Particle Physics
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Most Powerful Neutrino Ever Detected May Have Come From a Blazar
A 220 PeV neutrino detected beneath the Mediterranean Sea may have originated from a distant blazar. Simulations suggest these powerful black hole systems can generate ultra-high-energy ghost particles.
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Ultra-High-Energy Neutrino Detected Beneath Mediterranean Sea Baffles Scientists
Scientists suggest an ultra-high-energy neutrino detected by KM3NeT detector may come from a primordial black hole explosion, hinting at new physics involving dark charge and the early universe.
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New Data From COSINE-100, ANAIS-112 Disputes DAMA Dark Matter Results
New results from COSINE-100 and ANAIS-112 show no signal matching the DAMA experiment claim, weakening evidence for dark matter detection and shifting focus toward new search strategies.
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CERN Experiments Confirm Early Universe Behaved Like a Near-Perfect Fluid
Physicists at CERN have directly observed fluid-like behaviour in the quark–gluon plasma that filled the early universe. Experiments at the Large Hadron Collider revealed wake-shaped ripples forming behind fast-moving quarks, similar to bow waves in liquids. These quark wakes confirm that the primordial “soup” of quarks and gluons behaved as ...
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Physicists Deploy Quantum Sensors to Hunt the Universe’s Missing Matter
Dark matter makes up most of the universe’s mass, yet it has never been directly detected. Scientists are now deploying ultracold quantum sensors, underground detectors and space telescopes to catch its faint signals. At Texas A&M, new silicon detectors aim to register extremely rare particle interactions, while global experiments push sensitivit...
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Quantum Haloscope Sharpens the Search for Dark Matter Axions at Higher Frequencies
Scientists using a quantum-powered haloscope have advanced the search for dark matter axions by probing higher mass ranges than before. The QUAX collaboration’s experiment, based in Italy, uses a microwave cavity and a strong magnetic field to detect faint axion signals. While no axions were found, the results help refine future dark matter searc...
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Fusion Reactors Could Generate Axions, Offering a New Path to Detect Dark Matter
Fusion energy may have an unexpected cosmic role beyond clean power. A new study suggests fusion reactors could produce axions, hypothetical dark matter particles, when high-energy neutrons from fusion reactions strike reactor walls. These interactions may generate axions that escape shielding undetected. Scientists propose future fusion plants cou...
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ISS Microgravity Experiment Reveal How Particles Behave Without Gravity
A microgravity experiment aboard the International Space Station is helping scientists understand how particles move and cluster without gravity. Conducted inside the station’s laboratory, the study could improve space safety, support future Moon and Mars missions, and deepen understanding of Earth-based processes such as pollution, pollen spread...
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Scientists Rule Out Elusive Sterile Neutrino After 10-Year Hunt, Shaking Particle Physics
After ten years of experiments, physicists found no evidence for the sterile neutrino, once thought to explain unusual neutrino behaviour. The MicroBooNE experiment at Fermilab analysed neutrinos from two beams and ruled out the particle with 95% certainty. The findings narrow the search for new physics and inform future experiments like DUNE.
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China’s Massive JUNO Experiment Delivers Its First World-Class Neutrino Results
China’s Jiangmen Underground Neutrino Observatory has delivered world-class results after only 59 days of data collection, achieving the most precise measurements yet of two major neutrino oscillation parameters. JUNO’s early performance surpasses all previous experiments, confirming a small but intriguing discrepancy between solar and reactor ...
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Ghostly Neutrinos May Hold the Answer to Why Matter Exists in Our Universe
In a breakthrough study, scientists merged data from Japan’s T2K and the U.S. NOvA neutrino experiments to explore why matter exists in the universe. The findings improve measurements of neutrino behavior and may help reveal whether these particles break symmetry with antimatter, offering vital clues to how the universe survived after the Big Ban...
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Mathematicians Revive Discarded Particles to Boost Quantum Computing
A new mathematical approach has revived previously ignored particles, now called neglectons, and shown how they can work with Ising anyons. By filling in the missing functions of these quasiparticles, neglectons could overcome key limits in topological quantum computing and help build more stable, universal quantum computers in the future.
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New Inelastic Dark Matter Model Could Bypass Current Limits of Particle Detection
A new study from Brazil proposes an inelastic dark matter model using a massive vector mediator, potentially explaining the correct abundance of dark matter while evading existing detection limits. This fresh approach could revive interest in previously ruled-out models and offers experimental pathways to test these elusive particles through the in...
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Scientists Recreate Cosmic Ray Physics Using Cold Atom in New Laboratory Study
Scientists have successfully recreated Fermi acceleration in a lab using ultracold atoms and movable optical barriers, simulating how cosmic rays gain energy in space. Developed by teams from Birmingham and Chicago, the mini Fermi accelerator marks a major advance in particle physics, opening doors to high-energy astrophysics studies and innovation...
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Scientists Transform Lead into Gold, But Only for a Fleeting Moment
In a landmark experiment at CERN's Large Hadron Collider, scientists briefly turned lead into gold by removing three protons through near-miss atomic collisions. The ALICE collaboration generated 89,000 gold atoms per second, though each existed only fleetingly. While economically insignificant, the breakthrough showcases the precision of particle ...
-
Most Powerful Neutrino Ever Detected May Have Come From a Blazar
A 220 PeV neutrino detected beneath the Mediterranean Sea may have originated from a distant blazar. Simulations suggest these powerful black hole systems can generate ultra-high-energy ghost particles.
-
Ultra-High-Energy Neutrino Detected Beneath Mediterranean Sea Baffles Scientists
Scientists suggest an ultra-high-energy neutrino detected by KM3NeT detector may come from a primordial black hole explosion, hinting at new physics involving dark charge and the early universe.
-
New Data From COSINE-100, ANAIS-112 Disputes DAMA Dark Matter Results
New results from COSINE-100 and ANAIS-112 show no signal matching the DAMA experiment claim, weakening evidence for dark matter detection and shifting focus toward new search strategies.
-
CERN Experiments Confirm Early Universe Behaved Like a Near-Perfect Fluid
Physicists at CERN have directly observed fluid-like behaviour in the quark–gluon plasma that filled the early universe. Experiments at the Large Hadron Collider revealed wake-shaped ripples forming behind fast-moving quarks, similar to bow waves in liquids. These quark wakes confirm that the primordial “soup” of quarks and gluons behaved as ...
-
Physicists Deploy Quantum Sensors to Hunt the Universe’s Missing Matter
Dark matter makes up most of the universe’s mass, yet it has never been directly detected. Scientists are now deploying ultracold quantum sensors, underground detectors and space telescopes to catch its faint signals. At Texas A&M, new silicon detectors aim to register extremely rare particle interactions, while global experiments push sensitivit...
-
Quantum Haloscope Sharpens the Search for Dark Matter Axions at Higher Frequencies
Scientists using a quantum-powered haloscope have advanced the search for dark matter axions by probing higher mass ranges than before. The QUAX collaboration’s experiment, based in Italy, uses a microwave cavity and a strong magnetic field to detect faint axion signals. While no axions were found, the results help refine future dark matter searc...
-
Fusion Reactors Could Generate Axions, Offering a New Path to Detect Dark Matter
Fusion energy may have an unexpected cosmic role beyond clean power. A new study suggests fusion reactors could produce axions, hypothetical dark matter particles, when high-energy neutrons from fusion reactions strike reactor walls. These interactions may generate axions that escape shielding undetected. Scientists propose future fusion plants cou...
-
ISS Microgravity Experiment Reveal How Particles Behave Without Gravity
A microgravity experiment aboard the International Space Station is helping scientists understand how particles move and cluster without gravity. Conducted inside the station’s laboratory, the study could improve space safety, support future Moon and Mars missions, and deepen understanding of Earth-based processes such as pollution, pollen spread...
-
Scientists Rule Out Elusive Sterile Neutrino After 10-Year Hunt, Shaking Particle Physics
After ten years of experiments, physicists found no evidence for the sterile neutrino, once thought to explain unusual neutrino behaviour. The MicroBooNE experiment at Fermilab analysed neutrinos from two beams and ruled out the particle with 95% certainty. The findings narrow the search for new physics and inform future experiments like DUNE.
-
China’s Massive JUNO Experiment Delivers Its First World-Class Neutrino Results
China’s Jiangmen Underground Neutrino Observatory has delivered world-class results after only 59 days of data collection, achieving the most precise measurements yet of two major neutrino oscillation parameters. JUNO’s early performance surpasses all previous experiments, confirming a small but intriguing discrepancy between solar and reactor ...
-
Ghostly Neutrinos May Hold the Answer to Why Matter Exists in Our Universe
In a breakthrough study, scientists merged data from Japan’s T2K and the U.S. NOvA neutrino experiments to explore why matter exists in the universe. The findings improve measurements of neutrino behavior and may help reveal whether these particles break symmetry with antimatter, offering vital clues to how the universe survived after the Big Ban...
-
Mathematicians Revive Discarded Particles to Boost Quantum Computing
A new mathematical approach has revived previously ignored particles, now called neglectons, and shown how they can work with Ising anyons. By filling in the missing functions of these quasiparticles, neglectons could overcome key limits in topological quantum computing and help build more stable, universal quantum computers in the future.
-
New Inelastic Dark Matter Model Could Bypass Current Limits of Particle Detection
A new study from Brazil proposes an inelastic dark matter model using a massive vector mediator, potentially explaining the correct abundance of dark matter while evading existing detection limits. This fresh approach could revive interest in previously ruled-out models and offers experimental pathways to test these elusive particles through the in...
-
Scientists Recreate Cosmic Ray Physics Using Cold Atom in New Laboratory Study
Scientists have successfully recreated Fermi acceleration in a lab using ultracold atoms and movable optical barriers, simulating how cosmic rays gain energy in space. Developed by teams from Birmingham and Chicago, the mini Fermi accelerator marks a major advance in particle physics, opening doors to high-energy astrophysics studies and innovation...
-
Scientists Transform Lead into Gold, But Only for a Fleeting Moment
In a landmark experiment at CERN's Large Hadron Collider, scientists briefly turned lead into gold by removing three protons through near-miss atomic collisions. The ALICE collaboration generated 89,000 gold atoms per second, though each existed only fleetingly. While economically insignificant, the breakthrough showcases the precision of particle ...
