Post-doc position available on: Microscale spatiotemporal investigation of multi-species electroactive biofilms using optical microfluidic platform, Toulouse, France

Description: 
PLACE OF WORK: Toulouse, Campus INPT SCIENTIFIC FIELDS: Microbial Engineering / Microfluidic / Bioelectrochemical systems / Bioelectrochemistry KEY WORDS: Electroactive biofilms / Microscopy / Microsystems RECRUITING INSTITUTION: https://lgc.cnrs.fr/ The Laboratory of Chemical Engineering of Toulouse (LGC) is the primary center for fundamental and applied research in chemical and microbial engineering in the Occitanie region. Research at the institute covers a wide variety of subjects, including the biological process engineering, wastewater treatment, bioelectrochemistry, membrane processes, and process intensification. With 24 teams and approximately 300 researchers, the LGC provides a dynamic and interactive scientific environment. Toulouse or the "Ville Rose" as it is called, with around 1.2 million people in its metropolis, is the fourth biggest city in France (behind Paris, Lyon, and Marseille). With its high quality of life, rich tradition in arts and culture, dynamic student population, Toulouse is consistently considered one of the cities in France where it is the most pleasant to live. It has seen France's biggest economic growth in recent years , boasts France's biggest population growth over the past 20 years, and was recently ranked as the second best place in the country to work after Bordeaux. DESCRIPTION OF THE POSITION: A post-doc position is available in the biofilm engineering group of Dr. Benjamin Erable at the Laboratory of chemical engineering in Toulouse, France. Our laboratory investigates the fundamentals and applications of electroactive biofilms, whether in energy production or synthesis processes but also in degradation or corrosion processes. We are seeking candidates to participate in a project that explores the mechanisms governing the electroactive biofilms formation on electrodes and also the mechanisms of extracellular electron transfer. This work takes a multidisciplinary approach, combining state-of-the-art methods in bioelectrochemical engineering, live-cell microscopy, electronics, and experimental microfluidic microbiology. Relevant recent references: D Pocaznoi, B Erable, ML Delia, A Bergel. Ultra microelectrodes increase the current density provided by electroactive biofilms by improving their electron transport ability. Energy & Environmental Science 5 (1), 5287-5296 M Rimboud, M Barakat, A Bergel, B Erable. Different methods used to form oxygen reducing biocathodes lead to different biomass quantities, bacterial communities, and electrochemical kinetics. Bioelectrochemistry 116, 24-32 C Santoro, C Arbizzani, B Erable, I Ieropoulos. Microbial fuel cells: from fundamentals to applications. A review. Journal of power sources 356, 225-244 JOB START-UP: Ideally before the end of 2018 (to be discussed) CONTACT: Benjamin Erable / benjamin.erable@ensiacet.fr
Contact details: 
Benjamin Erable / benjamin.erable@ensiacet.fr
Contact email address: 
benjamin.erable@ensiacet.fr
Expiration date: 
Monday, December 31, 2018