Back to News
quantum-computing

DOE Researchers Use Quantum Computers to Simulate Particle Physics Beyond Supercomputers - The Quantum Insider

Google News – Quantum Computing
Loading...
2 min read
0 likes
⚡ Quantum Brief
Nuclear physicists have developed scalable quantum circuits that simulate fundamental physics too complex for classical supercomputers, marking one of the largest digital quantum simulations ever performed on IBM’s quantum hardware, according to the U.S. Department of Energy (DOE). Their work focuses on preparing the vacuum state and hadron pulses of a one-dimensional quantum electrodynamics (QED) model — a setup used to study the physics that underlies particle collisions. As described by the DOE – The researchers used classical computers to determine optimal circuit elements for small systems, then leveraged symmetries and scale hierarchies to expand those circuits to more than
AI Audio Summary
0:00 / 0:00
Click to play
Quantum computing technology
Unsplash · Validated Fallback

Nuclear physicists have developed scalable quantum circuits that simulate fundamental physics too complex for classical supercomputers, marking one of the largest digital quantum simulations ever performed on IBM’s quantum hardware, according to the U.S. Department of Energy (DOE). Their work focuses on preparing the vacuum state and hadron pulses of a one-dimensional quantum electrodynamics (QED) model — a setup used to study the physics that underlies particle collisions. As described by the DOE – The researchers used classical computers to determine optimal circuit elements for small systems, then leveraged symmetries and scale hierarchies to expand those circuits to more than 100 qubits. Running these circuits on IBM’s quantum machines allowed them to simulate vacuum properties with percent-level accuracy and to prepare localized hadron pulses for dynamic evolution. The U.S. Department of Energy notes that this approach opens a pathway for simulating matter under extreme conditions — high densities, particle beams, and collision-like environments – that push beyond the limits of classical computation. Future quantum simulations using this method could shed light on why matter dominates antimatter, how heavy elements form in supernovae, and how ultra-dense matter behaves. The same scalable strategy could also be applied to other complex quantum systems, including exotic materials. Keep track of everything going on in the Quantum Technology Market. hbspt.forms.create({ portalId: "7697776", formId: "bb678241-852f-447e-b9b3-fdc974f72f81", region: "na1", onFormReady: function($form) { const conversionPageField = $form.find('input[name="conversion_page"]'); if (conversionPageField.length) { conversionPageField.val(window.location.href); } const verticalField = $form.find('input[name="vertical"]'); if (verticalField.length) { verticalField[0].value = 'Quantum'; } } }); One of our team will be in touch to learn more about your requirements, and provide pricing and access options.

Read Original

Tags

energy-climate
government-funding
quantum-computing
quantum-hardware
quantum-simulation

Source Information

Source: Google News – Quantum Computing

Discussion

0 professional contributions

Sign in to join this professional discussion.

Be the first to add a constructive contribution.