Find Academic Supervisors

• Nuclear Physics
• Heavy Ion Research
• Nuclear Structure
• +3 more

Dr. Janik R. is a nuclear physics researcher at GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany, actively involved in cutting-edge research on nuclear structure with a focus on exotic nuclei far from stability. Their work primarily centers on investigating shell evolution, shape transitions, and nuclear collectivity in neutron-rich and proton-rich isotopes using advanced gamma-ray spectroscopy techniques and lifetime measurements. Dr. Janik R.'s research interests span nuclear structure physics, with particular emphasis on shell evolution in exotic nuclei, nuclear spectroscopy of rare isotopes, beta-decay studies, and the investigation of traditional and new shell closures. Their work often involves international collaborations and utilizes major facilities including GSI/FAIR, RIKEN's RIBF, and connections to CERN's ISOLDE facility. Their publication record shows significant contributions to understanding nuclear structure phenomena, particularly in regions near shell closures such as N=32, N=40, and N=126. Recent work includes spectroscopy of exotic potassium and calcium isotopes, studies of shape transitions in rare earth nuclei like tungsten-190, and investigations of nuclear structure in proton-rich systems such as palladium-94. Dr. Janik R. is actively involved in experimental nuclear physics instrumentation development, contributing to detector systems like FATIMA (FAst TIMing Array) for lifetime measurements and STRASSE (Silicon Tracker for RAdioactive nuclei Studies at SAMURAI Experiments) for quasi-free scattering measurements. Their work supports the DESPEC experiment at FAIR Phase-0, which serves as a precursor to the full FAIR facility. Research areas include: Nuclear structure of exotic nuclei Shell evolution and new magic numbers Gamma-ray spectroscopy techniques Lifetime measurements of nuclear excited states Beta-decay studies of neutron-rich nuclei Shape transitions and collectivity in atomic nuclei

• Nuclear fission
• Heavy-ion physics
• Heavy element synthesis
• +4 more

Dr. Ikezoe H. is a nuclear physicist at the Japan Atomic Energy Agency (JAEA), Advanced Science Research Center, specializing in heavy-ion induced nuclear reactions and fission dynamics. His research primarily focuses on understanding the mechanisms of nuclear fission and heavy element synthesis through precise measurements of evaporation residue cross-sections and fission fragment properties. Dr. Ikezoe has established significant international collaborations, particularly with GSI Helmholtzzentrum für Schwerionenforschung in Germany, where he has conducted numerous experiments using heavy ion accelerators. Dr. Ikezoe's research interests center on nuclear fission dynamics, heavy-ion reaction mechanisms, and heavy element synthesis. His work investigates how nuclear orientation affects fission fragment mass distributions, particularly in reactions involving deformed actinide targets like uranium-238. He has conducted systematic studies of evaporation residue production in reactions with projectiles including sulfur, silicon, and argon ions, providing valuable data for understanding fusion-fission competition and optimizing conditions for superheavy element production. Analysis of Dr. Ikezoe's publication record reveals a consistent focus on experimental nuclear physics with emphasis on precision measurements of reaction cross-sections and fission properties. His work spans from fundamental studies of fission dynamics to applied research relevant to heavy element synthesis. The research demonstrates strong methodological continuity, with increasing sophistication in experimental techniques and data analysis approaches over time. Dr. Ikezoe has been actively involved in collaborative research projects that bridge Japanese and international nuclear physics communities. His work has contributed to advancing our understanding of nuclear reaction mechanisms relevant to both fundamental science and practical applications in nuclear technology.

• Nuclear Physics
• Heavy Ion Research
• Superheavy Elements
• +3 more

V. F. Comas is a nuclear physics researcher at GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany. As part of this leading heavy ion research facility, Comas contributes to cutting-edge research in nuclear physics with a focus on exotic nuclei and superheavy elements. Comas's research interests center on nuclear structure studies of rare isotopes, particularly neutron-deficient and neutron-rich species. Their work spans multiple subfields including heavy-ion induced reactions, decay spectroscopy of exotic nuclei, superheavy element synthesis, and nuclear reaction mechanisms. This research often involves the use of specialized facilities like the SHIP (Separator for Heavy Ion reaction Products) separator for isolating and studying rare reaction products. Analysis of Comas's publication record shows consistent contributions to understanding the properties of nuclei far from stability, with particular emphasis on isotopes with high atomic numbers. Their work often involves international collaborations and contributes to expanding our knowledge of the nuclear landscape at its extremes. Comas has been active in publishing research on neutron-deficient isotopes, superheavy elements, and nuclear reaction mechanisms throughout the 2000s and 2010s, demonstrating sustained contributions to the field of experimental nuclear physics.

• Superheavy element synthesis
• Nuclear fission dynamics
• Decay properties of heavy isotopes
• +3 more

Dr. Khuyagbaatar J. is a Research Fellow at GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany, specializing in superheavy element research within the Nuclear Physics Department's Superheavy Elements Research Group. His work focuses on the synthesis, decay properties, and chemical characterization of elements at the extreme limits of the periodic table. His research interests span superheavy element synthesis, nuclear fission dynamics, decay properties of heavy isotopes, shell effects in superheavy nuclei, relativistic effects in chemical properties, and the pursuit of elements 119 and 120. Dr. Khuyagbaatar is a key contributor to the TASCA (TransActinide Separator and Chemistry Apparatus) collaboration, which has enabled groundbreaking studies of transactinide elements. Analysis of his recent publications (2020-2025) reveals a strong emphasis on experimental nuclear physics with a focus on identifying new superheavy isotopes, measuring their decay properties, and investigating the chemical behavior of the heaviest elements. His work demonstrates consistent contributions to understanding shell stabilization effects in superheavy nuclei and the manifestation of relativistic effects in chemical properties. Dr. Khuyagbaatar's research has resulted in numerous high-impact publications in journals like Physical Review Letters and Physical Review C, with significant contributions to the discovery and characterization of new superheavy elements. His work represents the cutting edge of nuclear physics research at the limits of nuclear stability.

• Nuclear Physics
• Heavy Ion Research
• Superheavy Elements
• +3 more

A. G. Popeko is a nuclear physicist affiliated with GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany, a leading research institution in heavy ion physics. Their work focuses on experimental nuclear physics, particularly in the synthesis and study of superheavy elements and heavy neutron-rich nuclides. Popeko's research interests span several critical areas in contemporary nuclear physics: Superheavy element synthesis and identification Decay properties of heavy and superheavy nuclei Multi-nucleon transfer reactions Fission studies of heavy elements Evaporation residue cross-section measurements Nuclear structure at the limits of stability Analysis of Popeko's publication record reveals a strong focus on experimental techniques for producing and identifying new isotopes near the limits of nuclear stability. Their work often involves heavy-ion beam experiments with actinide targets to study fusion-evaporation reactions and transfer processes. The research demonstrates particular expertise in decay spectroscopy and cross-section measurements for rare nuclear reaction products. Popeko has contributed to numerous significant findings in superheavy element research, including studies of decay chains for newly synthesized elements and investigations of fission barriers that determine the stability of the heaviest nuclei. Their work provides essential experimental data that tests theoretical models of nuclear structure in the superheavy region. As a researcher at GSI, Popeko participates in the international scientific collaborations that characterize modern nuclear physics research, working with colleagues from various institutions worldwide to advance our understanding of nuclear matter at extreme conditions.

• Nuclear Physics
• Heavy Elements
• Radioactive Decay
• +3 more

Dr. Y. Wakabayashi is a nuclear physics researcher at GSI Helmholtz Centre for Heavy Ion Research with strong collaborative ties to RIKEN's Nishina Center for Accelerator-Based Science in Japan. Their work focuses on experimental studies of heavy and superheavy elements, radioactive decay processes, and nuclear structure at the limits of stability. Dr. Wakabayashi's research interests span nuclear physics, heavy element synthesis, radioactive decay properties, and nuclear chemistry of transactinide elements. They investigate the properties of exotic nuclei through heavy-ion fusion reactions, decay spectroscopy, and advanced chemical separation techniques. Their work contributes to understanding nuclear structure models and the theoretical 'island of stability' for superheavy elements. The publication record shows consistent contributions to major journals in nuclear physics, with recent work focusing on beta-decay half-lives of neutron-rich isotopes, alpha decay properties of heavy elements, nuclear charge radii measurements using laser spectroscopy, and chemical studies of transactinide elements. These publications demonstrate expertise across both nuclear structure physics and nuclear chemistry. Dr. Wakabayashi collaborates extensively with international research teams, particularly between German and Japanese institutions, reflecting the global nature of cutting-edge nuclear physics research which requires specialized facilities not available at any single laboratory.

• Nuclear Physics
• Atomic Physics

Y. M. Volkov is a researcher at GSI Helmholtzzentrum für Schwerionenforschung, specializing in experimental nuclear physics. Volkov's work focuses on investigating nuclear properties of isotopes, particularly copper nuclei, using advanced measurement techniques. Research interests include: Nuclear structure and spectroscopy Magnetic moment measurements Isotopic behavior studies Energy level configurations in atomic nuclei In a notable 2009 publication in Physical Review Letters , Volkov contributed to research revealing unexpected level inversion in copper-75 isotopes, advancing understanding of nuclear shell models.

• Nuclear Physics
• Knockout Reactions
• Nuclear Structure
• +2 more

LE BLEIS, T. is a nuclear physics researcher affiliated with GSI Helmholtzzentrum für Schwerionenforschung in Darmstadt, Germany. Their work focuses on experimental nuclear physics, particularly studying exotic nuclei structures and reaction mechanisms using advanced accelerator facilities. Research Focus: Primary interests include knockout reactions (proton and neutron), nuclear structure of exotic systems like halo nuclei, fragmentation processes, and implications for nuclear astrophysics. Key methodologies involve inverse kinematics experiments with radioactive beams and precision measurements using large-acceptance detectors. Recent Publications: Research from 2018-2024 demonstrates consistent focus on: Structure of light exotic nuclei (e.g., 17Ne, 13Be) Reaction mechanisms in intermediate-energy collisions Isotopic cross-section measurements Nuclear astrophysics connections via r-process nucleosynthesis studies Collaborations: Actively participates in international collaborations through the NUSTAR experimental program and other multi-institutional research initiatives at GSI facilities.

• Nuclear Physics
• Precision Mass Measurements
• Isospin Physics
• +3 more

Dr. Li, H. F. is a nuclear physics researcher affiliated with GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany, with active collaborations with Chinese research institutions. Their work focuses on precision mass measurements of exotic nuclei, particularly examining isospin-nonconserving effects in the upper fp-shell region of the nuclear chart. Their research interests include: Nuclear mass measurements using storage ring techniques Isospin symmetry breaking in nuclear structure Properties of nuclei near the proton dripline Applications to nuclear astrophysics Recent work published in Physical Review C (2024) demonstrates expertise in precision measurements that test state-of-the-art nuclear models. This research contributes to our understanding of nuclear forces and has implications for nucleosynthesis calculations in astrophysical environments. The researcher participates in international collaborations that utilize major accelerator facilities including those at GSI and the Heavy Ion Research Facility in Lanzhou (HIRFL) in China, reflecting the global nature of contemporary nuclear physics research that requires access to specialized infrastructure.

• Nuclear Physics
• Nuclear Reactions
• Nuclear Structure
• +3 more

Krasznahorkay, A. is a nuclear physicist with a long-standing affiliation with GSI Helmholtz Centre for Heavy Ion Research in Darmstadt, Germany. With publications spanning from 2003 to 2024, Krasznahorkay has established a significant research profile in nuclear physics, particularly in the areas of nuclear reactions, nuclear structure, and studies of exotic nuclei. Krasznahorkay's research focuses on several key areas in nuclear physics: Studies of doubly-magic nuclei, particularly 56Ni Measurements of nuclear matter radii and charge distributions Investigations of shell structure in neutron-rich isotopes Observations of giant resonances and multipole strengths Experiments with storage rings and in-ring detection techniques Studies of drip line nuclei and neutron-rich systems Analysis of Krasznahorkay's recent publications reveals a strong emphasis on precision measurements using advanced experimental techniques. The research often involves international collaborations and utilizes GSI's unique facilities, including the Experimental Storage Ring (ESR). Key trends include the application of inverse kinematics for studying exotic nuclei, development of novel detection methods, and investigations of nuclear structure far from stability. Krasznahorkay has contributed to significant findings in the field, including: Precision measurements of the matter radius of 56Ni Observations of isoscalar multipole strengths in exotic nuclei Studies of N=14 and N=16 shell gaps in neutron-rich oxygen isotopes Investigations of spontaneous ternary fission in 252Cf Through their extensive publication record and ongoing research activity, Krasznahorkay has made substantial contributions to advancing our understanding of nuclear structure and reactions, particularly in regions of the nuclear chart that are difficult to access experimentally.

• Nuclear Physics
• Heavy Ion Research
• Fission Studies
• +3 more

Dr. T. Kröll is a prominent researcher at GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany, specializing in experimental nuclear physics with focus on heavy ion research, fission studies, and properties of exotic nuclei. Their work primarily involves the R3B (Reactions with Relativistic Radioactive Beams) experiment and other advanced facilities at GSI. Research interests include: Nuclear structure of exotic nuclei Fission dynamics and asymmetric fission processes Neutron-skin thickness determination Coulomb excitation measurements Precision cross section measurements Recent publications (2023-2025) demonstrate continued leadership in experimental nuclear physics, with particular emphasis on neutron-rich tin isotopes, fission studies using inverse kinematics, and precision measurements of nuclear properties. The work shows strong methodological innovation in experimental techniques for studying short-lived nuclei. Scientific recognition: Multiple publications in high-impact journals including Nature and Physical Review Letters Contributions to major international conferences including the European Nuclear Physics Conference Active participation in the FAIR Phase-0 research program Dr. Kröll maintains extensive international collaborations across Europe and beyond, contributing to the global effort to understand nuclear structure at the limits of stability. Their research bridges fundamental nuclear physics with applications in astrophysics and nuclear technology. Research environment: Primary affiliation with GSI Helmholtzzentrum für Schwerionenforschung GmbH Key contributor to the R3B experiment Participant in FAIR Phase-0 activities Collaborations with universities and research centers worldwide

• Nuclear Reactions
• Elastic Scattering
• Heavy-Ion Physics
• +3 more

Dr. K. Yue is a nuclear physicist working at GSI Helmholtzzentrum für Schwerionenforschung in Darmstadt, Germany, with research collaborations at the HIRFL-CSR facility in China. As a member of the Nuclear Physics Division, Dr. Yue specializes in experimental studies of nuclear reactions using heavy-ion storage ring technology. Dr. Yue's research focuses on elastic scattering experiments, particularly with nickel isotopes, to investigate nuclear structure properties and ionization processes. Their work involves developing and implementing in-ring measurement techniques that allow for precise determination of nuclear reaction cross-sections and matter radii. The publication record shows consistent contributions to the field of storage ring nuclear physics, with several first-author and co-author papers in reputable journals like Physical Review C. The research demonstrates expertise in experimental design, data acquisition, and analysis of nuclear reaction data from storage ring facilities. Dr. Yue's work represents an important contribution to the international effort in advancing storage ring-based nuclear physics research, with implications for understanding fundamental nuclear properties and developing applications in related fields.

• Atomic Physics
• Nuclear Physics
• Ion-Atom Collisions
• +3 more

R. D. DuBois is a researcher at GSI Helmholtzzentrum für Schwerionenforschung specializing in atomic collision physics and accelerator science. His work primarily investigates: Electron emission mechanisms in heavy ion-atom collisions Beam dynamics and lifetime optimization in storage rings Charge state evolution of relativistic ions Cross-section measurements for ionization processes He has made significant contributions to understanding electron loss phenomena using uranium, argon, and xenon ion beams at energies of 0.74-1.4 MeV/u. His collaborative research appears in high-impact journals including Physical Review A and Nuclear Instruments and Methods in Physics Research .

• Nuclear Structure
• Gamma-ray Spectroscopy
• Nuclear Isomers
• +3 more

Dr. P. M. Walker is a researcher in the Nuclear Physics Department at GSI Helmholtz Centre for Heavy Ion Research in Darmstadt, Germany. His work focuses on nuclear structure physics, particularly the study of high-spin states, nuclear isomers, and decay processes in heavy, neutron-rich nuclei. Dr. Walker's research primarily investigates multi-quasiparticle configurations in heavy elements such as tantalum, tungsten, and rhenium isotopes. His recent work has examined isomeric decay in neutron-rich odd-odd 186 Ta, direct observation of β and γ decay from high-spin isomers in 187 Ta, and multi-quasiparticle states in 178 W. These studies utilize advanced gamma-ray spectroscopy techniques with LaBr 3 (Ce) scintillators and germanium detectors. His publication record shows consistent contributions to the field, with recent papers published in Physical Review C and Physical Review Letters. The research demonstrates expertise in measuring sub-nanosecond half-lives using the centroid shift method and working with experimental setups like DESPEC at FAIR Phase-0. Dr. Walker collaborates extensively with international research teams across Europe and Japan, contributing to major experimental campaigns that advance our understanding of nuclear structure at the limits of stability. His work has significant implications for nuclear astrophysics and testing theoretical models of nuclear structure in exotic nuclei.

• Superheavy Element Discovery
• Nuclear Physics
• Heavy Ion Collisions
• +2 more

Dr. S. N. Dmitriev is a nuclear physicist affiliated with GSI Helmholtz Centre for Heavy Ion Research in Darmstadt, Germany. His research focuses on superheavy element discovery and nuclear reaction studies, with significant contributions to the IUPAC/IUPAP reports that validate new elements for the periodic table. Dr. Dmitriev's work bridges nuclear physics and chemistry, particularly in the area of superheavy elements where properties straddle both disciplines. His research includes studies of nuclear reaction dynamics, as demonstrated in his 2014 publication on shell effects in damped collisions of heavy ions at Coulomb barrier energies. His most recent contributions in 2020 represent ongoing research activity in the field of element discovery. His publication record shows sustained research contributions spanning from at least 2014 to 2020, with work appearing in reputable journals including Pure and Applied Chemistry and Physical Review C. Dr. Dmitriev collaborates with an international network of researchers through his involvement in IUPAC activities and conference presentations. While specific educational background and awards aren't detailed in the available information, Dr. Dmitriev's contributions to the official validation process for newly discovered chemical elements demonstrate his standing in the nuclear physics community. His research plays a crucial role in expanding our understanding of the periodic table and nuclear structure at the limits of stability.