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A leading UK university is inviting applications for a Postdoctoral Research Associate focusing on gas-phase spectroscopy, particularly anion photoelectron spectroscopy. The role includes conducting research projects, publishing findings, and presenting at conferences. The position is fixed-term for approximately 2 years, funding ending on 31 December 2027.
Organisation/Company DURHAM UNIVERSITY Research Field Physics Chemistry Researcher Profile Recognised Researcher (R2) Established Researcher (R3) Country United Kingdom Application Deadline 17 Nov 2025 - 00:00 (UTC) Type of Contract Other Job Status Full-time Is the job funded through the EU Research Framework Programme? Not funded by a EU programme Is the Job related to staff position within a Research Infrastructure? No
The Role
Applications are invited for a Postdoctoral Research Associate in gas-phase spectroscopy with a particular emphasis on anion photoelectron spectroscopy (imaging) both in the time and frequency domains. The research project aims to exploit these methods to develop an understanding of electron-driven chemistry of water.
The successful applicant will work on a specific EPSRC-funded research project entitled "Photoelectron Spectroscopy of the Electron-Water Reaction" that aims to probe electron-driven chemistry in water clusters using anion photoelectron imaging. The post-holder will be expected to develop and use molecular beam methods and mass-spectrometry to generate cold isolated anionic cluster, to use laser spectroscopy (both nanosecond and femtosecond), to perform photoelectron imaging of the anions, to analyse and interpret the results, and to disseminate the results as needed. This project builds on and extends recent work from the Verlet group in this area, details and publications of which can be found at. This specific project aims to advance our understanding of the very first steps in electron attachment exploiting a new methodology to access electronic resonances. In the frequency domain, photoelectron spectroscopy will offer insight into the dynamics of the resonance from a static perspective, while time-resolved photoelectron spectroscopy will track the autodetachment to internal conversion and dissociative electron attachment products in real-time.
Key responsibilities:
This post is fixed term for approximately 2 years (depending on start date), due to the funding availability that ends on 31 December 2027, and may be extendable depending on further funding.