University of Pavia – Italy
We live in knowledge societies, which are societies where the primary production resource is knowledge. The change of nature also involves changes in the institutions that create knowledge: Universities and Research centers. The increased relevance of knowledge values much more the institutions but, at the same time, creates new obligations and challenges. The relationship with advanced industries, especially those in the electronics area, becomes crucial, and the so-called R&D activity must be considered appropriately. The presentation discusses the above topics in a non-exhaustive manner just for providing elements of reflections to researchers and administrators.
Franco Maloberti received the Laurea Degree in Physics (Summa cum Laude) from the University of Parma, Italy, 1968, and the Doctorate Honoris Causa degree in Electronics from Inaoe, Puebla, Mexico in 1996. He was a Microelectronics Professor at the University of Pavia, Italy, the TI/J. Kilby Analog Engineering Chair Professor at the Texas A&M University, and the Distinguished Microelectronic Chair Professor at the University of Texas at Dallas. Currently, he is an Emeritus Professor at the University of Pavia, Italy. He has more than 600 IEEE publications, ten books, and holds 38 patents. He was President of the IEEE CASS and the IEEE Sensor Council. He also served the IEEE in numerous responsibility positions. He received the 1999 IEEE CAS Society Meritorious Service Award, the 2000 CAS Society Golden Jubilee Medal, and the IEEE Millenium Medal. He received the 1996 IEE Fleming Premium, the ESSCIRC 2007 Best Paper Award, and the IEEJ Workshop 2007 and 2010 Best Paper Award. He received the IEEE CAS Society 2013 Mac Van Valkenburg Award. He is a Life Fellow of IEEE.
Ulrich Schmid,1,* M. Schneider
Institute of Sensor and Actuator Systems, Austria
Electromechanical transducers based on the piezoelectric effect are continuously finding their way into micro-electromechanical systems (MEMS), typically in the form of thin films. Piezoelectric transducers feature a linear voltage response, no snap-in behaviour and can provide both attractive and repulsive forces. This removes inherent physical limitations present in the commonly used electrostatic transducer approach while maintaining beneficial properties such as low-power operation. Furthermore, piezoelectric materials can serve for both actuation and sensing purposes, thus enabling pure electrical excitation and read-out of the transducer element in combination with a compact design. Based on these outstanding features, piezoelectric transducers are operated most beneficially in a large variety of different application scenarios, ranging from resonators in liquid environment, advanced acoustic devices to sensors in harsh environments. In this talk, we will highlight latest results on the electrical, mechanical and piezoelectrical characterization of sputter-deposited aluminium nitride (AlN) including the impact of sputter parameters, film thickness and substrate preconditioning [1,2]. We will present the impact of doping of AlN with scandium, which leads to an increase of the moderate piezoelectric coefficient of AlN up to a factor of four. Finally, we will present some selected results of (Sc)AlN based acoustic devices ranging from droplet manipulation with a SAW structure to bistable PMUTs.
Prof. Ulrich Schmid started studies in physics and mathematics at the University of Kassel in 1992. In 1995, he spent 6 months at the Transport Group in the Physics Department, University of Nottingham, UK, to gain experience in wide band gap semiconductor device physics. He performed his diploma work at the research laboratories of the Daimler-Benz AG (now Daimler AG) on the electrical characterization of silicon carbide (6H-SiC) junction field effect transistors at high temperatures. During this time, he also investigated metal-oxide-semiconductor (MOSiC) based structures, such as gate controlled diodes, MOSFETs, and integrated circuits for harsh environment applications. He finished his studies in 1998 at the University of Frankfurt/Main, Germany. Prof. Schmid has authored or co-authored more than 400 peer-reviewed publications in journals and international conferences and holds more than 50 granted patent families. Furthermore, U. Schmid served twice as Chair for the SPIE Symposium “Microtechnologies” and as Programme Committee member for international conferences like IEEE Sensors, Eurosensors, Transducers, Micromechanics Workshop and the German Mikrosystemtechnik-Kongress
Associate Adjunct Professor, University of California, Berkeley
Sr. Director, RF design, MediaTek Inc.
Modern communication systems are rapidly increasing in complexity fueled by the high customer demand for data-rich media streaming over the airwaves. However, with limited and sometimes fragmented available spectrum for cellular communication, very complex modulation schemes with aggregated signal bandwidth are used to be able to “pack” such high data contents for wireless streaming. As a result, tremendous pressure is put on RFIC designers to deliver circuits that can handle such complex modulations and maintain the required high signal integrity while still be power efficient. Recently, the opening of new cellular spectrum in the mmWave bands offered a solution to the spectrum limitation but added an extra set of challenges to keep a reliable link while consuming a reasonable power that can fit in a slick phone design. On the connectivity side, we also see a similar trend in the newly launched WiFi7 802.11be, Extremely High Throughput (EHT), standard and the opening of the 6GHz band with 320MHz channel allocation. Similarly we have seen the rapid evolution of IoT and the likely transition from being the Internet-of-Things to becoming the Intelligence-of-Things. This talk walks the audience through the trends of where cellular and connectivity communication systems are heading and the impact this has on the circuit design and the corresponding implementation challenges. It also sheds some light on the considerations for high-efficiency and what areas of research are needed to enable and enhance such circuits moving forward.
Osama Shanaa: (IEEE S’94, M’01, SM’03) is an Associate Adjunct Professor with the Electrical Engineering Department at the University of California, Berkeley. He also works for the industry as a Senior RFIC Design Director at MediaTek USA since 2008, where he is responsible for the development of various CMOS RF SoC products for both cellular and connectivity, generating over $6B in revenue with some products shipping over 20-million units per month. He received his B.Sc. degree in electrical engineering with high honor from University of Jordan in 1992, the M.S.EE degree from Portland State University in 1996 and the Ph.D. degree in electrical engineering from Stanford University in 2001. Prior to joining MediaTek, he held various IC design positions at Radio Comm. Corp., National Semiconductor, and Maxim Integrated Products, where he led many successful RF wireless products. Dr. Shanaa is a Fulbright scholar, a member of the Etta Kappa Nu honor society and is a senior IEEE member. He currently serves on both Technical Program and Steering Committees for the IEEE RFIC Symposium. Dr. Shanaa is a former Associate Editor for the IEEE Transactions on Microwave Theory and Techniques as well as a Guest Editor for the IEEE Journal of Solid State Circuits. He served as a Distinguished Lecturer for the IEEE Solid State Circuits Society between 2015~2017. He received the Innovation Award from MediaTek three times with over 25 issued patents and several others pending, and was nominated for the President of Singapore Innovation Award in 2013.