J. Heyrovsky Institute of Physical Chemistry
Academy of Science of the Czech Republic
Postdoctoral Research Associate in
The position is based in the group of Electrocatalysis and the successful candidate will focus on characterization and development of non-metal catalysts for anodic processes namely oxygen evolution and chlorate processes.
The successful candidate will hold (at the time of the contract commencement) a PhD in physical chemistry, electrochemistry or material science. A practical experience with experimental electrochemistry is expected; an experience with X-ray based structural characterization techniques is a distinct advantage. The successful candidate ought to be able to interact effectively with researchers from other disciplines as well as with industrial partners. The post is available immediately for duration of 24 months.
Further details may be obtained from Petr Krtil (email@example.com).
Applications proving the candidate's qualifications (including CV, list of publications and three academic references) should be submitted by October 9, 2015 via e-mail to the address:
or alternatively by mail to the
J. Heyrovsky Institute of Physical Chemistry of the AS CR, v.v.i.
Attn. Kvetoslava Stejkskalova
Dolejskova 3, 182 23 Prague 8
THE UNIVERSITY OF MANCHESTER
FACULTY OF ENGINEERING & PHYSICAL SCIENCES
School of Electrical and Electronic Engineering
Postdoctoral Research Associate in
Graphene-Based Energy Storage Devices
Starting salary in the range £30,434 to £37,394 pa (Level 6)
Based in the Power Conversion Group you will work within an EPSRC-funded, cross-disciplinary team to develop next-generation, power / energy-dense super-capacitor and battery storage devices using graphene-based materials. You will also be part of a much wider team of researchers at Manchester who have been at the forefront of graphene research since its discovery in 2004. Using our state-of-the-art fabrication, analysis and life-cycle test systems, you will drive forward a new strand of research to evaluate the electrical performance and degradation / life-cycle of large-scale graphene-based super-capacitors and batteries.
The successful candidate will hold, or be about to obtain, a PhD in electrical engineering or electrochemistry. The applicant must have practical experience of using and instrumenting electrical systems, with experience in the modelling and testing of super-capacitors and/or batteries being a distinct advantage. You should be able to interact effectively with researchers from other disciplines and industrial partners. The post is available for 30 months.
Applications addressing the essential and desirable criteria should be made online and include an up to date CV. The closing date is 24/08/2015.
If you are unable to apply online please request an application form by emailing firstname.lastname@example.org quoting the reference number E&PS-06815 or by calling 0161 306 4058.
The University will actively foster a culture of inclusion and diversity and will seek to achieve true equality of opportunity for all members of its community.
A PhD student position will be filled by 1 November 2015 at the Carl von Ossietzky University Oldenburg for 3 years. The research is part of the DFG Project Mechanistic analysis of dye regeneration and recombination processes at dye-sensitized solar cells using microelectrochemical experiments
Within this project, the regeneration of dyes in dye sensitized solar cells will be investigated using microelectrochemical techniques. The methods are based on scanning electrochemical microscopy and will be further developed. Therefore a previous exposure to experimental electrochemistry and interest in method development are advantageous.
Requirements are a completed MSc. (or equivalent) in Chemistry, Physics or Material Science or related subjects with very good results as well as practical and theoretical experiences in electrochemistry.
The Carl von Ossietzky University aims for an increase of the ratio of women within its scientific staff. Therefore women are especially encouraged to apply. Likewise people with medical handicaps should be preferred.
The position is open until filled but at least till September 1st, 2015. Application should be directed as email with PDF attachments to email@example.com. They must contain a cover letter, a CV, certificates including credit points and marks, publication list
Full details (in German): : http://www.uni-oldenburg.de/stellen/?stelle=64317
Institut des Sciences Chimiques de Rennes, Université de Rennes 1
PhD Position: Enhancing Charge Transfer by Surface Chemistry and Nanostructuration
The "Matière Condensée et Systèmes Electroactifs" (MaCSE) group is seeking a PhD candidate (net salary ~1350 € /month). The research project will focus on the preparation, the study and the optimization of conducting (pyrolyzed photoresist films) and semiconducting surfaces (planar and nanostructured silicon) functionalized with different redox-active monolayers. The goal is the understanding/improvement of the charge transfer mechanisms at these surfaces and their applications in electrochemical logic gates and efficient photoelectrodes. The successful candidate will have access to the equipment present in the Department of Chemistry (scanning probe AFMs and electrochemical microscope SECM, scanning electron microscopes, potentiostats, ellipsometer, FTIR ).
Drug-delivering medical feedback loops that would invidualize and improve the effectiveness and safety of drugs, particularly for diabetes management, are of outmost importance nowadays. However, numerous limitations severely prevent commercialization among which the lack of small and implantable power source. The goal of our work is to design such power source, called Biofuel cells (BFC), using glucose/O2 that can be found in the human body. The electro enzymatic reduction of O2 is performed with a multi copper oxidase (Bilirubin oxidase) and remains the limiting part of the BFC.
The objective of the PhD student is to combine electrochemistry and biochemistry to study in details the kinetics of the BOD, in solution and immobilized at the electrode surface. Determination of the rate limiting step will allow us, for example, to improve the enzyme by enzyme engineering. The work is at the interface of chemistry and biochemistry and will request the combination of different analytical and biochemical techniques.