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Annual maintenance of Finland's Loviisa nuclear power plant begins today, running from August 2 to October 18
The annual maintenance of Finland's Loviisa nuclear power plant began on August 2. Energy company Fortum stated that this annual maintenance will be carried out from August 2 to October 18. During the maintenance period, several modernization projects related to extending the plant's service life will also be initiated. The maintenance will first be carried out on Unit 2, followed by Unit 1. Fortum stated that while one unit is under maintenance, the other unit will continue normal power generation. The maintenance of Unit 2 is a major annual inspection conducted every eight years, which includes removing fuel from the reactor for inspection and pressure testing of the reactor vessel, as well as replacing...
2026-08-03
Serbia Launches Nuclear Program: Experts to Train in France for 17 Months, First Nuclear Power Plant Expected by 2040
2026-08-03
Behind India's Nuclear Power Expansion: Where Does Radioactive Waste Go? Government Details Management Process in Parliament for First Time
2026-08-03
India's First Draft Rules for SHANTI Nuclear Energy Act Prepared, in Consultation with Ministries and Industry
2026-08-03
Rosatom Expects Revenue of $43.2 Billion in 2026
2026-08-03
Dutch ULC-Energy and US McDermott sign cooperation agreement to advance Rolls-Royce SMR deployment in the Netherlands
2026-08-03
Argentine President Javier Milei Appoints Former Bariloche Mayor Gennuso as Vice President of the Atomic Energy Commission
2026-08-03
Spain's two major nuclear power holders, Iberdrola and Endesa, paid approximately €360 million in taxes and fees for nuclear power in the first half of the year
2026-08-03
Progress and Cost Performance Management of the ITER Project Enhancement
2026-08-03
Recently, the research team at the Institute of Modern Physics, Chinese Academy of Sciences, has made new progress in quantum computing studies of first-principles nuclear structure for multi-fermion systems. The team developed a universal quantum-classical hybrid computing framework capable of calculating Green's functions and spectral functions of nuclear many-body systems. The relevant results were published as a Letter in Physical Review C. First-principles Hamiltonian many-body calculations are a core approach for revealing the laws of strongly correlated quantum systems, widely applied in fields such as quantum chemistry and nuclear physics. However, the Hilbert space of such problems grows exponentially with particle number, posing insurmountable computational resource challenges on classical computers...
2026-08-03
Water-based nanofluidic ionic devices offer unique advantages in frontier fields such as brain-computer interfaces and biocompatible computing. Recently, the research team from the State Key Laboratory of Heavy Ion Science and Technology at the Institute of Modern Physics, Chinese Academy of Sciences, in collaboration with Lanzhou University, Hebei University of Geosciences, and other partners, successfully achieved stable ionic memristive effects in single-ion-track nanochannels. Through precise regulation, they realized programmable transitions in memristive and synaptic functions, providing a new technological pathway for the development of next-generation low-power neuromorphic computing hardware. The related results were published in the journal *Small* on July 22. Leveraging the Heavy Ion Research Facility in Lanzhou (HIRFL), the researchers...
2026-08-03
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
Within the Southeast Atomic Energy Medical Institute (Southeast Atomic Energy Medical Institute) in Gijang-gun, Busan, the proton therapy center and heavy ion therapy center projects are being advanced simultaneously, expected to form an integrated cancer treatment hub, alleviate medical concentration in the capital region, and attract patients from other regions and overseas. Busan's first proton accelerator project can also be used for industrial purposes, benefiting regional high-tech industries and investment attraction. According to Busan City and the Busan Institute of Science and Technology Advancement (BISTEP) on August 2, the Southeast Proton Therapy Center construction project will officially break ground in the second half of this year; BISTEP recently completed a commissioned study on the establishment strategy and implementation plan for the Southeast Proton Therapy Center (executed by the Southeast Atomic Energy Medical Institute) (Southeast...
2026-08-03
On July 25, 2026, the fourth "1+1" Youth Forum on Nuclear and Particle Physics (hereinafter referred to as the "1+1 Forum") was successfully held at the Institute of High Energy Physics of the Chinese Academy of Sciences (hereinafter referred to as IHEP). Themed "Frontier Technologies Empowering Nuclear Medicine Diagnosis and Treatment," the forum was organized by the Youth Working Committee of the Beijing Nuclear Society and the IHEP Group of the Youth Innovation Promotion Association of the Chinese Academy of Sciences, co-organized by the Institute of High Energy Physics of the Chinese Academy of Sciences and the School of Nuclear Science and Technology of the University of Chinese Academy of Sciences, and hosted by the R&D Center for Nuclear Technology (Nuclear Detection and Nuclear Imaging) of the China Atomic Energy Authority and the Beijing Engineering Research Center for Radiation Imaging Technology and Equipment. The 1+1 Forum has always adhered to the principle of organically combining demand with technology, academia with science popularization...
2026-08-03
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
On July 30, 2026, the Japan Atomic Energy Agency announced the development of a palm-sized, 3D-printed disposable device named µSPLIT (micro splitter) that can separate airborne particles by particle size on-site and collect them onto filters for subsequent or direct measurement. The disposable classification and measurement device µSPLIT (left) separates aerosols by particle size through controlled intake flow rate, with particles collected on filters. (Right) The main unit can be directly connected to a radiation detector via a thin film. According to reports, µSPLIT measures approximately 12 cm × 3 cm × 3 cm and is integrally molded from transparent resin using stereolithography 3D printing technology...
2026-08-03
