Nava SetterNava Setter completed MSc in Civil Engineering in the Technion (Israel) and PhD in Solid State Science in Penn. State University (USA) (1980). After post-doctoral work at the Universities of Oxford (UK) and Geneva (Switzerland), she joined an R&D institute in Haifa (Israel) where she became the head of the Electronic Ceramics Lab (1988). She began her affiliation with EPFL in 1989 as the Director of the Ceramics Laboratory, becoming Full Professor of Materials Science and Engineering in 1992. She had been Head of the Materials Department in the past and more recently has served as the Director of the Doctoral School for Materials.
Research at the Ceramics Laboratory, which Nava Setter directs, concerns the science and technology of functional ceramics focusing on piezoelectric and related materials: ferroelectrics, dielectrics, pyroelectrics and also ferromagnetics. The work includes fundamental and applied research and covers the various scales from the atoms to the final devices. Emphasis is given to micro- and nano-fabrication technology with ceramics and coupled theoretical and experimental studies of the functioning of ferroelectrics.
Her own research interests include ferroelectrics and piezoelectrics: in particular the effects of interfaces, finite-size and domain-wall phenomena, as well as structure-property relations and the pursuit of new applications. The leading thread in her work over the years has been the demonstration of how basic or fundamental concepts in materials - particularly ferroelectrics - can be utilized in a new way and/or in new types of devices. She has published over 450 scientific and technical papers.
Nava Setter is a Fellow of the Swiss Academy of Technical Sciences, the Institute of Electrical and Electronic Engineers (IEEE), and the World Academy of Ceramics. Among the awards she received are the Swiss-Korea Research Award, the ISIF outstanding achievement award, and the Ferroelectrics-IEEE recognition award. In 2010 her research was recognized by the European Union by the award of an ERC Advanced Investigator Grant. Recently she received the IEEE-UFFC Achievement Award (2011),the W.R. Buessem Award(2011), the Robert S. Sosman Award Lecture (American Ceramics Society) (2013), and the American Vacuum Society Recognition for Excellence in Leadership (2013).
Francis LévyAprès sa formation secondaire à La Chaux-de-Fonds, Francis Lévy étudie à l'Ecole Polytechnique Fédérale de Zurich où il obtient le diplôme de physicien (1963). Assistant au Laboratoire de physique des corps solides de l'ETHZ, il publie sa thèse de doctorat sur les propriétés structurales et magnétiques de composés des terres rares (1969). A l'Institut de physique appliquée de l'EPFL, ses recherches concernent la croissance de cristaux et la physique des semi-conducteurs. De 1974 à 1975, au Laboratoire Cavendish de l'Université de Cambridge (UK), il étudie les matériaux à structures cristallines de basse dimensionnalité et leurs propriétés électroniques. De retour à l'EPFL, ses recherches portent sur de nombreux composés des métaux de transition. Il crée un groupe de recherche sur la physique et les technologies pour les couches minces. Ses travaux visent à comprendre les propriétés physique et chimiques de couches minces fonctionnelles en relation avec des caractéristiques structurales et électroniques ainsi qu'avec des paramètres de dépôt.
Avec le titre de professeur (1987), il enseigne la physique générale, la physique du solide et des semi-conducteurs. Il est l'auteur du volume 18 du Traité des Matériaux: Physique et Technologie des Semi-conducteurs (PPUR) ainsi que auteur ou coauteur de plus de 460 publications scientifiques originales.
Arnout Lodewijk M BeckersArnout was born in Leuven, Belgium. He received the M.Sc. degree in Nanoelectronics from
KU Leuven
in 2016. He wrote his M.Sc. thesis in the Physics Modeling and Simulation group at
imec
, Leuven, on the simulation of energy filtering in superlattice-based nanowires. In October 2016, he joined
ICLAB
as part of the European
H2020
MOS-Quito Project
(MOS-based Quantum Information Technology) to model the MOS transistor at cryogenic temperatures, dedicated to the design of cryogenic analog-RF circuits for improved qubit control. His research interests include quantum technology, low-temperature electronics, quantum physics, and cryogenic experiments.
ORCID
