This page is automatically generated and may contain information that is not correct, complete, up-to-date, or relevant to your search query. The same applies to every other page on this website. Please make sure to verify the information with EPFL's official sources.
Dr. Benoît J.D. Ferrari studied Biochemistry and Biology and completed his PhD in Ecotoxicology at the University of Lorraine (Metz, France) in 2000. After several years at the University of Geneva (Forel F.A. Institute, Geneva, Switzerland; 2002-2008) and Irstea (Formerly Cemagref, Lyon, France; 2000-2002 and 2008-2013), he joined the Swiss Centre of Applied Ecotoxicology (Centre Ecotox Eawag/EPFL) in October 2013 as group leader of the soil and sediment ecotoxicology group at Lausanne. During his different mandates, he was implied as (co-)proponent in different research projects supported e.g. by the Swiss Federal Office for the Environment, the Swiss National Science Foundation, the French National Research Agency or the European Framework Programme for Research. His main areas of interest cover the ecodynamic of contaminants and their impact on the ecophysiology of organisms. Particularly, he is involved in 1) the development of exposure and effect indicators to evaluate the chemical stresses, 2) the integration of such indicators in laboratory- and field-based approaches to assess the quality of aquatic ecosystems, 3) the development of adapted bioassays for active biomonitoring, and 4) the transfer of such ecotoxicological tools and approaches towards end-users.
Despite their high ecological value, non-perennial streams have received less attention than their perennial counterparts. This doctoral thesis addresses this disparity by advancing knowledge on the dynamics of the drainage density and hydrologic processes ...
Climate change is expected to alter the temporal distribution of precipitation events, leading to prolonged drought periods and an increased frequency of extreme precipitation events. Changes in precipitation pattern will directly affect soil moisture dyna ...
As air temperature and vapor pressure deficit (VPD) increase continuously, forests are losing more water through evapotranspiration, with large consequences for local and global hydrological cycles. In regions with high vegetation cover, soil warming can b ...