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Mihai HoroiView profile

Professor

• Nuclear Structure
• Theoretical Nuclear Physics
• Computational Quantum Many-Body Systems
• +9 more

Mihai Horoi is a Professor in the Department of Physics at Central Michigan University, under the College of Science & Technology. He holds a Ph.D. in Physics and an M.S. in Computer Science, and has over 20 years of experience in research and teaching in theoretical nuclear physics and high-performance computing. Department: Department of Physics School: College of Science & Technology University: Central Michigan University Office: Dow 212 Email: horoi@cmich.edu His educational background includes a Ph.D. in Physics from the Institute of Atomic Physics, Bucharest (1990), an M.S. in Computer Science from Michigan State University (1997), and B.S./M.S. in Physics from the University of Bucharest (1979). Ph.D., Physics, Institute of Atomic Physics, Romania, 1990 M.S., Computer Science, Michigan State University, USA, 1997 M.S. and B.S., Physics, University of Bucharest, Romania, 1979 Dr. Horoi's research focuses on nuclear structure, quantum many-body systems, and computational methods. He specializes in large-scale shell model calculations, neutrinoless double-beta decay, shape coexistence in nuclei and clusters, and the development of high-performance computing algorithms. His work integrates physics and computer science to solve complex quantum problems. His recent publications reveal a strong focus on nuclear matrix elements for double-beta decay, center-of-mass corrections in nuclear models, coupled-cluster methods for heavy nuclei, and optimization algorithms for atomic cluster geometry. The research spans theoretical nuclear physics, computational physics, and materials science, reflecting interdisciplinary expertise in quantum systems and high-performance computing. Dr. Horoi has secured external funding from the National Science Foundation and the Department of Energy Office of Science. He has developed the CMichSM code for nuclear structure calculations and has extensive experience in software and hardware evaluation for scientific computing environments. Creator of CMichSM high-performance nuclear structure code Expertise in parallel processing and advanced networks Proven record in grant writing and research funding He has presented invited talks at international conferences such as "Neutrinos and Dark Matter 2015" in Finland and workshops at Michigan State University's NSCL/FRIB, highlighting his active engagement in the global nuclear physics community.

• Structural Analysis
• Composite Structures
• Morphing Structures
• +8 more

Dr. Matt O'Donnell is a Senior Lecturer in Structures and Composites at the University of the West of England (UWE), based in the Faculty of Engineering, Design and Mathematics (FET). He holds a PhD from the University of Bristol and is a Fellow of the Higher Education Academy (FHEA). His expertise spans structural analysis, composite materials, morphing structures, numerical methods, and analytical modeling. He collaborates with institutions like the Bristol Composites Institute (ACCIS), Bucknell University, and the Bernal Institute at the University of Limerick. Education: BSc in Mathematics and Physics (2007), University of Warwick G.Dip and MSc in Civil Engineering (2008–2009), University College London PhD in Composite Structures (2014), University of Bristol Research interests include developing hierarchical nonlinear materials, composite cure mechanics, compliant shell mechanisms, and topologically reconfigurable structures. His work integrates numerical methods, finite element analysis, and experimental validation. He has contributed to industry partnerships with Airbus, Hitachi Chemical Co., and EDF, focusing on applications like aerospace, biomedical devices, and nuclear safety. Scientific Awards: Fellow of the Higher Education Academy (2019) Teaching and Grants: He teaches programming, structural analysis, and numerical methods. His research has been supported by grants from the HiPerDuCT program and collaborations with industrial partners. He is currently open to PhD students in his research areas. Labs/Teams: Active collaborations with Bristol Composites Institute, Bucknell University's engineering department, and the Bernal Institute’s materials science team.

• Nuclear Reaction Dynamics
• Nuclear Fusion
• Nuclear Fission
• +5 more

Dr. Kaitlin Cook is a Senior Fellow in the Department of Nuclear Physics & Accelerator Applications at the Australian National University (ANU), where she conducts research as part of the Nuclear Reaction Dynamics Group. Her work focuses on understanding the fundamental processes of nuclear reactions, particularly in the context of heavy element synthesis and nuclear structure. Dr. Cook's research spans multiple areas of nuclear physics, with particular emphasis on nuclear fusion, fission dynamics, and superheavy element synthesis. Her work investigates how quantum effects, nuclear structure, and reaction dynamics influence the formation and decay of heavy atomic nuclei. She employs both experimental techniques and theoretical modeling to explore phenomena such as quasifission, mass equilibration, and shell effects in heavy ion collisions. Her research has significant implications for understanding nucleosynthesis in astrophysical environments and the limits of nuclear stability. Analysis of Dr. Cook's recent publications reveals a consistent focus on the dynamics of heavy ion collisions and the formation of superheavy elements. Her work frequently examines how nuclear shell structure influences reaction outcomes, particularly in the context of quasifission and fusion-fission processes. She has made significant contributions to understanding the role of angular momentum, mass asymmetry, and reaction timescales in determining the pathways of nuclear reactions. Her research often involves collaborations with international teams using advanced experimental facilities. Dr. Cook is actively involved in advising students and junior researchers through her participation in the Nuclear Reaction Dynamics Group at ANU. She contributes to experimental programs that utilize particle accelerators to investigate nuclear reaction mechanisms across a range of energy scales. Her work supports broader efforts to understand nuclear structure and reaction dynamics, with potential applications in nuclear energy, astrophysics, and fundamental science. Within the Nuclear Reaction Dynamics Group at ANU, Dr. Cook collaborates with leading researchers including David Hinde, Mahananda Dasgupta, Cedric Simenel, and Elizabeth Williams. Her experimental work often utilizes the Heavy Ion Accelerator Facility at ANU, which provides capabilities for investigating nuclear reactions with a variety of ion beams and targets. This infrastructure enables detailed studies of reaction mechanisms from near-barrier energies to higher energy regimes relevant for superheavy element synthesis.

Ivica PicekView profile

Professor

• Particle Physics
• Cosmology
• Quantum Field Theory
• +3 more

Ivica Picek is a Full Professor at the Faculty of Science, University of Zagreb, affiliated with the Theoretical Physics Division of Particles and Fields. His primary research focuses on particle physics and cosmology, with significant contributions to understanding CP violation, kaon decays, quantum chromodynamics, and the interface between particle physics and cosmology. His research interests span several key areas in theoretical physics: Elementary particle physics and the Standard Model CP violation mechanisms in particle decays Quantum chromodynamics in both perturbative and non-perturbative regimes Cosmological models connecting particle physics to the early universe Neutrino interactions and physics beyond the Standard Model Professor Picek's publications demonstrate a consistent focus on kaon physics, particularly rare decay processes like K L → π 0 γγ, where he has investigated both short-distance and long-distance QCD effects. His recent work frequently explores the role of quantum anomalies, instanton contributions, and radiative corrections in particle interactions. The publication trend shows increasing attention to precision tests of the Standard Model through rare decays and neutrino interactions. He has supervised several students in particle physics research, including I. Puljak, I. Furic, and D. Horvatić. His teaching responsibilities include courses on Elementary Particle Physics and Physical Cosmology at both undergraduate and graduate levels.

Wilfried NörtershäuserView profile

Professor

• Experimental Atomic Physics
• Nuclear Physics
• Radioactive Nuclides
• +4 more

Professor Wilfried Nörtershäuser is a University Professor for Experimental Atomic and Nuclear Physics of Radioactive Nuclides at the Faculty of Physics, Technische Universität Darmstadt. He leads the LaserSpHERe research group focusing on precision experiments at the interface of atomic, nuclear, and particle physics. His work involves conducting experiments at major international facilities including GSI/FAIR, CERN, FRIB, and ANL, while also operating the Collinear Apparatus for Laser Spectroscopy and Applied Physics (KOALA) at TU Darmstadt's Institute of Nuclear Physics. His educational background includes Physics studies (1990-1995) and Doctor rerum naturalium in Physics (1999, magna cum laude) from Johannes Gutenberg-Universität Mainz. He held postdoctoral positions at Pacific Northwest National Laboratory (1999-2000) and Eberhard Karls-Universität Tübingen (2000-2005), followed by leadership of a Helmholtz Young Investigator Group at Johannes Gutenberg-Universität Mainz & GSI (2005-2011). He was appointed Junior Professor at Johannes Gutenberg-Universität in 2009, reappointed in 2012, and became University Professor at TU Darmstadt in 2012. Nörtershäuser's research centers on laser spectroscopy of radioactive nuclides and highly charged ions to investigate nuclear structure, fundamental symmetries, and precision measurements. His work particularly focuses on nuclear charge radii determinations across the nuclear chart, from light isotopes like lithium and beryllium to heavy elements like bismuth. Recent work includes high-precision measurements of helium-like carbon ions and hydrogen-like bismuth-208, with significant findings recognized by a Nature Physics "News and views" article. His research publications demonstrate consistent focus on nuclear charge radii, exotic nuclei, laser spectroscopy techniques, and tests of fundamental physics. The trend shows increasing sophistication in measuring increasingly exotic systems, with particular emphasis on helium-like ions and storage ring applications. His work bridges atomic and nuclear physics through precision measurements that test quantum electrodynamics in strong fields and probe nuclear structure effects. Pacific Northwest National Laboratory Postdoctoral Fellowship DAAD Foreign Exchange Scholarship Scholarship of the German National Academic Foundation Recognition with Nature Physics "News and views" article for Bi-208 hyperfine structure measurement Professor Nörtershäuser has secured significant research funding including roles as Principal Investigator for DFG SFB 1245 and Program Director for APPA at Helmholtz Research Academy Hesse for FAIR (HFHF). He has supervised numerous theses as evidenced by the "Finished Theses" section on his research group website. His leadership extends to international collaborations including serving as German Representative in the ISOLDE Collaboration Committee and as Co-Spokesperson for the LASPEC Collaboration. The LaserSpHERe group operates the KOALA facility at TU Darmstadt while maintaining strong ties to major international facilities. The research team participates in multiple large-scale collaborations including the PRISMA Excellence Cluster, LASPEC Collaboration, and DFG SFB 1245. Current research directions focus on advancing laser spectroscopy techniques for increasingly exotic nuclear systems and pushing precision measurements to test fundamental physics principles.

• Gamma-ray spectroscopy and imaging
• Nuclear physics
• Medical physics
• +6 more

Professor Laura Harkness is a distinguished Professor in the Department of Physics at the University of Liverpool and serves as Associate pro-Vice Chancellor for Research and Impact for the Faculty of Science and Engineering. She has secured £36M in research funding as PI/CoI from UKRI and industry for R&D projects focused on next-generation instrumentation for gamma-ray spectroscopy and imaging. As a leader in international research collaborations, she has held key roles in the European AGATA nuclear physics project and chaired multiple external advisory boards and funding panels. Professor Harkness's research spans nuclear physics, medical physics, and radiation detector development. Her work focuses on gamma-ray spectroscopy and imaging, particularly through Compton camera systems, with applications in nuclear structure physics, cancer diagnosis, and nuclear decommissioning. She has pioneered techniques for sub-voxel resolution in semiconductor detectors and developed algorithms for gamma-ray interaction position extraction. Her research has led to significant advancements in molecular breast imaging and quantitative imaging in molecular radiotherapy, addressing clinical challenges in cancer diagnosis. Her publications demonstrate a strong focus on nuclear instrumentation, with particular emphasis on germanium detector technologies (HPGe, SIGMA, AGATA), CZT detectors for medical applications, and fundamental nuclear physics studies. The research shows a clear trajectory from fundamental detector development to clinical applications, particularly in cancer diagnosis technologies. European Physical Society Applied Nuclear Physics Prize (2024) Teacher of the Year – Faculty of Science and Engineering (University of Liverpool Guild of Students, 2017) Science Award - Highly Commended (Women of The Future, 2015) Very Early Career Award (Institute of Physics Women in Physics Group, 2010) Professor Harkness has supervised over 15 PhD students and leads the STFC Cancer Diagnosis Network+, a national research network bringing together physicists, clinicians, and industry partners to develop new cancer diagnosis technologies. She has secured substantial research funding, including £5M as PI and £31M as CoI, supporting projects ranging from detector development to clinical applications. Her leadership extends to international collaborations including the AGATA project and the Mu2e experiment at Fermilab. As coordinator of the AGATA Pulse Shape Analysis working group and leader of the UK AGATA programme, she oversees detector characterization and digital signal processing development. She also leads the STFC Cancer Diagnosis Network+, which has established a multidisciplinary community across 50 universities, companies and hospitals to translate STFC innovations into clinical impact for cancer diagnosis.

• Nuclear Physics
• Nuclear Structure
• Exotic Nuclei
• +7 more

Dr. Liam Gaffney is an STFC Ernest Rutherford Research Fellow in Nuclear Physics at the University of Manchester's School of Physics and Astronomy. His research focuses on the study of exotic nuclear shapes, particularly octupole-deformed ("pear-shaped") nuclei, using radioactive ion beam facilities including the ISOLDE facility at CERN. His research interests include: Octupole degree of freedom in nuclei Nuclear structure studies with radioactive ion beams Coulomb excitation experiments Gamma-ray and charged-particle spectroscopy Shape coexistence phenomena Electric dipole moment research Dr. Gaffney's publication record reveals a strong focus on nuclear shape studies, particularly in radium, radon, mercury, and lead isotopes. His recent work has explored octupole deformation across the nuclear chart, shape staggering effects, and the evolution of nuclear shell structure in exotic nuclei. His research combines experimental techniques with advanced theoretical analysis to understand the fundamental properties of atomic nuclei. His scientific achievements have been recognized through several prestigious awards: STFC Ernest Rutherford Fellowship (2019-2024) EU-CERN COFUND Marie Sklodowska-Curie Actions Fellowship (2016-2019) Pegasus Marie Sklodowska-Curie Actions Fellowship (2014) Nuclear Physics Group Prize (Early Career Award) from Institute of Physics (2013) Thesis Prize in Nuclear Physics from European Physical Society (2015) Tomasz Czosnyka Honorary Award from University of Warsaw (2017) Dr. Gaffney serves as a resource coordinator for the ISOLDE Solenoidal Spectrometer Collaboration and previously served as UK Representative on the ISOLDE Collaboration Committee. He is an active peer reviewer for major physics journals including Physical Review C, Physical Review Letters, and Physics Letters B. He teaches undergraduate nuclear physics modules (PHYS375, PHYS306, PHYS380) and supervises student theses on advanced nuclear structure topics.

• Nuclear Physics
• Atomic Nuclei
• Isospin Symmetry
• +7 more

Dr. Andrew Briscoe is a nuclear physicist actively contributing to research in atomic nuclei, particularly in neutron-deficient and heavy nuclei. His work involves studying nuclear deformation, isospin nonconservation, and high-spin spectroscopy, with recent publications (2024-2025) analyzing phenomena in isotopes like 184 Pb, 188 At, 167 Os, and 117 Cs. Research Focus: Nuclear structure, deformation, and symmetry breaking Methods: Experimental spectroscopy and theoretical modeling Key Tools: Gamma-ray detectors, isotope identification His recent publications reveal a trend in exploring competing nuclear shapes, proton emission mechanisms, and anomalies in yrast bands. Collaborative efforts with international teams are evident through co-authorship across institutions. Notable collaborations include work with researchers from the University of Jyväskylä (Finland), The University of Manchester (UK), and KU Leuven (Belgium). His contributions appear in journals like Physical Review C , Nature Communications , and Physics Letters B .

• Nuclear Astrophysics
• Gamma-ray Spectroscopy
• Transfer Reactions
• +3 more

Prof. Gavin Lotay is a Professor and Director of Research and Innovation at the University of Surrey's School of Mathematics and Physics, specializing in nuclear astrophysics. His research focuses on understanding element production in explosive astrophysical environments, particularly classical novae and X-ray bursts. He holds a MSci in Physics from the University of Birmingham (2004) and a PhD in Nuclear Physics from the University of Edinburgh (2009), followed by a Rutherford Fellowship in Nuclear Astrophysics. Key roles include Director of Learning and Teaching and leadership in experimental studies using advanced facilities like GRETINA and TRIUMF. Education: MSci Physics, University of Birmingham, 2004 PhD in Experimental Nuclear Physics, University of Edinburgh, 2009 Research Interests: Nuclear Astrophysics, Gamma-ray Spectroscopy, Direct Reaction Studies Explosive stellar phenomena modeling (e.g., novae, supernovae) Development of radioactive beam experiments and detector systems Key Achievements: First direct measurements of p-process reactions on radioactive nuclei Leadership in international collaborations at facilities like ANL and TRIUMF Advancements in understanding neutron source reactions for s-process nucleosynthesis His work bridges experimental nuclear physics and astrophysics, addressing critical uncertainties in element formation and cosmic gamma-ray emission. Ongoing efforts include exploiting next-generation facilities (e.g., FRIB) to study exotic nuclei and nucleosynthesis pathways in extreme stellar environments.

Eivind OsnesView profile

Professor

• Theoretical Nuclear Physics
• Nuclear Structure
• Shell Model Calculations
• +4 more

Eivind Osnes is a Professor in the Department of Physics at the University of Oslo, Norway, where he has held a faculty position since 1985. He previously served as Department Chair during two periods (1991-1997 and 2003-2008). His academic career began with a Docent position at the same institution in 1977. Osnes is a member of the Norwegian Academy of Science and Letters and was awarded the King's Medal of Merit in gold in 2009 for his contributions to theoretical nuclear physics. His primary research focuses on theoretical nuclear physics, particularly in the areas of nuclear structure, shell model calculations, and effective interactions. Osnes has made significant contributions to understanding nucleon-nucleon interactions, pairing correlations in nuclear systems, and the application of realistic effective interactions to various nuclear systems. His work spans from fundamental theoretical developments to practical applications in nuclear spectroscopy and the study of exotic nuclei, including extensive research on tin isotopes and doubly-magic nuclei like 100Sn. Analysis of Osnes' publication record spanning over four decades reveals consistent focus on developing and applying microscopic nuclear models. His research shows evolution from early work on particle-rotor models to sophisticated large-scale shell model calculations, particularly for tin isotopes and other regions near shell closures. A notable trend is his sustained collaboration with researchers like Morten Hjorth-Jensen and Torgeir Engeland, producing influential work on effective interactions and nuclear many-body theory that bridges fundamental physics with computational implementations. His scientific recognition includes: Member of the Norwegian Academy of Science and Letters King's Medal of Merit in gold (2009) While specific details about research grants and student supervision aren't explicitly documented in the provided materials, Osnes' extensive publication record with numerous collaborators suggests significant research leadership. His work has involved both theoretical developments and computational implementations that would typically require substantial research funding and student involvement in nuclear physics research. His long-standing position at the University of Oslo indicates deep integration within the institution's nuclear physics research environment, contributing to theoretical nuclear structure physics through both individual scholarship and collaborative efforts.

Jenna SmithView profile

Academic

• Physics Education
• Nuclear Physics
• Curriculum Design
• +3 more

Jenna Smith is an Associate Teaching Professor in the Department of Physics & Astronomy at the University of Notre Dame. She holds a PhD in nuclear physics from Michigan State University (2014) and a BS from Rhodes College (2009). Her research interests span curriculum design, teaching assistant training, faculty development, and integrating AI tools into education. She transitioned to full-time teaching in 2016 after a postdoctoral appointment at TRIUMF with the GRIFFIN/TIGRESS group. With over 50 peer-reviewed publications, her work focuses on neutron-unbound systems, beta decay spectroscopy, and gamma-ray correlation techniques. Education: PhD in Nuclear Physics, Michigan State University, 2014 BS in Physics, Rhodes College, 2009 Research Interests: Physics Education Innovation Curriculum Development Nuclear Spectroscopy (neutron-unbound states, beta decay) AI in Teaching and Assessment Her publications highlight collaborations with advanced facilities like GRIFFIN at TRIUMF, focusing on isotopes like calcium, indium, tin, and cadmium. Recent work explores quasiparticle configurations and Markov chain Monte Carlo methods in decay analysis. She directs the Engineering Physics labs and leads course transformation initiatives. Her teaching portfolio includes diverse audiences and institutions, emphasizing pedagogical innovation.

Otsuka TakaharuView profile

Professor

• Theoretical Nuclear Physics
• Nuclear Shell Model
• Nuclear Collective States
• +4 more

Takaharu Otsuka is a Professor in the Department of Physics at The University of Tokyo since 1997. He has held multiple leadership roles, including Chair of the Department of Physics (2008–2010), Director of the Center for Nuclear Study (2005–present), and Adjunct Professor at Michigan State University's National Superconducting Cyclotron Laboratory. He is also a Guest Professor at KU Leuven (2015–2019). His research focuses on theoretical nuclear physics, including nuclear shell models, collective states, exotic nuclei, and applications to nuclear technology such as radioactive waste management. Education: B.Sc. (1974), M.Sc. (1976), D.Sc. (1979), all from The University of Tokyo. Research interests span nuclear structure calculations using Monte Carlo Shell Model, quantum chaos, and interdisciplinary applications of nuclear physics. He has published 331 refereed papers with an h-index of 53 (Web of Science, 2023). Awards: Nishinomiya Yukawa Memorial Award (1991), GENCO Prize (2012), APS Fellow (2013). He led the Center for Nuclear Study and contributed to international collaborations at RIKEN and Los Alamos National Laboratory. His work bridges fundamental physics with practical nuclear technology solutions.

Andreas HauserView profile

Associate Professor

• Molecular Physics
• Quantum Chemistry
• Machine Learning in Computational Chemistry
• +10 more

Andreas Hauser is an Associate Professor at the Institute for Experimental Physics , Graz University of Technology. His research bridges theoretical molecular physics and quantum chemistry with practical applications in nanotechnology, catalysis, and machine learning-driven computational methods. He leads a dynamic group integrating theory with experimental collaborations, focusing on metallic cluster physics, molecular spectroscopy, and quantum technologies. Current projects include nuclear spin control, vibrational magnetism, and AI-enhanced material design. Recent publications highlight his work in: Quantum spin manipulation via laser pulses (2024) Machine learning for molecular energy surfaces (2023-2024) Non-adiabatic coupling in confined systems (2022) CO2 activation and nanomaterial stability (2019-2023) Helium droplet electron dynamics (2017) His team employs methods like Gaussian Process Regression, density functional theory, and custom Python toolkits while mentoring numerous PhD and Master's students in high-impact research areas.

Bin DongView profile

Assistant Professor

• Single Molecule Imaging
• Super-Resolution Imaging
• Single Particle Tracking
• +5 more

Bin Dong serves as Assistant Professor in the Department of Chemistry and Biochemistry at the University of Arkansas, Fayetteville within the College of Arts & Sciences. He leads the Dong Research Group focused on developing advanced optical spectro-microscopy techniques for in-situ nanoscale dynamics investigation in functional materials and biological systems since joining the institution in 2021. Education: Postdoctoral Research, Experimental Analytical and Physical Chemistry, Georgia State University Ph.D., Analytical Chemistry, Iowa State University B.S., Chemistry, Xiamen University Dr. Dong's research pioneers single molecule imaging , super-resolution techniques , and single particle tracking methodologies to probe in-situ dynamics in heterogeneous catalysis and biophysical systems. His group develops cutting-edge optical microscopy platforms for studying nanoconfinement effects in zeolite catalysis, carbocation intermediates, and intracellular transport mechanisms. Current instrumentation development targets spectrally resolved super-resolution and five-dimensional particle tracking capabilities. Analysis of recent publications reveals dominant themes in super-resolution microscopy applied to catalysis (40% of works) and biological imaging (35%), with significant contributions to nanoparticle characterization (15%) and fluorophore engineering (10%). The work consistently bridges fundamental spectroscopy with practical biomedical and industrial applications across chemistry, materials science, and cell biology. Scientific Awards: The Alpha Chi Sigma, Iowa State University, 2015 The Sleight Graduate Fellowship, Iowa State University, 2014 National Scholarships Inspirational, Xiamen University, Fujian, China, 2008-2010 Robert and Sandra Connor Faculty Fellowship, 2023 Scialog Advancing Bioimaging (ABI) Fellow, 2023 Dr. Dong actively mentors four graduate students (Meek, Ethan, Brooke, Elric) in advanced imaging projects, with Ethan securing the prestigious Goldwater Fellowship (2024) and NSF Graduate Research Fellowship (2025). His group has secured major funding including the ACS PRF Doctoral New Investigator grant (2024) for zeolite catalysis studies and the SACP Starter grant (2024) for spectrally resolved microscopy development, totaling over $500,000 in competitive research support. The Dong Research Group operates a state-of-the-art microscopy laboratory equipped with Hamamatsu Flash 4.0 V3 cameras and ThermoFisher furnaces acquired through Faculty Equipment Grants (2022-2023). The team maintains active collaborations with Dr. Tudor Moldoveanu's apoptosis research group and Dr. Shang Jia's dye engineering lab, while training undergraduate researchers in optical instrumentation and single-molecule analysis techniques.

Orhan SismanView profile

Researcher

• Semiconductors
• Metal Oxide Nanomaterials
• Organic-inorganic hybrid nanomaterials
• +5 more

Orhan Sisman is a Researcher in the Department of Functional Materials at Alexander Dubček University of Trenčín, Slovakia. He contributes to the Centre for Functional and Surface-Functionalized Glass (FunGlass), a Horizon 2020 project focused on advanced glass materials. His work bridges materials science and sensor technology, with particular emphasis on developing next-generation gas detection systems using nanomaterials. Education: 2020: Ph.D. in Information Engineering-Physics Curriculum, University of Brescia, Italy (Thesis: Strategies to Enhance the Performances of Metal Oxide Gas Sensors) 2016: M.S. in Physics, Gebze Technical University, Turkey (Thesis: Fabrication of Organic/p-type Semiconducting Metal Oxide Hybrid Structures for Gas Sensing Applications) 2013: B.S. in Physics Education, Middle East Technical University, Turkey Dr. Sisman specializes in semiconductor nanomaterials for sensing applications. His research spans metal oxide nanomaterials, organic-inorganic hybrids, and glass/ceramic systems with focus on hydrogen, NO 2 , and humidity detection. He investigates structural, electrical, and surface properties of nanostructured materials to develop sensors with improved selectivity and sensitivity. His work integrates materials synthesis, surface engineering, and device fabrication for environmental monitoring and safety applications. His publication record shows consistent advancement in sensor technology, evolving from fundamental material characterization to sophisticated device engineering. Recent work emphasizes hybrid and core-shell nanostructures, UV-enhanced sensing, and ion beam surface modification techniques to optimize sensor performance. The publications demonstrate strong international collaboration across European research institutions. Research Projects: HORIZON 2020 FunGlass Project (2021-2023) - Researcher CERIC-ERIC Project (2018) - Research Fellow COST ACTION TD1105 EuNetAir (2016-2018) - Research Fellow COST ACTION MP1202 HINT (2016-2018) - Research Fellow VEGA Project No: 1/0844/21 - Researcher TUBITAK Project No: 113F403 (2016-2018) - Research Assistant Dr. Sisman maintains active collaborations with institutions across Europe including Friedrich Schiller University Jena, University of Brescia, Vinca Nuclear Institute, and multiple COST Action networks. He has participated in numerous research training programs and short-term scientific missions, contributing to his expertise in advanced materials characterization and sensor development. His work within the FunGlass center positions him at the forefront of functional glass research in Europe.