EPFL, the Swiss Federal Institute of Technology in Lausanne, is one of the most dynamic university campuses in Europe and ranks among the top 20 universities worldwide. The EPFL employs more than 6,500 people supporting the three main missions of the institutions: education, research and innovation. The EPFL campus offers an exceptional working environment at the heart of a community of more than 18,500 people, including over 14,000 students and 4,000 researchers from more than 120 different countries.
We are offering a challenging position as a full-time (100%) PhD Student at School of Engineering - STI at EPFL. At the Laboratory for fundamental BioPhotonics - LBP we are developing nonlinear imaging techniques to study, characterize and image water in different configuration.
Water is the liquid of life. It is intimately linked to our well-being. Without water, cell membranes cannot function. Charges and charged groups cannot be dissolved, self-assembly cannot occur, and proteins cannot fold. That water is intimately linked with life, we experience time and again when we quench our thirst, but how does this link work?
Osmosis is the flow of water across a (cell) membrane that separates two aqueous solutions with different concentrations of a solutes. Regulating osmotic pressure is a key survival strategy of cells and plays an important role in the functioning of every organism. How osmotic pressure and cell membrane tension are regulated on the molecular level is not known. It is the aim of the ERC Synergy Grant R2-Tension, a collaboration between EPFL (Prof. S. Roke) and the University of Geneva (Prof. A. Roux) to work this out. To do so, we will develop new technology and perform experiments in vitro and vivo.
Nonlinear optical imaging and new ultrafast spectroscopic techniques have recently been developed in the Roke lab and used to image in real time interfacial water and electrostatic potentials on membrane interfaces of model membranes and in living cells.
We will use second harmonic water imaging to (1) image interfacial water in real time as well as the electrostatic field lines on lipid membrane interface model systems, and (2) image in real time membrane fusion and osmosis. The imaging data will be used to link molecular level information to electrostatics and mechanics of membranes.
As a PhD Student, you will be expected to:
This research has many interdisciplinary aspects that demand a highly motivated candidate with strong analytical abilities that is able to think out of the box. The diverse aspects of the project allow a wide range of backgrounds that should include photonics, physics, chemistry/material science, electrical or bioengineering. Experience in nonlinear optics / microscopy, or ultrafast spectroscopy is a bonus. We offer excellent working conditions and a state-of-the-art infrastructure in a highly dynamic and international environment at the forefront of research.
The selection process involves multiple stages, and short-listed candidates will be requested to apply to a specific EPFL Doctoral Program to qualify for a PhD at EPFL, photonics, materials science, or electrical engineering.
Please check this page for additional information on admission.
Please note that this is a separate application process necessary to be eligible to complete your PhD at EPFL.
Only applications submitted through the platform will be considered.
Your application should contain:
Contract Start Date: to be confirmed
Activity Rate: 100.00
Contract Type: PhD Student
Duration:
Reference: 2130
For more information, please contact: [email protected]
Job details are sourced from the employer's original posting.
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