Researchers at FRIB have measured proton capture on arsenic-73 to produce selenium-74, providing new constraints on the formation and destruction of p-nuclei. This experiment brings closer understanding of rare isotope origins in the universe.
The FRIB research team has identified a flaw in physics models of massive stars and supernovae, revealing inconsistencies with observational gamma-ray astronomy data. This discovery was made possible by the development of a new experimental method that enabled the team to study short-lived isotopes, including iron-60.
The Facility for Rare Isotope Beams' (FRIB) precision measurement program has verified the existence of a proton halo around aluminum-22. Researchers used a unique process to create and measure a high-energy beam of the isotope, achieving accurate mass measurements that confirm its rare properties.
An international research team uses wavefunction matching to overcome computational challenges in ab initio methods for nuclear physics. By transforming realistic high-fidelity interactions into easily computable ones, they can perform accurate calculations that match real-world data on nuclear properties.
Researchers from Massey University and Michigan State University discuss the limit of the periodic table with recent advances in superheavy element research. They aim to uncover properties of atoms and nuclei beyond the current atomic number and mass.
The MSU facility will provide several thousand additional hours of chip testing capacity annually, addressing the US national shortfall in advanced microelectronics testing. The K500 cyclotron will be used to test electronic components for space-based applications where levels of ionizing radiation are higher than at Earth's surface.
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 Energy Loss Optical Scintillation System (ELOSS) represents a significant advancement in experimental nuclear physics instrumentation. Researchers can now study isotopes at high beam rates and performance, with the new detector offering nearly three times better resolution and counting rates compared to conventional charge readout ...
Researchers at Michigan State University's National Superconducting Cyclotron Laboratory have created the world's lightest version of magnesium, a highly unstable isotope that can help scientists better understand how atoms are made. This breakthrough is part of a larger effort to refine theories and models that explain the formation o...
A team of researchers solved the case of zirconium-80's missing mass by combining experimental and theoretical approaches. They used NSCL's Penning trap mass spectrometer to measure the nucleus's mass with unprecedented precision, revealing new insights into its structure and properties.
Researchers at FRIB are studying gentle nuclear reactions with fragile nuclei to improve physics models, which can deepen our understanding of the universe. This knowledge can also lead to better medicine, such as more precise cancer treatments.
Researchers at Michigan State University have successfully conducted an experiment using 'mirror nuclei' to study the fundamental physics of atoms and neutron stars. The team's findings have the potential to improve our understanding of neutron star sizes and provide new insights into the universe's most extreme environments.
Scientists Simin Wang and Witold Nazarewicz develop a computer model to reconstruct protons inside the nucleus based on detector data, enabling predictions about nuclear behavior. The model helps understand rare nuclei decay by emitting pairs of particles.
A team of researchers used radioactivity in meteorites to study the cosmic origin of heaviest elements, shedding light on violent stellar explosions. The study found that specific astronomical events, such as neutron star collisions, likely created these heavy elements.
Physicists at Michigan State University's Facility for Rare Isotope Beams have developed a new method to model neutrinoless double-beta decay, a yet-unconfirmed rare nuclear process with significant implications for particle physics and cosmology. The novel approach, known as the In-Medium Generator-Coordinate Method, enables controlle...
Researchers at MSU are working on a $3.7M project to create more accurate models of scientific phenomena using Bayesian statistics and machine learning. The team aims to improve the characterization and reduction of uncertainties in nuclear processes, making it easier for scientists to design experiments and allocate resources.
Michigan State University Professor Alexandra Gade reviews advancements in describing rare isotopes, revealing new magic numbers and shell evolution. The study has implications for nuclear astrophysics, nuclear security, and nuclear medicine.
Michigan State University (MSU) has led the creation of a new International Research Network for Nuclear Astrophysics (IReNA), funded by the National Science Foundation. IReNA connects expertise in nuclear physics, astrophysics, and related fields to advance understanding of the origin of elements and dense nuclear matter.
Researchers from MSU and TRIUMF observed a rare nuclear decay in beryllium-11, measuring low-kinetic-energy protons emitted after beta decay. The observation represents a new challenge for understanding exotic nuclei, particularly halo nuclei.
Researchers from MSU and RIKEN Nishina Center discovered eight new rare isotopes of elements phosphorus, sulfur, chlorine, argon, potassium, scandium, and calcium. Calcium-60 is the heaviest known calcium atom with 20 protons and 40 neutrons.
Jaideep Singh, an MSU assistant professor, received funding for his proposal to search for time-reversal violation using optically addressable nuclei in cryogenic solids. The award will accelerate his research program by about 15 years, recognizing the world-class scientific support at FRIB.
A MSU chemistry professor has been awarded a $356,598 grant to develop new methods for gathering rare medical isotopes. The goal is to enable targeted alpha therapy for metastatic cancer and advance research in fields like astrophysics and biochemistry.
Researchers probe Periodic Table's limits as new elements are added, challenging traditional understanding of atoms. The search for element 119 continues, with potential implications for the definition and structure of atoms.
The MSU traineeship program will educate PhD and master's students in accelerator science and engineering, addressing four critical workforce needs. Students will be certified and ready for careers in DOE laboratory facilities and industry.