesAbstract
Th2C-3: Wireless Coherent Full-Duplex Double-Sided Two-Way Ranging (CFDDS-TWR) Approach with Phase Tracking Based Multipath Suppression for Submillimeter Accuracy Displacement Sensing
Michael Gottinger, Marcel Hoffmann, Martin Vossiek
Marcel Hoffmann, FAU Erlangen-Nürnberg
PDFSlidesAbstract
Th2C-4: Phase Recovery in Sensor Networks Based on Incoherent Repeater Elements
David Werbunat, Benedikt Meinecke, Maximilian Steiner, Christian Waldschmidt
David Werbunat, Universität Ulm
PDFSlidesAbstract
Th2C-5: Fusion of Radar and Communication Information for Tracking in OFDM Automotive Radar at 24GHz
Jessica B. Sanson, Daniel Castanheira, Atilio Gameiro, Paulo P. Monteiro
Jessica B. Sanson, Instituto de Telecomunicações
Samir El-Ghazaly
Univ. of Arkansas
George Haddad
National Science Foundation
Abstract

Dr. Robert J. Trew: DECEMBER 8, 1944 - FEBRUARY 24, 2019

This session attempts to capture the career and life of Dr. Robert Trew as an engineer, educator, scientist, society leader, government official, hero of the U.S. Army Research Office, musician, photographer, and above all husband and father.

Bob received his Bachelor of Electrical Engineering from Kettering University in 1968, and M.S. and Ph.D. degrees in electrical engineering from the University of Michigan in 1969 and 1975.

Bob was the Alton and Mildred Lancaster Distinguished Professor (Emeritus) and former head of the Department of Electrical and Computer Engineering in NC State’s College of Engineering. He was a department head for a collective 11 years at three major research universities: Case Western Reserve University, Virginia Polytechnic Institute and State University, and NC State University. 

On the government side, Bob served as a program manager at the Army Research Office, Director of Research for the Office of the Secretary of Defense at the U.S. Department of Defense, and Director of the Division of the Electrical, Communications and Cyber Systems at the National Science Foundation. 

As a scientist, Bob made important contributions to research on semiconductor devices and microwave computer-aided design. He was a highly regarded mentor and leader. His accomplishments are well recognized within MTT-S and were acknowledged by granting him the Pioneer Award and the Career Award.

Bob served as the President of the IEEE Microwave Theory and Techniques Society in 2004.

PDFAbstract
Th3B-1: Remembering Dr. Robert James Trew
Heather M. Trew
Heather M. Trew, U.S. Department of the Treasury
PDFAbstract
Th3B-2: Following the Evolution of High-Frequency Electronics: From Diodes to Transistors — A Memorial to the Life of Dr. Robert J. Trew (1944–2019)
Madhu S. Gupta
Madhu S. Gupta, Univ. of California, San Diego
PDFAbstract
Th3B-3: Robert J. Trew and the Microwave Community
Mike Golio
Mike Golio, Golio Endeavors
PDFAbstract
Th3B-4: Bob Trew: Teacher, Researcher, Mentor, and Friend
Alfy Riddle
Alfy Riddle, Quanergy Systems