Mohamed FarhatM. Farhat was born in Casablanca in 1962 (Moroccan citizen). He graduated at Ecole Nationale Supérieure d'Hydraulique et de Mécanique de Grenoble (France. He joined The LMH laboratory in 1986 as research assistant. He completed in 1994 a Ph.D. thesis on Cavitation. He joined the R&D department of Hydro-Quebec in Montréal (Canada) in 1995 where he was in charge of several research projects in the areas of production and transportation of hydropower and mainly the monitoring of large hydro turbines. Since 2001, he is senior scientist at the LMH laboratory, head of the cavitation group. He is also lecturer in Master and Doctoral programs. He is member of the Doctoral Committee in Mechanics.
Rakesh ChawlaOriginaire d'Inde, Rakesh Chawla y est né en 1947. Après avoir obtenu son doctorat en génie nucléaire à l'Imperial College de l'Université de Londres en 1970, il travaille jusqu'en 1972 à Winfrith comme Research Fellow de la United Kingdom Atomic Energy Authority.
De 1972 à 1978, il est engagé comme professeur assistant par l'Institut Indien de Technologie à Kanpur dans le cadre du programme Génie Nucléaire et Technologie. Depuis 1978, il travaille à l'Institut Paul Scherrer (PSI) à Würenlingen-Villigen dans le département de recherche Energie Nucléaire. En tant que chef de projet, il est responsable des divers travaux R&D, comme les études faites sur le réacteur de recherche PROTEUS.
En 1994, il est nommé professeur extraordinaire en physique des réacteurs au Département de physique de l'EPFL, poste qui comprend les activités d'enseignement à l'EPFL et la direction du Laboratoire de physique des réacteurs et de technique des systèmes au PSI. En 1997, il est nommé professeur ordinaire son enseignement porte sur les aspects physiques du génie nucléaire et les travaux pratiques utilisant le réacteur CROCUS à l'EPFL. Ses recherches actuelles comprennent les travaux expérimentaux et analytiques liés à la sécurité des systèmes avancés, au cycle de combustible et à la transmutation des déchets, ainsi qu'au comportement dynamique des centrales nucléaires.
Michael GraetzelProfessor of Physical Chemistry at the Ecole polytechnique fédérale de Lausanne (EPFL) Michael Graetzel, PhD, directs there the Laboratory of Photonics and Interfaces. He pioneered research on energy and electron transfer reactions in mesoscopic systems and their use to generate electricity and fuels from sunlight. He invented mesoscopic injection solar cells, one key embodiment of which is the dye-sensitized solar cell (DSC). DSCs are meanwhile commercially produced at the multi-MW-scale and created a number of new applications in particular as lightweight power supplies for portable electronic devices and in building integrated photovoltaics. They engendered perovskite solar cells (PSCs) which turned into the most exciting break-through in the history of photovoltaics. He received a number of prestigious awards, of which the most recent ones include the RusNANO Prize, the Zewail Prize in Molecular Science, the Global Energy Prize, the Millennium Technology Grand Prize, the Marcel Benoist Prize, the King Faisal International Science Prize, the Einstein World Award of Science and the Balzan Prize. He is a Fellow of several learned societies and holds eleven honorary doctor’s degrees from European and Asian Universities. His over 1500 publications have received some 220’000 citations with an h-factor of 218 (SI-Web of Science) demonstrating the strong impact of his scientific work.
Marco GrioniMarco Grioni est né à Milan (Italie). Après une thèse au Politecnico di Milano en 1982, il occupe des positions de recherche à Minneapolis (USA), Nijmegen (Pays Bas), Orsay (France) et Neuchâtel, où il devient Privat Docent en Physique du Solide en 1994. A l'EPFL depuis 1996, il est nommé professeur titulaire en 2005. Il enseigne la physique générale et dirige actuellement le Laboratoire de Spectroscopie Electronique de l'Institut de Physique.
Ses recherches portent sur les propriétés électroniques de nouveaux matériaux tels que les supraconducteurs à haute température, les métaux à basse dimension et les fermions lourds, qu'il étudie par la spectroscopie des photoélectrons (ARPES) à très haute résolution, par ultrafast time-resolved ARPES, et par d'autres techniques utilisant le rayonnement synchrotron. Auteur d'env. 220 publications, il participe activement au niveau suisse et européen au développement de nouveaux instruments. Entre 2003 et 2006 il a été chairman de l'organisation des utilisateurs du synchrotron européen de Grenoble (ESRF). De 2010 à 2017 il a été chairman du Scientific Advisory Committee du synchrotron national français SOLEIL.
Jean-Philippe AnsermetJean-Philippe Ansermet was born March 1, 1957 in Lausanne (legal origin Vaumarcus, NE). He obtained a diploma as physics engineer of EPFL in 1980. He went on to get a PhD from the University of Illinois at Urbana-Champaign where, from 1985 to 1987, he persued as post-doc with Prof. Slichter his research on catalysis by solid state NMR studies of molecules bound to the surface of catalysts. From 1987 to 1992 he worked at the materials research center of Ciba-Geigy, on polymers for microelectronics, composites, dielectrics and organic charge transfer complexes. In March 1992, as professor of experimental physics, he developed a laboratory on the theme of nanostructured materials and turned full professor in 1995. Since 1992, he teaches classical mechanics, first to future engineering students, since 2004 to physics majors. Since 2000, he teaches thermodynamics also, to the same group of students. He offers a graduate course in spintronics, and another on spin dynamics. His research activities concern the fabrication and properties of magnetic nanostructures produced by electrodeposition. His involvement since the early days of spintronics have allowed him to gain recognition for his work on giant magnetoresistance (CPP-GMR), magnetic relaxation of single nanostructures, and was among the leading groups demonstrating magnetization reversal by spin-polarized currents. Furthermore, his group uses nuclear magnetic resonance , on the one hand as means of investigation of surfaces and electrodes, on the other hand, as a local probe of the electronic properties of complex ferromagnetic oxides.
