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Can quantum computers help us learn about the inside a neutron star? | Newswise - Newswise

Google News – Quantum Computing
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⚡ Quantum Brief
A US-Canadian research team used a trapped-ion quantum computer to model quark-gluon plasma, advancing understanding of neutron stars and early-universe conditions. Led by Christine Muschik of Waterloo’s IQC, the study marks a breakthrough in simulating extreme-density environments where classical computers fail. The team created a simplified 1D phase diagram for quantum chromodynamics (QCD), testing it on a quantum platform. This foundational work enables future exploration of QCD phenomena in extreme states, like neutron star interiors, where matter behaves unpredictably. A novel ancillae register technique, using trapped-ion motion as auxiliary qubits, boosted quantum computation efficiency. Muschik called this a major step forward for quantum simulators, enhancing their ability to tackle complex physics problems. The research, published in Nature Communications, involved collaborators from Waterloo’s IQC and Perimeter Institute. It demonstrates quantum computing’s potential to map phase transitions in environments too dense for classical simulations. This work could reveal new states of matter from the early universe and neutron stars, offering insights into fundamental particle interactions under extreme conditions. The team aims to expand simulations to higher dimensions.
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Newswise — A new paper in Nature Communications could put scientists on the path to understanding one of the wildest, hottest, and most densely packed places in the universe: a neutron star.Christine Muschik, a faculty member at the University of Waterloo Institute for Quantum Computing (IQC) and a research associate faculty member at Perimeter Institute is part of a US-Canadian research group using a quantum computer to build on a theory of quantum chromodynamics that describes how different varieties of quarks and gluons (the most fundamental bits of nature) interact in nuclei.To really understand the behaviour of the quark-gluon plasma in extreme conditions like the beginning of the universe, or the inside of a neutron star, scientists need a map, a so-called “phase diagram” to describe the phase transitions in those conditions that are so extreme — so dense and complex — that classical computer simulations of the models will fail.But even with a quantum computer, the challenges of modelling such high particle density environments are huge.“This is one of the areas where our current computers completely fail and we are motivated to use quantum computers,” says Muschik. “This work could teach us something about nature and which states of matter were possible in the early universe, for example.”The team developed a simplified one-dimensional phase diagram that could be a launch point for the future study of quantum chromodynamics in such extreme environments. They successfully tested this in a trapped ion quantum computer with the team in the US, laying the foundation to explore QCD phenomena on quantum platforms, and making quantum simulators more efficient.They used the motion of the trapped ions as auxiliary qubits for a new type of ancillae register that helped to make the quantum computations much more efficient.“This is advancing the whole area of quantum computing, now that we have this new type of ancillae register that we can use to our advantage,” Muschik says.The Waterloo team includes Abhijit Chakraborty, IQC postdoctoral fellow; Yasar Atas, joint research associate at IQC and Perimeter, and Jinglei Zhang, research associate at IQC. Journal Link: Nature Communications Request an Expert MEDIA CONTACT Register for reporter access to contact details CITATIONS Nature Communications TYPE OF ARTICLE Research Results SECTION SCIENCE CHANNELS All Journal News Nuclear Physics Particle Physics Physics Quantum Mechanics Space and Astronomy Popular with Readers KEYWORDS Quantum Quantum Computer quantum chromodynamics quark gluon plasma Neutron Stars Shares COMMENTS | COMMENTING POLICY

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