In the nuclear physics group at York, we focus on carrying out world-leading research aimed at the study of the fundamental properties of atomic nuclei and the origin of elements in the cosmos, employing and developing state-of-the-art experimental and theoretical techniques. As well as pursuing fundamental research focusing on key fundamental questions at the forefront of the field, we also work to develop new tools and techniques in nuclear technology, working closely with industrial partners in a wide range of societal applications. We are also strongly committed to our outreach program, inspiring the next generation of scientists and bringing the excitement of fundamental science to the wider public.
We are currently seeking for a highly qualified and motivated student with a strong research interest in experimental nuclear physics. This project addresses the following fundamental questions: How do long- and short-range nucleon-nucleon correlations deplete the single-particle strength in asymmetric atomic nuclei? Answering this question for asymmetric nuclei is essential not only for understanding and modelling nuclear structure of finite nuclei far from stability but also to accurately account for the effects of correlations in systems such as neutron stars. Within this project, you will work on experiments probing nuclear structure and properties of exotic nuclei using world-class accelerator facilities.
The experimental work will be carried using the R3B setup at the FAIR facility in Germany, where you are expected to spend a significant amount of time (around 18 months) in order to join the research team at R3B and contribute to the ongoing experimental efforts. The experiments employ direct nuclear reactions and utilise state-of-the-art particle and gamma-ray spectroscopic tools and techniques, while they also involve sophisticated analysis methods of large data sets and computer simulations. In particular, you will be supporting our research and development on a new pixel-based Si tracking detector device for high-energy proton detection. These tools will help you build a solid background on experimental physics and help you develop valuable transferable skills. As part of this project you will also be traveling to other world-class international accelerator facilities around the globe to support the experimental investigations of the group and participate at international conferences to present your experimental results. The experience, skills and networking that you will develop through this PhD will be a valuable asset for pursuing a career in academia or industry.
In this project you are expected to spend a significant amount of time (around 18 months) at the FAIR facility in Germany.
Eligibility: UK students and students worldwide
Academic entry requirements: at least a class 2:1 MSc or MPhys degree in Physics.
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