Dmitry Beyder has been elected as the president of the SNMMI-TS for 2023-24, aiming to increase technologists' roles in providing theranostics and nuclear medicine therapy. He brings extensive experience from various positions in the field.
SNMMI-TS elects Julie Dawn Bolin as president-elect, focusing on educating students about nuclear medicine careers and improving professional development. Bolin brings extensive experience in nuclear medicine technology and education.
Henry VanBrocklin, a professor at the University of California, San Francisco, has been recognized for his decades-long research on novel radiopharmaceuticals and their applications in medical imaging. He is being honored with the prestigious Paul C. Aebersold Award for his contributions to nuclear medicine.
The global nuclear medicine initiative addresses the need for standardized educational curriculums to train physicians in nuclear theranostics procedures. The report highlights the rapid evolution of theranostic radiopharmaceuticals and emphasizes the importance of continuing medical education to maintain expertise.
Researchers at RHIC's STAR Collaboration searched for evidence of a critical point in the way nuclear matter transforms from one phase to another. The study found fluctuation patterns in triton production that might help locate the critical point, a key to understanding the makeup of our universe.
An international team of researchers has developed a new method to study the thorium-229 isotope using lasers in the visible wavelength range. This approach could lead to precise measurements of the isomeric state's energy level, enabling tests of fundamental physics questions and potentially paving the way for a nuclear clock.
Researchers have observed significant directed flow of hypernuclei in heavy-ion collisions, offering a new direction for studying Y–N interactions. The experiment extracted slopes of directed flow of hypernuclei and light nuclei, suggesting a similar mass number scaling.
Researchers have characterized the excitation energy of thorium-229 with great precision, a crucial step towards creating the first nuclear clock. The nuclear clock would register forces inside the atomic nucleus, enabling scientists to delve deeper into fundamental physical phenomena.
Scientists have produced a signature nuclear reaction on Earth that mimics the process occurring on neutron stars. The experiment uses a unique gas jet target system to understand nuclear reactions that occur when material falls onto the surface of these celestial bodies, providing new insights into element formation and stellar dynamics.
A mathematical model developed by researchers at the University of Michigan could help engineers control the behavior of vortex rings in nuclear fusion and other applications. Vortex rings form during fuel compression and can disrupt the efficiency of fusion reactions. The model, which draws parallels with smoke rings, aims to understa...
Kelly Chipps, a nuclear astrophysicist at Oak Ridge National Laboratory, has been appointed to the Nuclear Science Advisory Committee. The committee provides official advice to DOE and NSF on issues relating to basic nuclear science research. Chipps brings extensive expertise in nuclear physics and leadership experience to this role.
The SNO+ experiment has successfully detected reactor neutrinos using plain water, showing that such detectors can play a role in ensuring nuclear non-proliferation. The measurement overcomes challenges of detecting tiny signals from distant reactors.
Researchers have discovered that nuclear pore IDPs form a dynamic barrier that allows essential cellular factors to pass while blocking viruses and pathogens. The team used synthetic biology, multidimensional fluorescence microscopy, and computer-based simulations to study IDPs in living cells.
A two-day workshop hosted by PPPL discussed the risks and benefits of fusion energy, including concerns about nuclear proliferation and energy justice. Experts emphasized the need for open discussion and regulation to ensure safe and equitable deployment of fusion power.
A recent MIT study finds that shutting down nuclear power could significantly increase air pollution, with up to 5,200 premature deaths estimated. The study reveals that fossil fuel sources would fill the gap, leading to increased health risks, especially for Black or African American communities.
A literature review published by the Society of Nuclear Medicine and Molecular Imaging reveals how nuclear medicine brain imaging can help evaluate biological changes causing chemotherapy-related cognitive impairment. The findings confirmed the impact of chemotherapy drugs on cognitive function and highlighted the utility of various SP...
A new article in The Journal of Nuclear Medicine explores the potential for using ChatGPT, an artificial intelligence chatbot, in nuclear medicine and molecular imaging. The authors discuss the strengths and weaknesses of current AI bots and highlight the benefits of collaborating with AI allies to cope with increasing workloads.
The International Research Network for Nuclear Astrophysics (IReNA) has partnered with the Ibero-American Network of Nuclear Astrophysics (IANNA) to enhance knowledge in nuclear astrophysics. The new collaboration will enable researchers from both networks to access cutting-edge technology and combine their expertise, resources, and ac...
The Society of Nuclear Medicine and Molecular Imaging (SNMMI) and the European Association of Nuclear Medicine (EANM) have published a new procedure standard/practice guideline for somatostatin receptor (SSTR) PET imaging in patients with neuroendocrine tumors. The guideline focuses on improved sensitivity, lower radiation dose, and sh...
Researchers at MIT have proposed a new approach to making qubits and controlling them using beams of light from two lasers of slightly different colors. This method enables the direct manipulation of nuclear spin, allowing for precise identification and mapping of isotopes, as well as improved coherence times for quantum memory.
New Zealand and five other island nations, including Australia and Vanuatu, have the potential to continue producing food despite reduced sunlight and cooler temperatures after a nuclear war. However, countries' resilience is threatened by dependence on imported commodities and collapse of industry and social functioning.
A group of international scientists warn that nuclear radiation would have catastrophic consequences on ecosystems, including widespread hunger, toxic contamination, and habitat destruction. The authors urge policymakers to take action to mitigate these risks.
A German junior research group, RIMANUS, has been awarded €1.28 million to focus on refining imaging processes and monitoring nuclear fuels. The team aims to enhance reactor safety by developing non-invasive testing methods using cosmic-ray muons to inspect spent nuclear fuel storage containers.
The UTSA-led Consortium on Nuclear Security Technologies (CONNECT) has received a five-year, $5 million grant from the U.S. Department of Energy's National Nuclear Security Administration. The program aims to educate and train the next generation of scientists and engineers in nuclear security, with a focus on underrepresented students.
Researchers observed a strongly isospin-mixed doublet in silicon-26, with the largest ever recorded mixing matrix element. This unexpected result challenges current understanding of nuclear force and cannot be explained by standard nuclear models.
Lehigh University has received nearly $1.75 million in funding from the US Department of Energy to support fusion energy research, specifically for ITER's long-pulse scenarios. The project aims to prepare ITER for operation and address critical research questions related to plasma control.
The US Department of Energy has awarded $35 million in grants to three joint projects between Nuclear Physics and Advanced Scientific Computing Research programs. These projects aim to optimize software tools for calculations of quantum chromodynamics, which describes the structure of protons and neutrons, using powerful supercomputers...
Researchers studied the strong nuclear force using nickel-64 nuclei, discovering that they change shapes under high-energy conditions. The team used advanced detectors to analyze gamma rays and particle direction, revealing two possible shapes for the nucleus: oblate and prolate.
A new quantum algorithm allows for the direct calculation of energy derivatives, a crucial step in molecular geometry optimization, using only one query on a quantum computer. This breakthrough enables the computation of energy derivatives with respect to nuclear coordinates in a single calculation.
Mark Jones has been appointed as the new group leader of Jefferson Lab's Experimental Halls A and C. He aims to advance nuclear physics research by supporting vetted experiments and exploring new ideas. Jones brings deep experience in nuclear physics, equipment, and analysis, having worked at the lab since 1992.
A team of researchers identified the precise mechanism of nuclear envelope repair, finding that lamin C, BAF, and cGAS work together to facilitate rapid repair. The study provides insights into rare genetic disorders such as laminopathies and has potential applications for understanding and treating related diseases.
A new mechanism has been discovered for the passive transport of biomolecules through the nuclear pore complex, with implications for human diseases. The research team used supercomputing simulations on Frontera and Stampede2 systems to study the kinetics of the nuclear pore transport.
The Journal of Nuclear Medicine Technology special issue highlights the potential of theranostics to tailor cancer treatment to individual patients. The innovation uses targeted radiopharmaceuticals for both diagnosis and treatment of tumors.
The U.S. Department of Energy has renewed funding for a research center studying molten salts, which have potential applications in improving the safety and efficiency of nuclear power. The center, led by Brookhaven National Laboratory, will receive $13.3 million over four years to advance our understanding of molten salt properties.
Purdue researchers have created a 2D array of electron and nuclear spin qubits, enabling atomic-scale nuclear magnetic resonance spectroscopy and reading/writing quantum information with nuclear spins in 2D materials. This method harnesses three nitrogen nuclei at a time for longer coherence times than electron qubits.
A Rutgers-led study estimates that a full-scale US-Russia nuclear war would cause global crop production to decline by up to 90% and lead to widespread starvation. This could result in over 5 billion people dying of hunger, with severe disruptions in global food markets.
The Journal of Nuclear Medicine publishes a first-hand account of daily nuclear medicine practice in Kyiv, Ukraine, where physicians face constant bombing and shelling. Despite the challenges, Dr. Kmetyuk expresses gratitude for international support and hope for the future of Ukrainian medical professionals.
The research team aims to develop a new approach to managing spent nuclear fuel by engaging community members in the design and construction process. This 'community-first approach' involves simulating the engagement of local stakeholders before designing a facility, taking into account their wishes and needs for future storage sites.
Researchers found no significant change in Tokyo's consumption-based CO2 emissions, but increased emissions from imported thermal power. Local governments' reported emission data are underestimated due to this shift.
Researchers have developed a novel simulation method to calculate free energy using deep learning artificial intelligence, providing accurate models of molten salts' thermodynamic properties. The study could help examine corrosion in metal containers and improve the design of next-generation nuclear reactors.
A new study warns of the devastating effects of nuclear war on the Earth's systems. Global temperatures would plummet by 13 degrees Fahrenheit, causing crop failure worldwide. Ocean temperatures would drop quickly, leading to a 'Nuclear Little Ice Age' and disrupting marine ecosystems.
A large-scale study by Rutgers researcher Alan Robock and colleagues found that even small nuclear wars would rewire the physical, biological, and ecological states of oceans. The study simulated a U.S.-Russia war and several smaller India-Pakistan wars, calculating the effects of atmospheric soot on ocean functions.
The Journal of Nuclear Medicine has achieved an impact factor of 11.082, a 10% increase over last year's score of 10.057. This marks the highest impact factor in the journal's history, reflecting the growing importance of nuclear medicine as a whole.
Researchers at the University of Manchester are developing AI-powered robots that can operate autonomously in hazardous environments. The 'hot-robotics' project aims to improve robot autonomy for tasks like decommissioning legacy power stations and inspecting nuclear reactors.
A study by Ritsumeikan University researchers analyzed the life cycle assessment of nuclear power generation, revealing varying TMR coefficients across different mining methods and fuel cycles. The results show that nuclear power generates similar natural resources as renewable energy, significantly less than thermal power.
Schwaiger received the SNMMI Georg Charles de Hevesy Nuclear Pioneer Award for his significant work in multimodal imaging and development of novel quantitative methods. His research interests included oncologic PET, thyroid endocrine, and neuroendocrine diseases.
Cathy Sue Cutler, PhD, was elected vice president-elect of SNMMI, focusing on securing funding for nuclear medicine services. She aims to generate training opportunities for SNMMI members on theranostics and educate the public on the value of nuclear medicine.
Andrei Iagaru has received the inaugural Sam Gambhir Trailblazer Award from the Society of Nuclear Medicine and Molecular Imaging (SNMMI) for his outstanding contributions to transformative research and exceptional mentorship. He is recognized for his work in PET/MRI, PET/CT, and targeted radionuclide therapy.
Dmitry Beyder has been elected as the 2022-23 president-elect for the Society of Nuclear Medicine and Molecular Imaging Technologist Section (SNMMI-TS). As president-elect, Beyder will focus on guiding technologists out of the COVID-19 pandemic and strengthening the nuclear medicine technologist workforce and professional pipeline.
The SNMMI has launched the Mars Shot Fund to support innovative nuclear medicine and molecular imaging research. The fund aims to secure $100 million in funding and is currently at $600,000, following generous donations from individuals and organizations.
Dr. Simon R. Cherry received the 2022 Benedict Cassen Prize for his groundbreaking contributions to nuclear medicine instrumentation and molecular imaging. He was recognized for his pioneering advancements in small-animal PET, PET/MRI hybrid imaging, and total-body PET.
Munir Ghesani, MD, has been elected as president of SNMMI for his commitment to improving patient access to nuclear medicine scans. He plans to address issues such as reimbursement and regulatory approvals to grow the field of nuclear medicine.
Krystle W. Glasgow has been elected as the 2022-23 president of the Society of Nuclear Medicine and Molecular Imaging Technologist Section, aiming to increase membership and enhance communication and educational offerings for nuclear medicine technologists.
Helen Nadel, MD, FRCPC, has been named president-elect of the Society of Nuclear Medicine and Molecular Imaging (SNMMI). She plans to address issues such as global communication, government and industry relationships, and diversity initiatives. With over 30 years of SNMMI membership, Nadel brings extensive experience to her role.
Researchers combined knowledge from nuclear theory, nuclear experiment, and astrophysical observations to gain new insights into neutron star matter. The study found a higher pressure at intermediate densities in neutron stars using data from heavy-ion collision experiments.
The SNMMI Annual Meeting will focus on precision medicine, developing new diagnostic methods and treatments for cancers, brain diseases, and cardiac conditions. The event will feature breaking news and research in nuclear medicine and molecular imaging.
Researchers from UC Berkeley found that a photovoltaic array using compressed hydrogen for energy storage can efficiently power human missions on Mars. The system beats out nuclear power across about 50% of the Martian surface.
A new research paper by Andrew Futter, Professor of International Politics at the University of Leicester, warns of a 'Third Nuclear Age' due to advancements in nuclear weapons technology. The 'Third Nuclear Age' could fundamentally change the rules on nuclear order and stability, posing significant risks to global security.
The project will develop a better understanding of nuclear radiation by integrating recent mathematical developments into radiation transport modelling. This will lead to improved nuclear safety, cancer radiotherapy, and shielding for astronauts from cosmic rays.
A new study published in Ambio highlights the potential for tropical forests to provide food security in the face of a nuclear winter. Researchers identified 33 wild, edible plants and insects that could be cultivated or foraged in post-nuclear war conditions. These findings offer a new perspective on global food security and resilience.