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Maryam JahanView profile

Assistant Professor

• Renewable Energy Catalysts
• Biomaterials in Composite Engineering
• Multifunctional Carbon Fiber Composites
• +3 more

Dr. Maryam Jahan is an Assistant Professor in the Department of Chemistry at Southern University. She earned her Bachelor's Degree from Sharif University of Technology (2001), Master's Degree from Shahid Beheshti University (2004), and Ph.D. from the National University of Singapore (2013). Her teaching responsibilities include General Chemistry (SCHE 100B/LB, 133LB), Inorganic Chemistry (CHEM 440B/443B), and Environmental Chemistry (CHEM 438B). Education: Sharif University of Technology (BSc), Shahid Beheshti University (MSc), National University of Singapore (PhD) Dr. Jahan's research focuses on: Development of low-cost, eco-friendly catalysts for oxygen evolution/reduction reactions (OER/ORR) using biomass like coconut shells Improving mechanical properties of carbon fiber composites with biodegradable fillers Creating multifunctional materials for aerospace/automotive applications with electromagnetic interference shielding and thermal stability Her recent publications highlight innovative approaches to sustainable materials, including bi-functional catalysts from agricultural waste (2022), 3D-printed regolith composites for extraterrestrial use (2024), and radiation shielding composites (2024). While no formal awards are mentioned in the provided text, her work demonstrates strong emphasis on green chemistry and materials engineering.

Jonas KartheinView profile

Assistant Professor

• Nuclear Structure
• Nuclear Theory
• Quantum Sensing
• +7 more

Jonas Karthein is an Assistant Professor at the Department of Physics and the Cyclotron Institute of Texas A&M University. His research focuses on experimental nuclear physics, leveraging atomic/molecular/optical (AMO) techniques to study stable and radioactive atoms and molecules for exploring fundamental symmetries in physics. Research Areas: Nuclear structure, electroweak effects, parity violation, nuclear anapole moments, dark matter/energy, nuclear electric dipole moments (EDM), precision laser spectroscopy, ion trapping, and quantum sensing. Affiliations: Texas A&M University (current), MIT (collaboration), FRIB (U.S. Facility for Rare Isotope Beams), CERN/ISOLDE (European facility). Experimental Focus: Karthein’s lab develops ultra-sensitive laser spectroscopy methods in ion traps to investigate symmetry-violating nuclear effects using radioactive molecules. His work has implications for nuclear physics, quantum chemistry, astrophysics, and medical isotope applications. Publications: His recent studies include electromagnetic properties of indium isotopes, electroweak effects in Penning trap molecular ions, nuclear charge radii of silicon isotopes, and fundamental physics research with radioactive molecules. These studies emphasize parity violation, dark matter, and nuclear EDMs. Scientific Recognition: His 2025 publication in Phys. Rev. C was designated an Editor's Suggestion , highlighting its significance. Lab Development: The Karthein Lab at Texas A&M is establishing a dedicated facility for quantum sensing of radioactive molecules, with collaborations at MIT, FRIB, and CERN/ISOLDE.

Michael FebbraroView profile

Assistant Professor

• Experimental Nuclear Physics
• Radiation Detection
• Scintillating Materials
• +3 more

Dr. Michael Febbraro is a Research Assistant Professor of Nuclear Engineering at the Air Force Institute of Technology (AFIT), Department of Engineering Physics. He holds a PhD in Applied Physics (Nuclear Focus) from the University of Michigan (2014) and a B.S. in Nuclear Engineering from the same institution (2011). His postdoctoral work at Oak Ridge National Laboratory (ORNL) led to staff scientist status in 2017, where he spearheaded research in experimental nuclear physics, neutrino physics, and quantum sensing. He joined AFIT in 2023. Research Interests: Experimental nuclear physics Radiation detection technologies Scintillating materials development Dark matter detection Neutron spectroscopy Nuclear applications for national security Awards & Patents: Joule Award (U.S. Department of Energy, 2017) US Patent 10234575 (2019): Directional-neutron detector US Patent 10422042 (2019): Metal coating compositions Three invention disclosures at ORNL (2017) Key Contributions: Advancements in deuterated stilbene and liquid scintillator detectors COHERENT collaboration (first observation of coherent neutrino-nucleus scattering) Development of boron-loaded scintillators and 3D-printable plastic detectors Labs & Collaborations: Active in COHERENT, PROSPECT, and LEGEND collaborations. Leader of the ORNL Deuterated Spectroscopic Array (ODeSA) and SABRE detector projects.

Hielke Freerk BoersmaView profile

Researcher

• Radiation Protection
• Nuclear Science & Technology
• Environmental Studies
• +3 more

Dr. Hielke Freerk Boersma is a Radiation Protection Expert at the University of Groningen (RUG), affiliated with the Arbo en Milieudienst (AMD) and leading the Radiation Protection Unit (SBE). He coordinates radiation protection courses through the Groningen Academy for Radiation Protection (GARP), which serves RUG, UMCG, Hanzehogeschool, and external organizations. His roles include: Head of GARP & Radiation Protection Unit NVS Chapter Coordinator for Suriname/Dutch Caribbean Member of IRPA Executive Council (International Radiation Protection Association) National Contact Point for EUTERP (European radiation protection training) Research focuses on radiation protection infrastructure, nuclear physics, and environmental radiation safety. He teaches radiation safety courses integrated into biomedical engineering and radioisotope programs. Notable administrative roles include: Refresher Committee Member (NVS) BEBO Foundation Ethics Advisor NRG Continuing Education Committee Member His research spans nuclear matter theory, superheavy nuclei calculations, and environmental acoustics. He has published in Journal of Radiological Protection and Physical Review C , addressing challenges in radiation protection for developing countries and nuclear structure dynamics.

• Nuclear Physics
• Particle Physics
• Theoretical Astrophysics
• +2 more

Kenichiro Arita serves as Professor at Nagoya Institute of Technology's Department of Fundamental Study and Center for Research and Development in Higher Engineering-Education. His academic career spans theoretical nuclear physics with emphasis on semiclassical methods for nuclear structure and fission dynamics since joining Nagoya after positions at Kyoto University and University of Regensburg. Education background: Doctor of Science, Graduate School of Natural Science, Kyoto University (1995) Master of Science, Graduate School of Natural Science, Kyoto University Bachelor of Science, Faculty of Science, Kyoto University (1990) Professor Arita's research centers on semiclassical periodic-orbit theory applications to nuclear phenomena. His work reveals quantum-classical connections in nuclear deformations (octupole, tetrahedral), fission fragment shell effects, and bifurcation dynamics. Key contributions include establishing semiclassical origins of asymmetric fission and exotic nuclear shapes through periodic orbit bifurcations, bridging nuclear structure with mathematical physics and quantum chaos. Article trends show sustained focus on nuclear deformation mechanisms (2023-2025 octupole studies), fragment shell effects in fission (2018-2020), and theoretical extensions to bifurcation regions (2008-2017). His 2025 spin-orbit coupling work demonstrates ongoing innovation in semiclassical frameworks for quantum systems. Scientific recognition includes: Special Researcher, Japan Society for the Promotion of Science (1996) Research leadership includes the 2016 cooperative project on prefragment deformation in nuclear fission. Earlier proposals (1993, 1997) on periodic-orbit theory extensions were submitted but not selected. While specific advisees aren't listed, his textbooks indicate active graduate education involvement. Current institutional engagement centers on Nagoya's Center for Research and Development in Higher Engineering-Education, continuing international collaborations established during his Regensburg tenure and Kyoto University affiliations.

Chibueze AmanchukwuView profile

Assistant Professor

• Electrochemistry
• Energy Storage
• Battery Technology
• +4 more

Chibueze Amanchukwu serves as Assistant Professor at the Pritzker School of Molecular Engineering, University of Chicago, where he leads the Amanchukwu Lab focused on electrolyte design for sustainable energy technologies. His research integrates experimental and computational approaches to address critical challenges in battery systems and electrocatalytic CO 2 conversion, with significant contributions to fluorinated electrolytes, solid-state systems, and AI-driven materials discovery. His educational background includes: PhD in Chemical Engineering from Massachusetts Institute of Technology B.S. in Chemical Engineering from Texas A&M University Dr. Amanchukwu's research program centers on manipulating ion solvation phenomena to control electrochemical processes. His group pioneers strategies for converting CO 2 into valuable chemicals using renewable energy, while simultaneously developing next-generation electrolytes for high-energy-density batteries. Key innovations include solvent-free molten salt electrolytes, PFAS-free alternatives, and AI-accelerated electrolyte property prediction. His work bridges fundamental interfacial science with practical applications in decarbonization and energy storage. Analysis of his publication record reveals a clear trajectory toward integrating machine learning with experimental electrolyte science, particularly for ionic conductivity prediction and novel material discovery. Recent work emphasizes environmentally sustainable alternatives and solvent-free systems that address safety and performance limitations in conventional battery technologies. His scientific recognition includes: NSF CAREER Award (2022) ECS Toyota Young Investigator Fellowship (2021) DOE Early Career Award (2023) MIT Technology Review Innovators under 35 (2024) CIFAR Azrieli Global Scholar (2022-2024) Dr. Amanchukwu actively mentors PhD students, having graduated three doctoral candidates while supervising numerous undergraduates and postdoctoral scholars. His lab secures substantial funding including the NSF CAREER Award and DOE Early Career Award, supporting both fundamental research and impactful outreach initiatives like the RENEU program for Nigerian undergraduates. The group maintains strong collaborations with Argonne National Laboratory and industry partners including BASF and BMW. The Amanchukwu Lab operates advanced facilities for battery fabrication, electrocatalysis testing, and materials characterization. Through the RENEU program and US-Nigeria PhD workshops, the lab actively builds international research capacity while maintaining strong community engagement through Museum of Science and Industry events and Chicago-area STEM initiatives.

• Symmetry theory in physics
• Algebraic models of physical systems
• Nuclear physics
• +3 more

Professor Andrzej Góźdź is a distinguished theoretical physicist at the Department of Theoretical Physics, Institute of Physics, Faculty of Mathematics, Physics and Computer Science at Maria Curie-Skłodowska University (UMCS) in Lublin, Poland. He holds a professorship and conducts research primarily in symmetry theory in physics, algebraic models of physical systems, nuclear theory, and quantum gravity. His academic contributions span several decades with numerous publications in prestigious physics journals. Professor Góźdź's research focuses on fundamental aspects of theoretical physics, particularly symmetry theory in nuclear and quantum systems. He investigates algebraic models of physical systems, the theory of the atomic nucleus, quantum gravity, and the foundations of quantum mechanics with special emphasis on quantum time. His work often bridges mathematical physics with practical applications in nuclear structure and quantum phenomena. The professor frequently collaborates with international research groups, as evidenced by his extensive publication record with colleagues from various countries. Analysis of Professor Góźdź's recent publications (2017-2019) reveals a consistent research trajectory focused on symmetry applications in nuclear physics, quantum mechanical foundations, and computational methods. His work demonstrates a strong emphasis on group theory applications to nuclear structure, particularly exploring high-rank symmetries in nuclei. Several publications address quantum time and delayed choice phenomena, reflecting his interest in foundational quantum mechanics questions. The professor also contributes significantly to computational physics, developing symbolic-numerical algorithms for solving complex boundary-value problems in nuclear and atomic physics. h-index (Web of Science): 14 h-index (Google Scholar): 4 h-index (Scopus): 3 Total publications: 124 As an academic supervisor, Professor Góźdź maintains regular consultation hours (Mondays 10:00-12:00 and Tuesdays 8:00-9:00; 12:00-13:00) and likely mentors graduate students in theoretical physics. His research activities involve participation in national and international grants focused on theoretical nuclear physics and quantum mechanics. Professor Góźdź is part of specialized research teams at UMCS exploring symmetry applications in nuclear structure. His collaborations with researchers like A. Pędrak, A. Dobrowolski, and international colleagues (particularly from Russia and France) indicate involvement in interdisciplinary teams combining theoretical physics with computational approaches.

Lachie ScarsbrookView profile

Research Fellow

• Ancient DNA
• Domestication
• Population Genomics
• +2 more

Lachie Scarsbrook is a Postdoctoral Researcher at Ludwig Maximilian University of Munich and Fulford Junior Research Fellow at Somerville College, University of Oxford. His research integrates ancient DNA with morphometric analyses to investigate human-environment impacts on animal populations, focusing on New Zealand's extinct fauna and 20,000 years of dog domestication history. His academic background includes a DPhil in Archaeological Science from the University of Oxford (2021-2024) as a Clarendon Scholar, an MSc in Zoology from the University of Otago (2019-2021), and a BSc in Geology and Zoology from the University of Otago (2015-2018). Scarsbrook's research centers on Ancient DNA, Domestication, Population Genomics, Phylogenetics, and Conservation. He pioneered genomic characterization of New Zealand's extinct geckos—including describing a new species with Te Āti Awa iwi—and reconstructs dog evolutionary history through coevolutionary patterns and artificial selection impacts. His work bridges archaeology, genetics, and indigenous knowledge systems. Publication analysis reveals consistent application of paleogenomic techniques across diverse taxa: geckos, fish, birds, and dogs. Key themes include nuclear genome imputation, minimally destructive DNA extraction, and investigating anthropogenic extinction drivers. Recent work emphasizes dog-human coevolution and artificial selection consequences over two centuries. His accolades include the Clarendon Scholarship and Fulford Junior Research Fellowship. Current research is DFG-funded, continuing his Oxford DPhil work on dog domestication. As part of the Wellcome Trust Palaeogenomics and Bio-Archaeology Research Network, Scarsbrook collaborates with interdisciplinary teams including Māori iwi, conservation biologists, and archaeologists to advance methods in ancient DNA analysis and extinct biodiversity reconstruction.

• Theoretical Chemistry
• Quantum Chemistry
• Computational Chemistry
• +6 more

Yoshifumi Nishimura is an Assistant Professor at Waseda University’s Research Institute for Science and Engineering and concurrently serves in Tokyo University of Science’s Faculty of Science, Division of Applied Chemistry. He completed both his bachelor’s (2008) and doctoral degrees (2013) in chemistry at Nagoya University, followed by post-doctoral research at National Chiao Tung University, Taiwan, and a project-researcher position at the Institute for Molecular Science. Education: Doctor of Science, Nagoya University, 2013 Bachelor of Science, Nagoya University, 2008 Research Interests: Nishimura develops linear-scaling quantum chemical methodologies, especially the divide-and-conquer density-functional tight-binding (DC-DFTB) approach, enabling million-atom simulations on supercomputers. His work spans proton-transfer dynamics in water, ice and proteins, CO₂ absorption chemistry, battery electrolytes, photochemical events in retinal proteins, and growth mechanisms of carbon nanotubes and graphene nanoribbons. Awards: CSJ Presentation Award, Chemical Society of Japan, 2017 President’s Award, Nagoya University, 2008 Software & Leadership: He is the lead developer of the open-source DCDFTBMD package, which has been optimised for the K-computer and Fugaku, and he serves on the editorial committee of the 分子シミュレーション学会 journal “アンサンブル” and on organising committees of domestic theoretical-chemistry conferences.

• Nuclear Physics
• Nuclear Astrophysics
• Mass Spectrometry
• +2 more

Anu Kankainen is a full-time Professor at the Department of Physics, University of Jyväskylä, where she leads research on nuclear structure and astrophysics. She previously held roles as Associate Professor and Senior Lecturer in the same department. Her work centers on the IGISOL facility, focusing on nuclear mass measurements to understand stellar nucleosynthesis. Her research explores nuclear structure , exotic nuclei , and nuclear astrophysics , with emphasis on precision mass spectrometry for modeling elemental origins in the universe. Key methodologies include Penning-trap techniques and decay spectroscopy. Recent publications (2025) predominantly investigate nuclear masses, isomers, and decay mechanisms using advanced instrumentation. Trends include high-precision measurements of silver isotopes, fission dynamics, and novel detector development like the HIBISCUS cooler-buncher. Projects as Principal Investigator include: Heavy Exotic Nuclei for Nuclear Astrophysics (Research Council of Finland, 2023–2027) Nuclear structure studies by mass spectrometry (Research Council of Finland, 2022–2024) Euroschool on Exotic Beams (KU Leuven, 2024) She also contributes to team projects like Addressing PRiorities of Evaluated Nuclear Data in Europe (EU, 2024–2028). She leads experiments at the Accelerator Laboratory (JYFL-ACCLAB) and mentors researchers in nuclear spectroscopy techniques.

Hans-Hermann RitzeView profile

Researcher

• Theoretical Chemistry
• Ultrafast Spectroscopy
• Quantum Dynamics
• +3 more

Dr. Hans-Hermann Ritze is a theoretical researcher at the Max Born Institute for Nonlinear Optics and Short Pulse Spectroscopy (MBI) in Berlin, Germany, where he leads the Attosecond Theory Group (T1) from House A, room 2.09. Contact is available via hans-hermann.ritze@mbi-berlin.de or +49 30 6392 1239. His work bridges quantum chemistry and ultrafast laser physics with experimental collaborators. His research centers on theoretical modeling of excited-state dynamics in biomolecules and nanostructures using attosecond spectroscopy techniques. Key focus areas include hydration effects on DNA base photostability (thymine, guanosine, adenine), proton transfer mechanisms, and fragmentation dynamics under intense laser fields. He integrates quantum simulations with time-resolved photoelectron spectroscopy to unravel non-adiabatic processes at femtosecond timescales. Analysis of his 2009-2015 publications reveals consistent investigation of photophysical relaxation pathways in aqueous environments, particularly how solvent interactions modulate excited-state lifetimes in nucleobases. His group specializes in simulating liquid-jet photoelectron spectra and modeling laser-induced dynamics in clusters like hydrated adenine and C60 fullerenes. Dr. Ritze has no listed scientific awards in the provided materials. While student advising isn't documented, his collaborative publications span multiple institutions including Fritz Haber Institute and University of Tokyo. He directs the Attosecond Theory Group at MBI, focusing on computational frameworks for electron-nuclear dynamics in photoionization and dissociation processes.

• Atomic Force Microscopy
• Soft Matter Biophysics
• Nanoscale Interface Dynamics
• +3 more

Luca Costa is a CNRS Research Scientist at the Centre de Biochimie Structurale (Montpellier, France), specializing in nanoscale biophysics. His research develops novel atomic force microscopy (AFM) methodologies to study biological membranes, soft matter interfaces, and molecular assemblies. With expertise spanning instrumentation physics, biochemistry, and cell biology, he pioneers correlative imaging techniques combining AFM with synchrotron X-ray methods and fluorescence microscopy. His core research investigates: Nanomechanics of lipid bilayers and cellular membranes Real-time dynamics at liquid-liquid interfaces Phase separation in biomolecular condensates Instrumental development for high-resolution in situ imaging Recent publications emphasize membrane remodeling, nuclear pore mechanics, and advanced AFM-XRF integration, with consistent focus on quantitative nanoscale biophysics. Awards include the XFEL Young Scientist Bursary (2015). Major grants support his work: ANR SLAM-AFM (2025-2027): Synchrotron-compatible AFM development ANR DECIDE/PROSPERO (2022-2025): Membrane dynamics studies EU MagCell (2020-2021): Magnetic nanoparticle applications He leads the Integrative Biophysics of Membranes lab, developing specialized AFM platforms for biological interfaces.

• Atomic Physics
• Nuclear Physics
• Plasma Physics
• +4 more

Dr. Roshani Silwal serves as an Assistant Professor in the Department of Physics and Astronomy at Appalachian State University, where she leads experimental research at the intersection of atomic, nuclear, and plasma physics. Her academic journey includes: Postdoctoral Fellowship at TRIUMF, Canada (2020) PhD in Physics from Clemson University, USA (2018) MS in Physics from St. Xavier’s Campus, Tribhuvan University, Nepal (2012) BS in Physics from St. Xavier’s Campus, Tribhuvan University, Nepal (2008) Dr. Silwal's research focuses on developing ion trapping techniques for highly charged ions and applying precision atomic spectroscopy to solve fundamental and applied problems. Her work spans nuclear physics through isotope shift measurements that probe nuclear charge radii, plasma diagnostics for fusion energy and astrophysical applications, and radiation physics for medical therapy development. She specializes in extreme ultraviolet and x-ray spectroscopy of exotic atomic systems, using these measurements to test quantum electrodynamics and atomic models while developing practical diagnostic tools. Her publication record from 2017-2022 reveals consistent contributions to high-impact journals, with research clusters in precision mass spectrometry of exotic nuclides, dielectronic recombination studies for plasma diagnostics, and nuclear charge radius measurements using highly charged ions. These works demonstrate strong international collaboration patterns and facility utilization at major research centers. Dr. Silwal actively mentors students in experimental atomic physics, providing hands-on training with advanced instrumentation including electron beam ion traps and precision spectroscopy systems. Her research program integrates students into national collaborations while addressing challenges in fusion energy diagnostics, astrophysical plasma interpretation, and medical radiation applications. Her laboratory work centers on ion manipulation techniques and precision spectroscopy, with research groups typically engaging in vacuum system operation, laser spectroscopy, and data analysis for atomic physics experiments. Current projects focus on developing diagnostic tools for next-generation fusion reactors and advancing precision measurement techniques for nuclear structure studies.

• Nuclear structure physics
• Exotic nuclei
• Nuclear radii measurements
• +5 more

Dr. Kanungo R. is a prominent researcher at GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany, actively contributing to the field of nuclear structure physics through the NUSTAR (Nuclear Structure, Astrophysics and Reactions) collaboration at FAIR. His research program focuses on experimental investigations of exotic nuclei, particularly neutron-rich isotopes, using advanced accelerator facilities and detection systems. Dr. Kanungo's research interests center on nuclear structure far from stability, with particular emphasis on measuring proton and neutron distribution radii in exotic nuclei. His work examines neutron skin phenomena, nuclear shell evolution in exotic systems, and halo nuclei structures. By analyzing charge-changing cross sections of neutron-rich isotopes, he has made significant contributions to understanding how nuclear structure changes with extreme neutron-to-proton ratios. The publication record shows a consistent output of high-impact research in leading nuclear physics journals, with recent work focusing on oxygen, nitrogen, and fluorine isotopes. His research has revealed unexpected phenomena like thick neutron skin in doubly magic oxygen isotopes and provided evidence for tensor interactions influencing nuclear structure through precise proton radius measurements. Active contributor to the NUSTAR collaboration at FAIR Specializes in charge-changing cross section measurements Focuses on proton distribution radii in exotic nuclei Studies neutron skin and halo nuclei phenomena Investigates nuclear shell evolution far from stability Dr. Kanungo's experimental work provides critical data for testing and refining nuclear models under extreme conditions. His findings on shell closures at N=14 and 16 in oxygen isotopes and the two-neutron halo structure in 29F have advanced our understanding of nuclear structure in regions far from stability. His ongoing research continues to address fundamental questions about nuclear forces and the limits of nuclear existence.

• Nuclear Structure Physics
• Nuclear Radii Measurements
• Neutron Skin Studies
• +2 more

Dr. W. Horiuchi is a nuclear physicist affiliated with GSI Helmholtzzentrum für Schwerionenforschung GmbH in Darmstadt, Germany, where he conducts research on nuclear structure physics. His work focuses on measuring proton distribution radii in exotic, neutron-rich nuclei to investigate fundamental nuclear properties including neutron skins, shell closures, and nuclear matter distributions. Dr. Horiuchi's research primarily examines isotopes of oxygen, nitrogen, and carbon using charge-changing cross section measurements at high energies. His publications in prestigious journals like Physical Review Letters demonstrate significant contributions to understanding nuclear structure phenomena in exotic nuclei, including evidence of thick neutron skins in doubly magic oxygen isotopes and signatures of shell closures at N=14 and N=16. His work combines experimental measurements with theoretical frameworks to extract nuclear matter distributions and test models of nuclear forces under extreme neutron-proton asymmetry conditions. The research has important implications for nuclear theory and astrophysical processes involving neutron-rich matter. Dr. Horiuchi has maintained an active publication record from 2016 to 2022, collaborating with researchers including Kanungo, R., Bagchi, S., and Suzuki, Y. on multiple significant studies in nuclear structure physics. His research contributes to the broader understanding of nuclear structure in exotic nuclei, providing critical experimental data that helps refine theoretical models of nuclear forces and structure in regions far from stability.