Completed Materials & Manufacturing Physics & Astronomy

Plasma Accelerators for Nuclear Applications and Materials Analysis (PANAMA)

In plain English

AI plain-English summary

A laser the power of a small country is about to start blasting tiny targets to create particle beams for peering inside nuclear waste. The PANAMA project will use one of the world’s most powerful lasers at the Scottish Centre for the Application of Plasma Accelerators to generate intense X-rays and gamma rays that can punch through dense, large materials—something conventional scanners cannot do. This matters because the nuclear sector faces a fundamental problem: it cannot easily see what is happening inside its own materials as they degrade. Current methods require removing samples for analysis, which is slow, expensive, and risks missing dynamic damage processes. PANAMA will combine imaging and irradiation on the same sample simultaneously, allowing researchers to watch material damage unfold in real time. If successful, the facility will transform how nuclear materials are tested—from new reactor builds and fuel development to decommissioning and geological disposal of waste. It will also support fundamental science of nuclear materials, providing a unique capability for understanding how they behave under extreme conditions. The immediate impact is on safety and efficiency in the nuclear industry, not on everyday life.

View original technical description
In laser-driven plasma accelerators, targets are bombarded with high intensity, femtosecond laser pulses to generate novel high brightness sources of high energy particle beams and radiation pulses. The particle beams or radiation pulses generated depend on the nature of the target, but include: electron, proton, neutron and light ion beams; and electromagnetic radiation pulses from IR to gamma. The PANAMA project will utilise these particle beams and radiation pulses for advanced materials testing and characterisation, using one of the most powerful lasers in the world at the Scottish Centre for the Application of Plasma Accelerators (SCAPA). The PANAMA facility will provide a unique capability; the very high energy of the X-/gamma-rays produced can penetrate very dense (or very large) materials and perhaps more importantly, provide the ability to combine imaging or spectroscopy with irradiation simultaneously on the same sample to enable in-situ real-time observations of material damage. This will enable fundamental science of nuclear materials, addressing research needs in materials characterisation across the nuclear sector, from new build and fuel development and manufacture, to decommissioning, waste management and geological disposal.

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Researchers

Dino Anthony Jaroszynski (Co-Investigator)Joanna Renshaw (Principal Investigator)Paul McKenna (Co-Investigator)Rebecca Lunn (Co-Investigator)

Related Research

Grants with similar aims, by meaning.

Laser-driven radiation beamlines at SCAPA
All-Optical Plasma Channels and Electron Injection with Spatio-temporal Control
Laser-plasma interaction physics for the development of plasma accelerators and radiation sources
Plasma photonics for laser pulse control at ultrahigh intensities
Next-generation Plasma-based Electron Beam Sources for High-brightness Photon Science

Original classification

Research Grant

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