RF Plasma Circuits and Antennas
IEEE North Jersey Section AP/MTT Jt. Chapter Co-Sponsors the TALK: "RF Plasma Circuits and Antennas"
RF Plasma Circuits and Antennas
Plasma technology is increasingly prominent across a variety of applications, such as innovative lighting solutions, advanced semiconductor manufacturing processes, and improved methods for food processing. Recent developments have significantly advanced the utilization of plasma technology for high-frequency electronics, particularly within the radio frequency (RF) to millimeter-wave bands, which are essential for modern telecommunications and radar systems. This presentation aims to delve into the latest breakthroughs in this exciting area, specifically focusing on the advantages, challenges, and potential applications of plasma-based devices in RF technology. A key topic of discussion will be the innovative use of cold plasma as a tunable material for crucial electronic components, including varactors, switches, and variable resistors. These devices play an essential role in high-power applications such as radar systems, radio transmission technologies, and satellite communication, where precise signal control at the transmission level is vital for maintaining the integrity and quality of communication. In addition to their functional applications, these devices also provide essential protection for sensitive circuits, preventing damage from voltage spikes and signal interference. During the presentation, we will showcase several proof-of-concept devices, such as plasma tunable resonators, limiters, and switches, highlighting their design, operation, and the advancements they represent. We will further explore the transformative potential of plasma technology in plasma antennas, considering both gas-based and solid-state implementations. This examination will include an analysis of plasma antennas' advantages, such as their ability to provide reconfiguration on the fly and adapt to changing signal conditions. Finally, we will discuss the ambitious prospect of developing widely tunable antenna elements designed for reconfigurable plasma antenna array systems. These systems could revolutionize communication technologies by enabling more flexible and efficient use of the electromagnetic spectrum, thus enhancing performance in applications ranging from wireless communications to advanced radar.
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Ajay Poddar (akpoddar@ieee.org), Edip Niver (edip.niver@njit.edu), (Anisha Apte (anisha_apte@ieee.org)
- Co-sponsored by IEEE North Jersey Section
Speakers
Dimitrios Peroulis of Technical University of Munich
RF Plasma Circuits and Antennas
Plasma technology is widely used in various applications, including lighting, semiconductor manufacturing, and food processing. Recently, there have been significant advancements in utilizing plasma technology for high-frequency electronics, spanning radio frequency (RF) to millimeter-wave bands. This presentation will explore the latest developments in this area, highlighting the benefits, challenges, and potential applications of plasma-based devices in RF technology. The talk will focus on using cold plasma as a tunable material for varactors, switches, and variable resistors. These devices are particularly important in high-power applications, such as radar, radio transmission, and satellite communication, where effective signal control is crucial at the transmission level. Additionally, these devices offer protection for sensitive circuits. We will showcase several proof-of-concept devices, including plasma tunable resonators, limiters, and switches. Furthermore, we will examine the potential of plasma technology in the field of plasma antennas, considering both gas and solid-state implementations. Finally, we will discuss the exciting prospect of developing widely tunable antenna elements for reconfigurable plasma antenna array systems.
Biography:
Dimitrios Peroulis serves as the Senior Vice President for Partnerships and Online at Purdue University, where he is responsible for leading the offices of industry partnerships, global programs, engagement, and online education. Additionally, he holds the position of Reilly Professor in the Elmore Family School of Electrical and Computer Engineering at Purdue University. From 2019 to 2023, Dr. Peroulis was the Michael and Katherine Birck Head of Electrical and Computer Engineering and a special adviser to the Dean of Engineering on matters related to online learning. He obtained his Ph.D. in Electrical Engineering from the University of Michigan at Ann Arbor in 2003. His research is concentrated on reconfigurable systems, plasma RF electronics, and RF-assisted lyophilization. Dr. Peroulis has significantly contributed to the advancement of high-quality, widely tunable filters and innovative filter architectures utilizing miniaturized high-Q cavity-based resonators. In 2008, he received the National Science Foundation CAREER Award in acknowledgment of his contributions to the field. Dr. Peroulis is a Fellow of both the IEEE and the IET and has co-authored over 450 articles in various journals and conferences. In 2019, he was the recipient of the “Tatsuo Itoh” Award. Furthermore, in 2014, he was honored with the Outstanding Young Engineer Award from the IEEE Microwave Theory and Techniques Society (MTT-S). In 2012, he received the Outstanding Paper Award from the IEEE Ultrasonics, Ferroelectrics, and Frequency Control Society, specifically within the Ferroelectrics section. His students have achieved multiple awards for their research contributions and presentations, and he has been recognized as a Purdue University Faculty Scholar. Throughout his tenure, Dr. Peroulis has accumulated an impressive total of 11 teaching awards, including the 2010 HKN C. Holmes MacDonald Outstanding Teaching Award and the 2010 Charles B. Murphy Award, which represents Purdue University's highest distinction for undergraduate teaching.
Address:Purdue University, , United States