Researchers at Heidelberg University developed a new theoretical framework that connects two fundamental domains of modern quantum physics, describing the emergence of quasiparticles in systems with both mobile and static impurities. The new theory explains how quasiparticles form even in systems with extremely heavy impurities.
Jessica Eskew, a PhD student in Auburn Physics, has been awarded a highly competitive SCGSR Fellowship to conduct fusion energy research at DIII-D. Her research focuses on runaway electrons, which can damage fusion devices if uncontrolled. Eskew will collaborate with experts in energetic particle physics and plasma control.
Researchers found high levels of polycyclic aromatic hydrocarbons in recycled tire rubber granulate, linked to cancer and environmental harm. Fine particle sizes released more toxins into water and soil, increasing ecosystem risk.
Scientists have found a way to describe topological states in materials where the particle picture breaks down. The discovery sheds light on a new type of behavior, exhibiting spontaneous Hall effect and quantum-critical fluctuations. This finding opens up possibilities for storing quantum information and developing novel sensors.
Researchers at the University of Cincinnati have solved a long-standing problem in particle physics, using fusion reactors to produce subatomic particles called axions. This breakthrough has implications for understanding dark matter, which is thought to make up most of the universe's mass.
Researchers developed a transfer learning-enabled framework to predict mechanical properties of particle-reinforced aluminum matrix composites. The model achieves high predictive accuracy, addressing the challenges of limited data availability in traditional machine learning algorithms.
Researchers created particle-like vortex knots in chiral nematic liquid crystals and discovered they can be reversibly switched between different knotted forms using electric pulses. The study provides a physical testbed for mathematical ideas, opening possible new routes toward knot-based electro-optic and photonic technologies.
Researchers at TUM have discovered that deuterons and antideuterons are formed through the decay of highly energetic particle states, releasing protons and neutrons necessary for their formation. This finding improves models of particle formation and could provide clues about dark matter.
The MicroBooNE collaboration has ruled out the possibility of a light sterile neutrino, a hypothetical particle that had long been speculated as a solution to open questions in particle physics. This result narrows the field of possibilities for explaining one of today's biggest puzzles in neutrino physics.
A team of scientists from Rutgers University has debunked a decades-old theory about a mysterious particle using data from the MicroBooNE experiment. The study found no sign of sterile neutrinos, which were proposed to explain strange neutrino behavior, closing the door on one popular explanation.
Researchers at the University of York have discovered a way to harness radiation from particle accelerator beam dumps to produce medical isotopes used in cancer diagnosis and treatment. Copper-67 is a rare isotope with limited global supplies, but this method could generate it without affecting main physics experiments.
Researchers Sang-Ho Kim, An-Ping Li, Bronson Messer and Zac Ward recognized for their distinguished achievements in physics. They were cited by the APS Division of Physics of Beams, Topical Group on Instrument and Measurement Science, Forum on Outreach and Engaging the Public, and Forum on Physics and Society.
The American Institute of Physics has awarded PhET Interactive Simulations a $25,000 grant to develop a professional learning course and community for high school physics teachers. The award aims to improve physics education in the US by raising interest and boosting quality.
Three UCSB physicists, Sebastian Streichan, David Patterson, and Andrea Young, are among the selected researchers receiving funding to investigate the physics of tissue morphogenesis, chiral molecules, and quantum materials. This award aims to unlock new insights into fundamental research in experimental physics.
Japanese physicists have shown that knots can arise in a realistic particle physics framework, potentially explaining the origin of the universe's matter surplus. By combining two long-studied extensions of the Standard Model, the team found a stable knot configuration that could have formed and dominated in the early universe.
Ben Jones, UTA physics professor, receives $1.3 million grant to search for rare processes involving neutrinos. The grant supports his project on neutrinoless double electron capture in argon or krypton gases.
A joint team from The University of Osaka revealed that soft particles exhibit unique focusing patterns compared to rigid particles, influencing their focusing behavior. The study provides fundamental insights into the underlying physics, offering a new theoretical model explaining particle behavior under various flow regimes.
Gravitinos, charged particles with spin 3/2, are suggested as a new alternative to existing Dark Matter candidates like axions and WIMPs. The JUNO detector, currently under construction, is well-suited for detecting gravitinos due to its large volume.
Scientists have successfully demonstrated quantum squeezing of a nanoscale particle, achieving motion uncertainty smaller than quantum mechanical fluctuations. This achievement paves the way for basic research and applications like autonomous driving without GPS.
A new study uses advanced computer simulations to shed light on the fundamental properties of dark matter. The research reveals how gas clouds in the early Universe could reveal information about dark matter's mass, which is crucial for particle physicists to develop theoretical models.
Smitha Vishveshwara, a UIUC physics professor and author, has been honored for her work blending science teaching, theater, and art. Her award recognizes her innovative approach to communicating complex physics concepts through storytelling and artistic expression.
Dr. Vasily Sotnikov has been awarded an ERC Starting Grant to develop new computational methods for particle scattering calculations at the LHC, enabling precise predictions for Higgs boson interactions and testing electroweak symmetry breaking.
Researchers successfully treat mouse tumor with radioactive carbon ion beam, achieving complete control without major neurological side effects. The BARB project advances image-guided particle therapy using exotic beams, showing feasibility and effectiveness.
Physicists from the University of Copenhagen have discovered a step-like signature that resembles the signature of an elusive axion particle using galaxy clusters. This method has greatly increased what we know about axions, allowing researchers to narrow down the space where it can be found.
Andreas Papaefstathiou's research will help elevate the study of particle physics in nuclear collisions at Kennesaw State University. The grant will also contribute to the development of a new particle collider in the US, strengthening partnerships between universities.
Researchers at ETH Zurich and TU Wien have successfully isolated rotational vibrations in nanoparticles, allowing for the extraction of energy in a quantum ground state even at room temperature. This breakthrough enables the study of quantum physics in objects that are significantly larger than atoms and molecules.
A team of researchers from Chung-Ang University has developed an innovative air filter that mimics the way mucus-coated nasal hairs trap particles, achieving remarkable filtration efficiency. The particle-removing oil-coated (PRO) filter is a significant leap forward in air purification, offering improved performance and sustainability.
Researchers at Stevens Institute of Technology have developed a groundbreaking formula that describes the relationship between a quantum object's wave-ness and particle-ness. This breakthrough enables more precise imaging techniques, such as quantum imaging with undetected photons, which can accurately map the shape of an object even i...
Researchers successfully demonstrate Fermi acceleration mechanism with ultracold atoms, unlocking new understanding of cosmic rays behavior. The technology has the potential for high-precision control over particle acceleration and opens new possibilities for investigating phenomena relevant to high-energy astrophysics.
A new study explores using a pretrained jet foundation model to reconstruct hadronically decaying tau leptons, achieving better performance than models trained from scratch. The approach could make particle physics analyses more efficient and scalable, especially in situations with limited high-quality simulated data.
Researchers from Penn University propose a five-member particle package, known as the 5-plet, that string theory cannot accommodate. This particle family is absent in any known string-based calculation, raising concerns about the framework's validity.
Researchers at ETH Zurich and international teams use precision atomic spectroscopy to detect a hypothetical force in atoms. The team measured energy shifts in isotopes with high accuracy, setting bounds on the mass and charge of the new particle.
Research found that macrophages use two independent pathways to regulate inflammatory and lysosomal responses to toxic particles. The study identified key transcription factors and signaling pathways involved, offering potential therapeutic opportunities to quell inflammation.
Researchers at Johannes Gutenberg University Mainz receive EUR 180,000 to study ultracold neutrons and detect a 'forbidden' muon decay, key experiments in modern particle physics, with implications for the Standard Model and potential new physics discoveries.
Researchers successfully simulated fundamental interactions using Google's quantum processor, demonstrating the potential of quantum computing in particle physics and quantum materials. The study provides new insights into gauge theories and the behavior of particles, with implications for understanding space and time.
A new Johns Hopkins study suggests that supermassive black holes could generate high-energy particles similar to those produced by human-made particle colliders. The research proposes using observatories tracking cosmic events to detect these particles, offering a potential cheaper alternative to expensive facilities.
Researchers aim to harness muon beams for higher collision energy, enabling breakthroughs in particle physics. The goal is to understand dark matter and the Higgs boson's role in the universe's birth and potential collapse.
Researchers extend Wheeler's delayed-choice experiment by introducing a second beam splitter with insertable or removable sections, demonstrating diverse wave-particle duality behaviors. The novel interferometer structure provides new insights into quantum measurement and the nature of reality.
The University of Texas at Arlington's ATLAS Experiment team has made significant contributions to the discovery of the Higgs boson particle. The team's work on the Large Hadron Collider at CERN led to a Noble Prize in 2013 and has earned them a $1 million Breakthrough Prize in Fundamental Physics.
Researchers create framework to describe fundamental physics principles in both realms, providing key component for reconciling theories. The holographic principle is a crucial model to predict effects of quantum gravity, enabling theoretical physicists to make accurate predictions.
Researchers at Aalto University have created a new quantum theory of gravity compatible with the Standard Model of particle physics, opening doors to understanding the universe's beginnings. The findings have potential to unlock critical understanding of singularities in black holes and the Big Bang.
Researchers developed quantum sensors capable of precisely detecting single particles, improving time and spatial resolution. The sensors demonstrated efficiency in detecting high-energy beams of protons, electrons, and pions.
Physicists have shown that particles produced in 'jets' retain information about their origins in subatomic particle smashups. The study establishes a direct connection between the 'entanglement entropy' at the earliest stage of jet formation and the particles that emerge as a jet evolves.
The ATLAS Collaboration has made significant contributions to particle physics, including detailed measurements of Higgs boson properties and studies of rare processes. Mainz researchers have played a key role in the construction and operation of the detector, making numerous leading contributions to the collaboration.
Researchers at Technion-Israel Institute of Technology have discovered a new type of quantum entanglement that exists in nanoscale systems. This discovery could lead to the development of new tools for designing photon-based quantum communication and computing components, as well as their significant miniaturization.
Beate Heinemann will succeed Helmut Dosch as Chairperson of DESY's Board of Directors in April 2025. She brings significant experience in particle physics and international collaborations, aiming to further expand the centre's scientific performance.
Jefferson Lab Director Kimberly Sawyer has been named to CoVaBIZ Magazine's 150 Most Influential People List, reflecting the laboratory's positive economic and research impacts on the region. The lab is advancing its research mission, including nuclear physics, data science, and particle accelerators.
Researchers found intrinsic spectral features with robustness and temperature dependence in Molybdenum Ditelluride, challenging existing theories. The discovery opens up new avenues for understanding four-body quasi-particle behavior in materials.
Shatashvili is being recognized for his contributions to mathematical physics, particularly in the study of symmetry in quantum field theory. His work has been instrumental in connecting mathematics and physics, with notable achievements including the co-discovery of Bethe/gauge correspondence.
Researchers at ETH Zurich have developed a fully additive-manufactured plastic scintillator detector for elementary particles, showcasing a significant step towards time- and cost-effective ways to build large-scale particle detectors. The detector's three-dimensional particle tracks enable more accurate neutrino tracking and analysis.
A new study found that even when women receive similar amounts of recognition from peers as men for excelling in physics classes, they perceive significantly less peer recognition. The researchers discovered that men report higher perceptions of peer recognition than women in both lab and lecture courses.
A new method controls nickel particle size in catalysts, improving their performance in hydrogenation reactions. The study found that intermediate-sized particles maximize productivity for the hydrogenation of vanillin into 2-methoxy-4-methylphenol.
Targeted alpha therapy shows promise in treating resistant NETs, offering a precision tool for patients exhausted by conventional treatments. Early preclinical trials have delayed tumour growth with minimal toxicity, while clinical studies have reported high disease control rates.
The University of Illinois researchers have developed organic-material-based nanozymes that can detect histamine in food products with an affordable analytic performance profile. An integrated point-of-use platform allows for rapid detection of agricultural and biological molecules without laboratory equipment.
Researchers develop a theoretical framework that reveals a conservation relationship among wave behaviour, particle behaviour, and entanglement. The team finds that the sum of these three elements remains constant, regardless of the choice of bipartite pure state, with experimental validation for various dimensions
Ben Jones, a UTA physicist, has been recognized for his contributions to developing advanced instruments used in particle physics research. His work focuses on uncovering the origin of neutrino mass and sheds light on fundamental physics at extremely small scales.
Researchers are using machine learning to enable autonomous control of particle accelerators, opening up new possibilities for commissioning and operating high-power accelerators. The technology has been successfully applied to the CAFe2 superconducting segment, achieving global trajectory adaptive control.
Scientists use European X-ray Free Electron Laser to detect axions, which could provide evidence for new physics beyond Standard Model. The experiment sets stage for future searches in milli- to kilo-electron volt mass range.
Researchers observed electrons dancing in unison around a particle less than a nanometer in diameter, achieving unprecedented precision. This breakthrough enables the study of plasmonic resonance at sub-nanometer scales, potentially leading to novel applications and enhanced efficiency in existing technologies.
Researchers used Quantum Approximate Optimization Algorithm (QAOA) to cluster jets in high-energy particle collisions, achieving performance comparable to classical algorithms. The study demonstrates the potential of quantum computing in improving jet clustering for practical applications.