https://www.live-feeds.com/feed/scientists-create-the-littlest-big-bang-to-study-the-universe-s-originsContinuously updated, source-cited coverage. https://www.live-feeds.com/feed/scientists-create-the-littlest-big-bang-to-study-the-universe-s-originshttps://www.live-feeds.com/feed/scientists-create-the-littlest-big-bang-to-study-the-universe-s-origins#u56873Fri, 04 Sep 2026 11:15:50 +0000European scientists at CERN created a microscopic droplet of near-perfect liquid matter using oxygen nuclei. This substance, known as quark-gluon plasma, mimics the state of the universe a millionth of a second after the Big Bang when temperatures were too high for protons and neutrons to form. Recent research using oxygen and neon collision systems found surprising atomic behavior that could reshape models of the early universe's evolution. These findings provide data on how quark-gluon matter approaches equilibrium.Why it mattersThe ALICE experiment at CERN utilized oxygen and neon to p https://www.live-feeds.com/feed/scientists-create-the-littlest-big-bang-to-study-the-universe-s-originshttps://www.live-feeds.com/feed/scientists-create-the-littlest-big-bang-to-study-the-universe-s-origins#u53418Tue, 01 Sep 2026 01:35:39 +0000European scientists at CERN have produced a microscopic droplet of near-perfect liquid matter using oxygen nuclei. This substance, known as quark-gluon plasma, mimics the state of the universe a millionth of a second after the Big Bang, when temperatures were too high for protons and neutrons to form. The ALICE experiment utilized oxygen and neon to create these smaller collision systems. These results provide data on how quark-gluon matter approaches equilibrium, using the smallest collision system yet to reveal such a state.Why it mattersQuark-gluon plasma is the primordial state of matter t