PhD student position in Theoretical Nanophysics (Nonequilibrium quantum phenomena in hybrid nanostructures) Stimulated by major needs and challenges in science and society, our ambition is to foster a creative environment for academic research, teaching and outreach. We provide a competitive advantage by linking top-level international and interdisciplinary academic performance in the areas of material science, nanotechnology and energy research with world-leading industrial R&D&I projects.
We address a wide array of experimental, computational, methodological and theoretical challenges, from fundamental physics research, through the development of new materials to direct industrial projects generating new inventions. We have a strong learning commitment on all levels from undergraduate to PhD studies where physics meet engineering.
We are situated in a stimulating and creative environment with 200 physics teachers and researchers, 120 PhD students and 550 undergraduate students.
Information about the division
The Condensed Matter Theory group at the Department of Applied Physics at Chalmers University of Technology and Nanoscience & Nanotechnology Area of Advance is seeking a new Ph.D. student to start during the first half of 2013 under the supervision of Professor Leonid Gorelik. Our research focuses on the theoretical study of the current problems in mesoscopic physics, covering electronic, plasmonic, nanomechanical, and spintronics phenomena in the nanostructures such as quantum dots, nanowires, graphene.
Job description
The technology available today makes it possible to manufacture different elements of integrated circuits on the nanoscale level. New physical properties, related to the small dimensions, dominate the operation of such nanoscale devices. These new properties are directly related to crucial modifications of the physical phenomena in nanometer-size structures compared to bulk systems. Quantum mechanical coherence and electron-electron Coulomb correlations are two of the most important phenomena responsible for the modified electronic structure that make the novel principles of the functionality of the nano-electronic devices possible. The objective of this Ph.D. project is to perform a theoretical study of the nonequilibrium quantum effects in the hybrid nanostructures incorporating nanomechanical resonator . This is encouraging both for the prospects of realizing a plethora of applications that depend on our ability to control and monitor the coherent dynamics of nanometer-scale mechanical resonators and for shedding light on purely fundamental issues, such as the nature of the crossover from classical to quantum physics.
The majority of your working time will be devoted to your own research studies. In addition, the position will normally include 20% departmental work, mostly in the form of teaching duties. The objective of a doctoral studentship is to obtain a Ph.D. degree with the intermediate goal to obtain the degree of Licentiate of Engineering. You are expected to develop own ideas, attend conferences and meetings, and communicate scientific results both orally and in written form.
The employment is limited to a maximum of five years.
Qualifications
You should hold a Master degree or equivalent in physics and have an interest in theoretical physics. A comprehensive knowledge of quantum and statistical mechanics, electrodynamics, mathematical physics, as well as previous experience with analytical calculations is strongly recommended.
Application procedure
The application should be marked with Ref 20130007 and written in English. The application should be sent electronically and be attached as pdf-files, as below:
Please apply with your CV and cover letter by the 'apply' button below.
Education Backgrounds: |
Mechanical Engineering Physics |
Specialties: |
Experimental Physics Mechanics Nanotechnology Semiconductor Physics |
Education Level: |
Postgraduate (Masters) |
Experience: |
0 - 2 years 2 - 5 years |
Languages spoken: |
English |
Job Location: | , Sweden |
Type: Job
Deadline: 11th May 2013
Job reference (ID): 5653
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