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DUNE Integrates Artificial Intelligence into Neutrino Experiment to Enhance Particle Detection and Data Processing Capabilities

DUNE Integrates Artificial Intelligence into Neutrino Experiment to Enhance Particle Detection and Data Processing Capabilities

The team at the U.S. Fermi National Accelerator Laboratory is advancing the Deep Underground Neutrino Experiment (DUNE) by integrating artificial intelligence and machine learning tools into experiment design, detector operations, and data analysis workflows, aiming to improve neutrino interaction identification, event classification, and detector management capabilities. Located at the Long-Baseline Neutrino Facility, DUNE has begun installing structural components for its large neutrino detector modules. The experiment consists of a near detector and a far detector: the near detector is situated at Fermilab, while the far detector is located approximately one mile underground at the Sanford Underground Research Facility in South Dakota. Both detectors will employ liquid argon time projection chamber technology to record neutrino...

2026-08-07

First Observation of Anti-Kaonic Nuclei in Photon Beam Experiments

First Observation of Anti-Kaonic Nuclei in Photon Beam Experiments

The LEPS2/Solenoid collaboration, composed of researchers from the Research Center for Nuclear Physics at Osaka University, Kyoto Sangyo University, the Research Center for Advanced Quantum Beam Science at Tohoku University, Korea University, Gifu University, the Institute of Modern Physics of the Chinese Academy of Sciences, RIKEN, Kyoto University, the Institute of Physics at Academia Sinica in Taiwan, and the University of Saskatchewan in Canada, has for the first time observed nuclei containing anti-kaons in a photon beam experiment. This achievement provides new experimental evidence confirming the existence of anti-kaonic nuclei and offers important clues for understanding high-density nuclear matter and the internal structure of neutron stars. The research team conducted the experiment at the LEPS2 laser-electron photon facility at the large synchrotron radiation facility SPring-8 in Hyogo Prefecture, Japan...

2026-08-07

UK's MAST Upgrade sets plasma pressure record in fifth experimental campaign

UK's MAST Upgrade sets plasma pressure record in fifth experimental campaign

The UK Atomic Energy Authority (UKAEA) has completed the fifth experimental campaign of its flagship fusion experiment, MAST Upgrade. The campaign, conducted between 2025 and 2026 at the Culham Campus in Oxfordshire, UK, produced over 1,100 plasma pulses and achieved the device's highest-ever plasma pressure while overcoming plasma instability issues. In fusion devices, hydrogen isotopes must be heated, compressed, and confined under extremely high temperatures and pressures. The higher the plasma density and temperature, the stronger the fusion reaction, and high-pressure plasmas are also closer to the operating conditions required for future commercial fusion power plants. UKAEA stated that this...

2026-08-07

BESIII Experiment First Confirms the Existence of Glueballs

BESIII Experiment First Confirms the Existence of Glueballs

On August 6, Beijing time, the international collaboration of the Beijing Spectrometer III experiment (BESIII) at the Beijing Electron-Positron Collider announced at the International Conference on High Energy Physics (ICHEP 2026) held in Brazil, in the form of a special plenary report: after 15 years of sustained research, the BESIII experiment has established a complete chain of evidence proving the existence of glueballs, unraveling the mystery that has puzzled the academic community for nearly half a century. This discovery not only provides a decisive validation of the theory of quantum chromodynamics, but also demonstrates the existence of a completely new form of matter—matter composed purely of force. Atomic nuclei are composed of protons and neutrons, which in turn are composed of quarks. Gluons mediate the strong interaction between quarks...

2026-08-06

Shimane Nuclear Power Station Unit 2 scheduled inspection completion date moved up to September 16

Shimane Nuclear Power Station Unit 2 scheduled inspection completion date moved up to September 16

Chugoku Electric Power Co., Inc. announced on August 5 that the schedule for the 18th periodic utility inspection of Shimane Nuclear Power Station Unit 2 has been revised, with the inspection completion date moved up from September 17, 2026 to September 16, and the power generation resumption date moved up from August 19 to August 18. Shimane Nuclear Power Station Unit 2 is a boiling water reactor unit with a rated electrical output of 820 MW. The unit was shut down on February 9, 2026 and entered its 18th periodic utility inspection. The reason for this adjustment is that, during the reactor start-up preparation work, the procurement of the nitrogen gas source used to fill the reactor containment vessel was completed earlier than planned, allowing the related work to be advanced accordingly...

2026-08-05

Hongyanhe Nuclear Power's Cold Source Management Experience Featured on WANO Official Website

Hongyanhe Nuclear Power's Cold Source Management Experience Featured on WANO Official Website

Recently, the World Association of Nuclear Operators (WANO) published a feature report on its official website titled "Operational Excellence in Action: Hongyanhe transforms its Cold Source Resilience," introducing Hongyanhe Company's practical progress in ensuring cold source water intake to nuclear power peers worldwide. Cold source safety is a critical component of the nuclear defense-in-depth system. Coastal nuclear power plants generally pay close attention to the impact of seasonal marine organism accumulation on plant water intake safety, a natural environmental challenge commonly faced by coastal nuclear power plants globally. As the first nuclear power plant in Northeast China...

2026-08-05

Japanese research team experimentally demonstrates that fusion plasma fluctuations can drive inward particle transport

Japanese research team experimentally demonstrates that fusion plasma fluctuations can drive inward particle transport

August 3, 2026, a research team from The University of Tokyo and the National Institute for Fusion Science (NIFS) under the National Institutes of Natural Sciences announced that researchers have directly observed in experiments that low-frequency electric field fluctuations in high-temperature plasma confined by a dipole magnetic field can transport particles to the central region of the plasma. Plasma produced by the levitated dipole experiment device RT-1 (Ring Trap 1) Overall view of the RT-1 device (Kashiwa Campus, The University of Tokyo) The study was conducted using the levitated dipole experiment device Ring Trap 1 (RT-1) at The University of Tokyo. RT-...

2026-08-03

First Experimental Result Published from the High-Intensity Heavy-Ion Accelerator Facility

First Experimental Result Published from the High-Intensity Heavy-Ion Accelerator Facility

Recently, the research team from the Institute of Modern Physics (IMP) of the Chinese Academy of Sciences, together with collaborators, successfully produced and identified the rare isotope hafnium-153 using the High-Intensity Heavy-Ion Accelerator Facility (HIAF). This is the first physics result obtained during the commissioning of HIAF, demonstrating that China's new-generation high-intensity heavy-ion research facility is capable of exploring unknown nuclides and expanding the nuclear chart. It marks the official commencement of HIAF's scientific discovery journey. The result was published as a short communication in *Science Bulletin*. Figure: Position of hafnium-153 on the nuclear chart; the blue line indicates the boundary of known nuclides. Image | Hu Houyu, Li Hongfu. Atomic nuclei are composed of protons and neutrons, and different combinations of proton and neutron numbers form the diverse world of nuclides. Exploring unknown nuclides and investigating the boundaries of nuclear existence are important frontiers in nuclear physics. Hafnium-153 is located in the neutron-deficient heavy-mass region and is an important subject for studying the evolution of nuclear structure and the limits of nuclear stability. It had not been reported prior to this experiment. The discovery and precise measurement of this nuclide will help test nuclear theory models and deepen our understanding of nuclear structure regularities.

2026-08-03

Japanese research team experimentally confirms full-gap spin-triplet superconductivity in UBe13

Japanese research team experimentally confirms full-gap spin-triplet superconductivity in UBe13

On July 30, 2026, Kobe University and the Japan Atomic Energy Agency announced that a research team led by Professor Hideki Higashibata of the Graduate School of Science at Kobe University, along with Shoko Minami, who was a master's student at the time of the research, in collaboration with Yoshinori Haga, Research Director at the Japan Atomic Energy Agency, and researchers from Osaka University, experimentally confirmed for the first time the existence of a spin-triplet superconducting state with full-gap characteristics in the intermetallic compound UBe13. The findings were published in the Journal of the Physical Society of Japan on June 26 and were selected as an Editor's Choice paper. Since its discovery in 1983, UBe13 has been regarded as an important candidate material for spin-triplet superconductivity. Unlike conventional spin-singlet superconductivity...

2026-08-03

After 25 Years, the Muon Wobble Puzzle Sees Key New Progress in Physics

After 25 Years, the Muon Wobble Puzzle Sees Key New Progress in Physics

For 25 years, precise measurements of how muons wobble in a magnetic field have been a major puzzle in particle physics. Early experiments showed a discrepancy between the measured value of the muon's g-factor and theoretical predictions, a difference once seen as a possible hint of unknown particles. Recent new theoretical calculations and experimental analyses have brought a new twist to this puzzle. The muon is a heavier cousin of the electron that precesses like a tiny magnet in a magnetic field. Its extra wobble is quantified by the muon g-2 coefficient. According to quantum theory, known particles and interactions influence this coefficient through fleeting quantum fluctuations, making muon g-2 a key test of the Standard Model...

2026-08-03

Swiss PSI Ultracold Neutron Experiment Finds No Signs of "Mirror World" Oscillation

Swiss PSI Ultracold Neutron Experiment Finds No Signs of "Mirror World" Oscillation

The Paul Scherrer Institute (PSI) in Switzerland announced on July 28 that its researchers detected approximately 25 billion neutrons in an ultracold neutron experiment and found no signs of neutrons spontaneously transforming into mirror neutrons. The results constrain, with high certainty, the theoretical possibility of neutrons disappearing into the so-called mirror world. The mirror world hypothesis posits that every elementary particle in the real world may have a corresponding mirror particle, such as mirror electrons, mirror protons, and mirror neutrons. Such particles interact extremely weakly with ordinary matter, potentially connecting primarily through gravity or rare oscillations of neutral particles, and have therefore also been considered as dark matter candidates...

2026-08-03

German Science and Humanities Council Supports German Participation in the LEGEND-1000 Neutrinoless Double Beta Decay Experiment

German Science and Humanities Council Supports German Participation in the LEGEND-1000 Neutrinoless Double Beta Decay Experiment

On July 27, 2026, the German Science and Humanities Council expressed its support for German participation in the LEGEND-1000 experiment. The project had previously passed scientific evaluation and was deemed significant for a broad research community in the fields of particle physics and nuclear physics. LEGEND-1000 is the next phase of the large-scale enriched germanium neutrinoless double β decay experiment, planned to be constructed by an international collaborative team at the underground laboratory of the Gran Sasso National Laboratory in Italy. German participating institutions include the Max Planck Institute for Nuclear Physics in Heidelberg and the Technical University of Munich, with project leaders being Professor Susanne Mertens and Professor Stefan Schönert, respectively. According to the project...

2026-08-03

DUNE Prototype Detector Undergoes 300 kV Pressure Test at CERN

DUNE Prototype Detector Undergoes 300 kV Pressure Test at CERN

The Deep Underground Neutrino Experiment (DUNE), an international collaborative project led by the Fermi National Accelerator Laboratory under the U.S. Department of Energy, is conducting pressure tests on the prototype detector ProtoDUNE at CERN's Neutrino Platform to verify the long-term stability of the relevant detection technology under extreme operating conditions. DUNE is designed as a large-scale neutrino research experiment aimed at studying the properties of neutrinos and their role in the evolution of the universe. The experiment will install large liquid argon time projection chamber detectors approximately one mile underground at the Sanford Underground Research Facility in South Dakota, USA. Once the detectors are filled with liquid argon and sealed, internal components will be difficult to access for extended periods...

2026-08-03

QST completes first gyrotron 170 GHz microwave output test at ITER site

QST completes first gyrotron 170 GHz microwave output test at ITER site

The National Institutes for Quantum Science and Technology (QST) of Japan announced on July 31 that it has completed the integration and operational testing of the first gyrotron system at the International Thermonuclear Experimental Reactor (ITER) site in southern France, successfully producing 170 GHz microwave output. This system is used for ITER plasma generation and heating, and is one of the key devices for ITER's plan to commence operations in 2034. The core equipment of this test is the gyrotron, a high-power microwave source. Gyrotron operation requires the coordinated work of peripheral equipment such as power supplies, superconducting coils, and cooling systems. QST previously completed performance testing of eight ITER gyrotron systems at the gyrotron test facility of the Naka Fusion Institute in Japan, and transported components including gyrotrons, superconducting coils, and quasi-optical matching units to the ITER site. Over the past three years, QST has advanced system installation, commissioning, and operational preparation at the site.

2026-07-31

Kazakhstan's National Nuclear Center Experimental Base Supports Nuclear Power Safety and Advanced Energy Research

Kazakhstan's National Nuclear Center Experimental Base Supports Nuclear Power Safety and Advanced Energy Research

On July 30, Vyacheslav Gnyrya, Deputy Director of the Institute of Atomic Energy at the National Nuclear Center of the Republic of Kazakhstan (NNC RK), presented the development of the center's experimental research base. He stated that Kazakhstan is leveraging existing research facilities to establish a scientific foundation for next-generation reactor technologies and controlled thermonuclear fusion energy research. According to the presentation, the NNC RK experimental base is a strategic scientific research infrastructure developed over decades in Kazakhstan, featuring research reactors, specialized test facilities, and materials science equipment capable of simulating conditions difficult to replicate in operating nuclear reactors, including the behavior of nuclear fuel, structural materials, and safety system components under high temperatures, intense irradiation, and transient conditions.

2026-07-31