Completed Physics & Astronomy Chemistry

Queen's University Belfast Plasma Physics

In plain English

AI plain-English summary

Nine plasma physicists at Queen’s University Belfast are joining forces to build a unified research group spanning experiments, theory, and computation. The team will develop new computer models that can simulate laser-driven plasma dynamics on realistic timescales, track charged particles as they travel through dense matter, and probe the exotic states of warm dense matter and ultrahigh-intensity interactions. A low-temperature plasma experimentalist will bridge plasma physics with chemistry and surface science, pairing advanced diagnostics with computational modelling. The group also plans to coordinate a UK-wide, modular MSc programme in plasma physics, offering stand-alone courses for PhD students and industry professionals. This matters because plasma physics underpins technologies from fusion energy to semiconductor manufacturing, yet the UK lacks a coordinated, critical-mass research effort. If successful, the group’s models could accelerate the design of laser-driven particle accelerators, improve industrial plasma processing, and deepen understanding of matter under extreme conditions—knowledge that could eventually inform next-generation energy systems or medical devices. The teaching programme addresses a skills gap, training the next generation of plasma scientists. This is primarily fundamental science, but past work in plasma modelling has fed directly into innovations in microchip fabrication and cancer therapy.

View original technical description
This is a proposal to create a coherent, critical-mass research group of nine academics with strength in experimental, theoretical and computational plasma physics which will provide innovation, leadership and training. We would appoint two plasma theorists and one low temperature plasma experimentalist/modeler. The theorists are expected to be involved in the development of cutting edge kinetic modeling capabilities able to follow laser-interaction and plasma dynamics on experimentally relevant scales, hybrid codes (e.g. PIC-fluid) able to describe charged particle propagation through dense matter, computational and analytical models able to treat emerging issues in warm dense matter and high energy density physics and new analytical and computational tools to treat the ultrahigh intensity interaction regimes. The experimentalist will work across the interfaces of plasma physics, chemistry and surface science, combining sophisticated diagnostics with advanced computational modelling capabilities. A significant element of this bid is the proposal to coordinate a UK-wide, web and module-based teaching programme in Plasma Physics in partnership with other universities, laboratories and industry. Individual modules can be taken as stand-alone courses by PhD students and those in full time employment or aggregated to obtain an MSc.

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Researchers

Ciaran Lewis (Co-Investigator)David Riley (Co-Investigator)K Zepf (Co-Investigator)Marco Borghesi (Co-Investigator)William (Bill) Graham (Principal Investigator)

Related Research

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Transient High Energy Density Plasmas Driven By Few Cycle Laser Pulses.
Automated multi-dimensional mapping of dynamic laser-liquid interactions

Original classification

Research Grant

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