A novel machine learning-driven approach uses deep-learning operator-surrogate models to monitor critical degradation indicators in nuclear power facilities. This technique provides real-time predictions and addresses limitations of physical sensors or classical modeling predictions.
The partnership will focus on advanced simulations, high-energy particle generation, and artificial intelligence to optimize data management in laser facilities. This collaboration aims to promote innovative technologies for nuclear fusion energy production through high-power lasers, advancing scientific knowledge in the energy sector.
Two new studies published in The Journal of Nuclear Medicine explore innovative approaches to treating melanoma with radiation therapy and enhancing brain PET imaging. A third study validates an AI network for brain tumor imaging, demonstrating promising results.
The thorium-229 nuclear optical clock has the potential to achieve a very high-precision time and frequency standard due to its unique properties. Despite significant progress, numerous challenges remain, including temperature sensitivity and the scarcity of the isotope.
New research published in The Journal of Nuclear Medicine explores ways to improve the diagnosis and treatment of metastatic breast cancer using Ga-NeoB PET/CT. Additionally, studies examine the potential of paraaminohippurate to reduce kidney toxicity during radiopharmaceutical therapy.
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.
The grant aims to develop an electrochemical system capable of recovering uranium from wastewater, improving ecosystem health and addressing uranium security. The project will focus on designing electrode materials for efficient uranium extraction and minimizing toxic waste.
A team at University of Queensland has made a breakthrough in muonic atom research, showing that nuclear polarisation does not limit studies of muonic atoms. The finding provides a clear path for using muonic atoms to better understand the magnetic structure of the nucleus.
Researchers have developed a mercury-free method to isolate lithium-6, essential for producing nuclear fusion fuel. The new method uses zeta-vanadium oxide and achieves enrichment rates comparable to the banned COLEX process, paving the way for unlocking nuclear fusion as a sustainable energy source.
Researchers at JILA have characterized a unique nuclear transition in thorium-229 atoms, which is less sensitive to temperature fluctuations. The study reveals that the transition shifts by only 62 kilohertz across a wide temperature range, making it promising for clock applications.
The University of Tennessee has unveiled a new Operator Training Simulator Laboratory in partnership with Kairos Power. The lab will provide hands-on training for reactor operators and serve as a hub for UT students entering the advanced nuclear industry. It features state-of-the-art human-machine interfaces and simulates KP-FHR dynamics.
Researchers developed a new technique to predict nuclear properties, revealing how nucleus structure relates to its holding force. The study advances quantum physics and has implications for energy production and national security.
The last production unit of the B61-12 nuclear gravity bomb was completed in December, marking a significant milestone for the US nuclear deterrence program. The B61-12 program will continue to produce spare components until fiscal year 2026.
Scientists studying neutron 'starquakes' hope to gain new insights into the properties of neutron stars, improving our understanding of the universe. This research has potential implications for fields like health, security, and energy.
The discovery of a strong, local increase in two-neutron separation energies when the number of neutrons increases from 92 to 93 provides unique insights into the nuclear structure of neutron-rich lanthanum isotopes. This finding calls for further studies and challenges current nuclear mass models.
Researchers have created a new type of optically connected qubits, a critical advance in developing quantum networks. By storing information in a collective state of nuclear spins, they achieved high fidelity and coherence times, paving the way for practical applications.
Researchers at Peking University demonstrate potential of nuclear electric resonance to control nitrogen atom spins in DNA, encoding genetic information. The study reveals intricate relationships between electric field gradients, nitrogen orientations and DNA base structures.
The UCF-led PARTNERS consortium aims to train a new generation of nuclear engineers and scientists, providing a talent pipeline for the NNSA. The $5 million grant will support students from underrepresented communities, providing research opportunities and internships at national labs.
The University of Tennessee at Knoxville has been awarded a $20 million grant from the US Department of Energy to develop high-performance materials for fusion energy systems. The project, IMPACT, aims to revolutionize material design and manufacturing, addressing a key challenge in making fusion energy commercially viable.
A new EU-funded project aims to develop innovative methods for recycling lanthanides, a rare earth group used in various industries, from nuclear waste. The MaLaR project will explore the use of graphene oxides as specific element scavengers to extract individual elements from synthetic mixtures.
The accumulation of nuclear lipid droplets (nLDs) is linked to metabolic conditions such as fatty liver disease, obesity-related disorders, and premature aging. Lifestyle interventions like caloric restriction can reduce nLD buildup, suggesting a potential therapeutic target for slowing cellular aging.
Researchers at Washington State University developed a new technique to identify harmful salts forming in nuclear waste melters, which could help improve clean-up technology at the Hanford Site. The method uses optical and electrical components to detect changes in thermal emissions, allowing for real-time monitoring of salt formation.
Robert McKeown, a distinguished service award recipient, has made significant contributions to nuclear physics over the past 50 years. He supervised 14 Ph.D. students and educated thousands of people worldwide through teaching and lecturing at prestigious institutions.
Researchers at JILA have created a new method to produce thin films of thorium tetrafluoride, making nuclear clocks thousand times less radioactive and cost-effective. The successful use of this technology marks a potential turning point in the development of nuclear clocks.
Argonne will support two projects in Ukraine under the DOS NEXT initiative, focusing on clean hydrogen power and rebuilding the steel industry. The project aims to provide energy security and resiliency benefits for clean steel production in post-war Ukraine.
Researchers from the University of Liverpool and international collaboration measure nuclear radius of nobleium and fermium isotopes using laser spectroscopy. The study reveals smooth trends in charge radii and reduced influence of shell effects at superheavy element levels.
A recent study by Norwegian University of Science and Technology found that nuclear energy can lead to a more affordable energy system overall. It can reduce the need for costly power grid expansions and energy storage, while lowering environmental impacts and air pollution.
Using laser spectroscopy techniques, researchers traced the evolution of fermium nuclei's nuclear charge radius as neutrons were added. The results indicate a reduced influence of localized nuclear shell effects on the nucleus's size.
Researchers have developed a new method to image nuclear shapes using high-energy particle smashups at RHIC, revealing subtle details about atomic nuclei. This technique complements lower energy methods and has implications for fields like nuclear fission, neutron stars, and exotic particle decay.
New research from the University of Michigan shows that small modular nuclear reactors (SMRs) are economically viable and can be deployed by 2050. SMRs have the potential to reduce US carbon dioxide emissions by up to 59 million metric tons annually, making them a low-cost option for meeting energy demands and emission goals.
Three Ph.D. students and a postdoctoral researcher from Texas A&M are working on RTE projects to create new materials for future nuclear reactors. They are using the Texas A&M Accelerator Laboratory and Idaho National Laboratory to irradiate material, creating voids that can help understand swelling in nuclear reactors.
The Centers for Medicare & Medicaid Services (CMS) has announced a significant adjustment to the Hospital Outpatient Prospective Payment System (HOPPS), unbundling diagnostic radiopharmaceuticals costing above $630. This change aims to improve access to life-saving nuclear medicine scans, providing critical insights for patient treatme...
Researchers have introduced Tune-IMS, a technique that improves the precision of isochronous mass spectrometry for measuring short-lived atomic nuclei. The method has been successfully tested on several nuclides and has shown higher precision than previous IMS methods.
Physicist Volker D. Burkert is honored for his pioneering work on high-performance instrumentation, leading to breakthroughs in fundamental nuclear physics. His research has revealed new insights into the structure of protons and nuclei, including the discovery that the peak pressure inside a proton exceeds that found in neutron stars.
A Korean research team developed an energy system model optimized for Korea's environment to predict the optimal proportion of hydrogen energy needed to achieve national carbon neutrality by 2050. The KIER-TIMES model suggests that hydrogen energy needs to account for 27% of overall energy supply, with forecasts indicating a rise to 25%.
Researchers have discovered that the strength of a coupling between nuclear spins depends on the chirality or handedness of a molecule. The study found that in molecules with the same handedness, the nuclear spin aligns in one direction, while in molecules with opposite handedness, it aligns in the opposite direction.
Iowa State University researchers are using additive manufacturing, also known as 3D printing, to create tungsten shields and components that can withstand high temperatures and radiation in nuclear reactors. The goal is to improve the efficiency of nuclear power and reduce costs.
Researchers have developed Nucleus++, a new tool for faster and more transparent nuclear data analysis. The software integrates nuclear mass data from the AME and nuclear physics properties from NUBASE, providing enhanced insights for scientists worldwide.
Researchers developed a detector that senses and analyzes antineutrinos emitted by nuclear reactors, enabling detection of reactor use even from hundreds of miles away. The device exploits Cherenkov radiation to characterize energy profiles and can distinguish between operational cycles and specific isotopes in spent fuel.
A new model based on the Langevin equation offers insights into exotic nuclei formation, enhancing the production of rare isotopes for scientific and medical applications. The model simplifies complex nuclear reactions by focusing on key physical processes, reducing adjustable parameters and improving energy dissipation predictions.
Researchers from the University of Jyväskylä have measured more detailed data on the magic N=50 neutron shell closure in the silver isotope chain. The new information improves state-of-the-art theoretical models, benefiting the global description of the atomic nucleus.
Researchers at HSE University developed mathematical models to predict impact of nuclear power on Sustainable Development Index. Increasing nuclear power share to 20-25% could boost SDI, but scenarios with slower growth or reduction lead to lower increases.
Researchers from Okayama University successfully controlled the population of the thorium-229 isomeric state using X-rays, a crucial step towards building a compact and portable nuclear clock. This achievement demonstrates the potential for nuclear clocks to advance fundamental physics research and other applications such as GPS systems.
Scientists have demonstrated key elements of a nuclear clock, utilizing thorium nuclei and ultraviolet lasers to achieve unprecedented precision. This development holds promise for revolutionizing timekeeping and probing fundamental physics.
Researchers at Oak Ridge National Laboratory have documented the chemistry dynamics and structure of high-temperature liquid uranium trichloride (UCl3) salt, a potential nuclear fuel source for next-generation reactors. The study used neutron scattering techniques to reveal details about the nature of materials, including the bonding d...
Researchers discovered that Huntington's disease protein aggregates cause breaks in the nuclear envelope, leading to DNA damage and misregulation of neuronal genes. The study suggests a common mechanism for neurodegenerative diseases involving nuclear aggregate-induced ruptures.
This study explores tensor force effects on nuclear matter properties, including equation of state and symmetry energy. The results show attractive tensor force effects around empirical saturation density.
A comprehensive analysis of US coal power plants reveals feasibility for conversion to advanced nuclear reactors, providing valuable insights for policymakers and utilities. The study uses a GIS-based tool to evaluate socio-technical and economic factors, suggesting a broad spectrum of suitability levels across different locations.
Researchers uncovered details about nuclear structures using relativistic isobar collisions, highlighting differences in multiplicity distribution and elliptic flow. The study employed advanced models and technology to analyze the effects of nuclear deformations and initial fluctuations on ratio observables.
Researchers have documented a unique two-proton decay mechanism in Magnesium-18, revealing complex interactions between nuclear forces. The study uses advanced techniques to analyze the phenomenon, providing crucial insights into extreme nuclear conditions.
Researchers have made significant progress in understanding the one-neutron stripping process in lithium-6 and bismuth-209 reactions. The study reveals that this process yields results comparable to fusion reactions, especially at energy regions near nuclear barriers.
Dr. David M. Goldenberg, MD, has received the 2024 Benedict Cassen Prize for his pioneering work in monoclonal antibodies and immunotherapy, leading to significant advances in nuclear medicine science. His contributions have resulted in personalized therapy for cancer patients with a new generation of agents.
Cathy Sue Cutler, Ph.D., FSNMMI, was elected SNMMI President to continue supporting the Facilitating Innovative Nuclear Diagnostics (FIND) Act. She aims to improve workforce development, create training opportunities, and educate the public on nuclear medicine.
SNMMI has elected Heather Jacene, MD, as Vice President-Elect, aiming to strengthen the organization through active listening and collaborations. Jacene's research focuses on cancer therapy response monitoring using novel tracers, and she aims to break down barriers in radiopharmaceutical availability.
Julie Dawn Bolin, a seasoned nuclear medicine technologist and educator, has been elected as the new president of the SNMMI Technologist Section for 2024-25. Bolin aims to advance the field by bolstering educational initiatives, championing advocacy efforts, and promoting access to education and healthcare in marginalized communities.
Cybil Nielsen has been elected as the 2024-25 president-elect of the Society of Nuclear Medicine and Molecular Imaging Technologist Section. She aims to expand educational programs, mentorship opportunities, and networking events to facilitate continuous learning and career advancement among members.
An analysis published in Science found that high assay low-enriched uranium (HALEU) fuel can be used directly to make nuclear weapons, posing a significant threat to terrorism and nuclear proliferation. Many proposed reactors could contain enough HALEU to make a nuclear weapon, increasing security risks.
The widespread adoption of high-assay low-enriched uranium (HALEU) threatens the international system of controls preventing nuclear weapons proliferation for over 30 years. HALEU's high enrichment levels pose significant security risks, making it possible for a single reactor to contain enough material for a nuclear weapon.
A recent study analyzing 300,000 X posts found that 48 US states have a more positive than negative tone towards nuclear energy, with a national average at 54% positive. Concerns about waste, cost, and safety dominate negative sentiment, while technology themes fuel positive sentiments highlighting innovations and job creation.
Researchers at STAR detector observe charged-particle deflection pattern caused by induced electric current in quark-gluon plasma, providing proof of magnetic fields' existence and a new method to measure conductivity. This discovery may aid in unraveling phase transition mysteries between QGP and nuclear matter.