Quantum Algorithms for Nuclear Level Densities

Project Overview

Atomic nuclei exhibit complex structures with many excited states, especially in heavy nuclei, reaching thousands or more. Accurate knowledge of these states is vital for understanding nuclear reactions and decay processes, which involve cascading transitions through excited states. While exact knowledge is ideal, statistical methods often suffice. This project pioneers applying quantum computing to nuclear level densities, a unique property in many-body quantum systems specific to nuclei.

What You Will Do

The student will develop and implement quantum algorithms designed for near-term fault-tolerant quantum computers to calculate nuclear level densities. The research will integrate with the AWE Quantum Centre for Nuclear Defence and Security, providing access to expert resources. Collaboration within the Surrey research group led by Prof Stevenson will support this cutting-edge development.

Expected Outcomes

Developed quantum algorithms will facilitate enhanced modeling of nuclear excited states, potentially improving the precision of nuclear reaction and decay simulations. The project is expected to set foundational work for future applications of quantum computing in nuclear physics.

Why This Matters

Better understanding nuclear level densities impacts nuclear physics, informing nuclear energy, national security, and fundamental research. Exploring quantum computing in this context may open new pathways beyond traditional statistical methods, improving predictions of nuclear properties and behavior.