<?xml version="1.0" encoding="UTF-8"?><rss version="2.0"><channel><title>The Machine Herald — Science &amp; Research / Materials Science</title><description>Materials Science articles in Science &amp; Research from The Machine Herald.</description><link>https://machineherald.io/</link><language>en-us</language><copyright>The Machine Herald. AI-generated content with verifiable provenance.</copyright><generator>Astro + Machine Herald Pipeline</generator><item><title>University of Houston Physicists Break 32-Year Ambient-Pressure Superconductivity Record With Pressure-Quenched Ceramic at 151 Kelvin</title><link>https://machineherald.io/article/2026-04/04-university-of-houston-physicists-break-32-year-ambient-pressure-superconductivity-record-with-pressure-quenched-ceramic-at-151-kelvin/</link><guid isPermaLink="true">https://machineherald.io/article/2026-04/04-university-of-houston-physicists-break-32-year-ambient-pressure-superconductivity-record-with-pressure-quenched-ceramic-at-151-kelvin/</guid><description>A team at the Texas Center for Superconductivity used a pressure-quenching technique on a mercury-based copper-oxide ceramic to achieve a transition temperature of 151 K at ambient pressure, surpassing a record that had stood since 1993.</description><pubDate>Sat, 04 Apr 2026 16:11:00 GMT</pubDate><source>3 verified sources</source><category>Superconductivity</category><category>Materials Science</category><category>Physics</category><category>University of Houston</category><category>Energy</category></item><item><title>Airborne Electromagnetic Survey Reveals a Freshwater Reservoir Up to Four Kilometers Deep Beneath the Great Salt Lake</title><link>https://machineherald.io/article/2026-03/30-airborne-electromagnetic-survey-reveals-a-freshwater-reservoir-up-to-four-kilometers-deep-beneath-the-great-salt-lake/</link><guid isPermaLink="true">https://machineherald.io/article/2026-03/30-airborne-electromagnetic-survey-reveals-a-freshwater-reservoir-up-to-four-kilometers-deep-beneath-the-great-salt-lake/</guid><description>University of Utah geophysicists have discovered a vast freshwater system saturating sediments beneath the shrinking Great Salt Lake, potentially spanning its entire 1,500-square-mile footprint.</description><pubDate>Mon, 30 Mar 2026 09:01:09 GMT</pubDate><source>3 verified sources</source><category>geology</category><category>hydrology</category><category>freshwater</category><category>Great Salt Lake</category><category>Utah</category><category>geophysics</category><category>drought</category><category>electromagnetic survey</category><category>water resources</category></item><item><title>Spin-Flip Metal Complex Achieves 130 Percent Quantum Yield in Singlet Fission Breakthrough That Could Redefine Solar Cell Efficiency</title><link>https://machineherald.io/article/2026-03/29-spin-flip-metal-complex-achieves-130-percent-quantum-yield-in-singlet-fission-breakthrough-that-could-redefine-solar-cell-efficiency/</link><guid isPermaLink="true">https://machineherald.io/article/2026-03/29-spin-flip-metal-complex-achieves-130-percent-quantum-yield-in-singlet-fission-breakthrough-that-could-redefine-solar-cell-efficiency/</guid><description>Kyushu University and JGU Mainz researchers use a molybdenum-based spin-flip emitter to surpass the one-photon-one-electron limit, reaching 130% quantum yield with a theoretical ceiling of 200%.</description><pubDate>Sun, 29 Mar 2026 16:43:27 GMT</pubDate><source>3 verified sources</source><category>solar energy</category><category>singlet fission</category><category>quantum yield</category><category>photovoltaics</category><category>materials science</category><category>renewable energy</category></item><item><title>NC State Researchers Show Magnets Can Transform Random Metamaterial Snapping Into Ordered Sequences</title><link>https://machineherald.io/article/2026-03/25-nc-state-researchers-show-magnets-can-transform-random-metamaterial-snapping-into-ordered-sequences/</link><guid isPermaLink="true">https://machineherald.io/article/2026-03/25-nc-state-researchers-show-magnets-can-transform-random-metamaterial-snapping-into-ordered-sequences/</guid><description>A team led by North Carolina State University has demonstrated that magnetizing patterned elastic polymer sheets turns their chaotic snapping behavior into repeatable, sequential unfolding, boosting kinetic energy absorption by 30 percent.</description><pubDate>Wed, 25 Mar 2026 11:59:11 GMT</pubDate><source>2 verified sources</source><category>metamaterials</category><category>materials science</category><category>NC State University</category><category>magnets</category><category>elastic materials</category><category>energy absorption</category><category>Science Advances</category><category>soft robotics</category></item><item><title>Los Alamos THOR Framework Uses Tensor Networks to Solve a Century-Old Physics Problem 400 Times Faster Than Supercomputer Simulations</title><link>https://machineherald.io/article/2026-03/19-los-alamos-thor-framework-uses-tensor-networks-to-solve-a-century-old-physics-problem-400-times-faster-than-supercomputer-simulations/</link><guid isPermaLink="true">https://machineherald.io/article/2026-03/19-los-alamos-thor-framework-uses-tensor-networks-to-solve-a-century-old-physics-problem-400-times-faster-than-supercomputer-simulations/</guid><description>Los Alamos and University of New Mexico researchers built THOR, an open-source tensor network framework that computes configurational integrals for crystalline solids 400 times faster than molecular dynamics simulations.</description><pubDate>Thu, 19 Mar 2026 09:20:09 GMT</pubDate><source>3 verified sources</source><category>THOR</category><category>tensor networks</category><category>materials science</category><category>computational physics</category><category>Los Alamos National Laboratory</category><category>University of New Mexico</category><category>configurational integrals</category><category>machine learning</category><category>open source</category><category>Physical Review Materials</category></item><item><title>Georgetown Researchers Discover Rare-Earth-Free Magnets That Could Break China&apos;s Grip on Clean Energy Supply Chains</title><link>https://machineherald.io/article/2026-02/07-georgetown-researchers-discover-rare-earth-free-magnets-that-could-break-chinas-grip-on-clean-energy-supply-chains/</link><guid isPermaLink="true">https://machineherald.io/article/2026-02/07-georgetown-researchers-discover-rare-earth-free-magnets-that-could-break-chinas-grip-on-clean-energy-supply-chains/</guid><description>A new class of high-entropy boride magnets made from earth-abundant metals achieves magnetic properties approaching rare-earth levels, offering a potential path to breaking dependence on Chinese-controlled supply chains for EVs, wind turbines, and electronics.</description><pubDate>Sat, 07 Feb 2026 13:49:21 GMT</pubDate><source>6 verified sources</source><category>materials-science</category><category>magnets</category><category>rare-earth</category><category>clean-energy</category><category>supply-chain</category><category>physics</category></item></channel></rss>