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Duke researchers successfully simulated string-breaking dynamics on a trapped-ion quantum simulator, offering a novel pathway to study high-energy physics phenomena like particle creation that are inaccessible to classical computing. By validating these results against classical models, the study confirms quantum computers as essential tools for probing fundamental questions about matter formation without needing to recreate extreme cosmic events directly.
Quantum computer models how particles ‘pop’ into existence from energy

Duke Quantum Center researchers observed string-breaking—particle-antiparticle formation—on a quantum simulator, a key step in probing high-energy physics.
Researchers led by Christopher Monroe at Duke have, for one of the first times in quantum physics, observed string-breaking dynamics, a process where connected building blocks of matter stretch and create particles, on a quantum simulator. The Duke Quantum Center team used a chain of 13 trapped ions to emulate conditions similar to the Big Bang, offering a new way to study high-energy physics without recreating the event itself. “Quantum computer simulations provide the best platform to investigate complex…
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