Hamad Ahmed

Senior Plasma Physics Scientist

Hamad’s journey with the CLF began during his PhD at Queen’s University Belfast, where he conducted most of his experimental work in the target areas of Vulcan and Gemini. As a user, he spent a significant amount of time at the CLF, which not only deepened his interest in intense laser-matter interactions, but also helped him develop hands-on skills for working with high-power lasers and developing optical and particle diagnostics.

In June 2020, Hamad joined the CLF. Since then, he has been contributing to the operation of world-leading laser facilities by delivering experiments that push the boundaries of laser-plasma interactions. He also has been contributing to the development of EPAC and Vulcan 20-20, having a leading role in designing and developing one of the target areas in EPAC.

Hamad is a scientist with a passion for hands-on experimental work, especially when it involves optics, lasers, and plasma. His research focuses on intense laser-matter interactions, with a particular emphasis on laser-driven ion acceleration and its application in plasma radiography.

He’s intrigued by the potential of laser-driven ion beams in radiobiology, where they could serve as a cost-effective alternative to conventionally accelerated ion beams in hadron therapy for cancer treatment. His work aims to bridge fundamental physics with real-world applications, exploring how advanced high-power laser technologies can contribute to both scientific discovery and societal benefit.

Hamad is a recipient of the prestigious Marie‑Curie Fellowship. He has presented his research at leading international conferences and has authored more than 90 peer‑reviewed publications in high‑impact scientific journals. A full list of publications is available on Research Gate. Hamad has represented CLF in the H2020 MULTISCAN‑3D project and currently represents CLF in the COST Action on “Inertial Fusion Energy: Supply Chain of Laser Targets from Exploration to Delivery.” Hamad recently secured funding through a Horizon Europe Infratech award and plays a leading role within the project, leading a work package focused on advanced diagnostics for laser‑driven ion and neutron sources.