School of Physical Sciences
Pioneering research in fundamental and applied physics to address global scientific and technological challenges
Our School has a vibrant research community of academic researchers, postdoctoral scientists, and postgraduate research students. We undertake innovative fundamental and applied research across the physical sciences, driving advancements from the subatomic and nanoscale to the astrophysical scale. Working in close collaboration with international academic institutions, national research centres, and leading industry partners, we engage in responsive, high-impact research connected to societal and technological needs.
Our research activity is organised across four core scientific areas:
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Materials Science Research:
- Growth and characterisation of nanostructured semiconductor materials
- Chemical & structural interactions of organic molecules with semiconductor surfaces
- XPS and ALD of thin films
- Sustainable materials development
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Plasma Physics Research:
- Low-temperature plasmas and their technological applications
- Plasma dynamics and chemical kinetics
- Nuclear fusion – Eurofusion
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Astronomy Research:
- High energy astrophysics
- Multiwavelength astronomy
- Solar physics
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Physics Education Research:
- Pedagogy and assessment at second and third level
- Inquiry based learning methodology development
- Physics teacher education research at both pre-service and in-service levels
Together, these themes reflect the breadth of research across the School and our commitment to scientific excellence, enterprise engagement, and evidence-informed educational innovation.
We welcome enquiries from prospective postgraduate research students, academic collaborators, and industry partners interested in working with us. Through the Pure research portal, you can explore our researchers’ areas of expertise, publications and projects, as well as opportunities for collaboration.

Information / Highlights
World-Class Infrastructure and High-Impact Innovation
The School of Physical Sciences bridges fundamental research and real-world industrial applications through state-of-the-art facilities, active enterprise partnerships, and interdisciplinary breakthroughs.
Open-Access Research Infrastructure
Our new advanced facilities, supported by Research Ireland Infrastructure grants, deliver specialised analytical capabilities available to academic researchers and industry partners:
- AM-CHAMP (Advanced Material Characterisation and Imaging Tool): Led by Prof. Karsten Fleischer, this operational facility provides high-resolution surface chemical composition mapping and electronic property characterisation, including XPS, HAXPES, SEM, LEIPS, UPS, REELS, and Raman spectroscopy, to accelerate materials discovery and device integration.
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Atomic Layer Etching Diagnostic Platform (ALE-DP): Led by Prof. Deborah O’Connell, this nationally unique open-access facility will integrate an extensive suite of real-time diagnostic tools—including in-vacuo XPS, optical emission spectroscopy, laser-induced fluorescence, and in-situ ellipsometry—to analyze and optimise atomic-precision plasma etching for advanced semiconductor manufacturing.
Recent Research Highlights & Industry Partnerships
Our research drives solutions across technology, sustainability, and health:
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Micro-Display & Semiconductor Engineering: Collaborating with Meta Reality Labs, Dr. Rob O’Connor’s team utilizes plasma processing and specialised surface spectroscopy to diagnose and repair sidewall defects in micro-LEDs, improving brightness and energy efficiency for next-generation augmented reality displays. Additionally, Dr. Stephen Power uses AI-inspired algorithms to model reconfigurable superlattices for programmable two-dimensional quantum electronics. For industrial plasma control, Prof. Timo Gans and collaborators work with partners like Inficon and the I-Form Advanced Manufacturing Research Centre to develop nanosecond sensing technologies for real-time process monitoring.
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Circular Economy & Sustainable Systems: Dr. Sean Kelly leads research on electrode-free microwave plasma systems for electrification and nitrogen fixation, using renewable electricity to enable zero CO2 emissions fertiliser production. Dr. Jennifer Gaughran co-leads the PUreTex initiative, using microwave technology to chemically recycle post-consumer textile waste into polyurethane insulation materials. In aquaculture, Prof. Enda McGlynn leads the NanoSA project, deploying nanostructured materials for rapid pathogen detection in fish farming to prevent livestock loss and reduce food supply chain waste.
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Astrophysics & Data Analytics: Dr. David Long combines machine learning algorithms with magnetohydrodynamic modeling to analyze over 13 years of solar observations, tracking particle acceleration and elemental abundance to uncover the origin of solar energetic particle events.
- Engaged Research & Education: As a PI in the Rínn: Semiconductors research centre, Dr. Eilish McLoughlin focuses on engaged research, STEM educational interventions, and public outreach to support the semiconductor sector. The project collaborates with key stakeholders to build capacity in physics and engineering education while actively promoting diversity and widening the participation of women and underrepresented groups.
We actively invite industry leaders, enterprise partners, and international research collaborators to engage with our team and leverage our open-access infrastructure to drive the next wave of technological innovation.

Contact Information
Postal address
- School of Physical Sciences Marconi Building
- D09 K2WA Glasnevin, Dublin 9
- Ireland
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Phone
- +353 1 700 5306
Email
Sustainable Development Goals
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