Prof. Laura Covi serves as a Professor in the Department of Theoretical Physics within the Faculty of Physics at the University of Göttingen, Germany. Her office is located at Friedrich-Hund-Platz 1, 37077 Göttingen, with contactable telephone (+49 551 39 26949) and fax (+49 551 39 29631) lines indicating active institutional affiliation. Her research program centers on fundamental theoretical frameworks, specifically targeting: Theoretical Physics as the foundational discipline Particle Physics for subatomic phenomena Cosmology for universe-scale structures Quantum Field Theory as mathematical infrastructure String Theory for unified frameworks Mathematical Physics for rigorous formalism development
Damian Galante is a Research Fellow in Mathematics specializing in theoretical physics, with primary focus on quantum gravity, holography, and cosmological structures. His work bridges mathematical physics and high-energy theory through rigorous exploration of spacetime geometry and quantum phenomena. Galante's research centers on holographic principles applied to de Sitter space , black hole thermodynamics , and cosmological observables . Key investigations include boundary conditions in gravitational systems, quantum features of expanding universes, and complex geodesic structures. His methodology integrates string theory, conformal field theory, and quantum information concepts to address fundamental questions about spacetime emergence. Recent publications (2023-2024) reveal concentrated exploration of gravitational/cosmological observatories and quantum de Sitter space, demonstrating consistent focus on holographic dualities in cosmological contexts. Work patterns show increasing emphasis on experimental signatures of quantum gravity through observable phenomena, with strong collaboration networks across international institutions. As Principal Investigator for the EPSRC-funded project "Quantum emergence of an expanding universe" (2022-2026), Galante leads cutting-edge research into quantum mechanical origins of cosmic expansion. His 741 citations reflect significant impact in theoretical physics, with active dissemination through academic platforms and social media engagement.
Annegret Burtscher is an Assistant Professor (tenure track) in Mathematical Physics at Radboud University Nijmegen, Netherlands since 2018. Previously, she held positions as Hill Assistant Professor at Rutgers University (2017-18) and Postdoctoral Researcher at the University of Bonn (2015-17). Her research focuses on mathematical aspects of general relativity and geometry, with particular interest in gravitational waves, black holes, and cosmological models. Dr. Burtscher has been instrumental in establishing the Joint Online Mathematical Relativity Colloquium (JoMaReC) and regularly organizes academic events in her field. She is actively involved in the mathematical physics community, with upcoming participation in international conferences on gravitational waves, string theory, and black hole physics scheduled through 2025. Her work bridges theoretical mathematics with applications in fundamental physics. Dr. Burtscher maintains an active role in graduate education, having advertised PhD positions in Mathematical General Relativity at Radboud University and previously served as a Riemann fellow at the Riemann Center for Geometry and Physics in Hannover, Germany.
Monica Maria Guica is a Lecturer at École Polytechnique Fédérale de Lausanne (EPFL), affiliated with the School of Basic Sciences and the Department of Theoretical Physics. She also serves in the Education in Physics unit under EPFL's Vice Presidency for Academic Affairs. Her primary contact email is monica.guica@epfl.ch. Position: Lecturer in Theoretical Physics Teaching Focus: Modern approaches to quantum gravity, holography Research Affiliation: Laboratory of Theoretical Physics (LPTP) Her research interests revolve around theoretical physics, particularly quantum gravity and holographic principles. These areas are central to modern high-energy physics and cosmological theories.
Oscar Henriksson is a Senior Lecturer at the Faculty of Natural Sciences and Engineering, Physics Department, Åbo Akademi University. His research focuses on theoretical physics at the intersection of string theory, holography, and cosmology. Current affiliation: Åbo Akademi University, Physics Department Academic rank: Senior Lecturer Henriksson's research spans holographic models of quantum field theories, phase transitions in the early universe, and string theory applications to cosmological constants. Key areas include: Holographic duality (AdS/CFT correspondence) Black hole thermodynamics and D-brane dynamics Phase transition dynamics and bubble nucleation Cosmological constant problems and dark energy models Quantum criticality and strongly coupled systems Non-relativistic supersymmetric frameworks Recent publications (2024-2015) demonstrate a consistent focus on holographic methods, string theory applications, and cosmological modeling. His work often combines gravitational dualities with particle physics phenomena. Henriksson actively participates in academic events: Speaker at Holographic Duality Symposium (2024) Presenter on first-order phase transitions (2024) Peer-reviewer for 7 publications in 2024 Hosted academic visitor Mark Hindmarsh (2024) Participant in Nordic Network meetings on strings/branes (2024) His research fingerprint reveals deep expertise in fermi surfaces, branes, holography, cosmological constants, and phase transition physics.
Robert Clemenson is a Theoretical Particle Physics PhD researcher and Teaching Fellow at the University of Sussex, affiliated with the School of Mathematical and Physical Sciences. He works with Professor Stephan Huber on holographic phase transitions, focusing on applications of particle physics to cosmology and constraints from astrophysical measurements. BA Physics, Oxford University (2016-2019) MMathPhys Mathematical and Theoretical Physics, Oxford University (2019-2020) His research explores physics beyond the Standard Model, particularly holographic phase transitions in the early Universe and the Diffuse Supernovae Neutrino Background. He utilizes AdS/CFT correspondence to model cosmological phenomena and investigates connections between particle physics and astrophysical observations. His work is funded by a doctoral studentship and the STFC grant titled "Holographic phase transitions" (2020-2024). He has contributed to teaching as a Doctoral Tutor in both Physics and Mathematics departments, overseeing workshops for undergraduate and postgraduate modules like Mechanics & Relativity and Numerical Analysis 2. Teaching modules: Algebra, Maths Methods 1, Analysis 1, etc. Outreach: Hosts Twitch streams and YouTube content for educational purposes, with an office presence tracker at https://is-rob-in-the-office.com/ .
Kory Stiffler , PhD, is an Associate Professor at the Department of Physics and Astronomy within the University of Iowa's College of Liberal Arts and Sciences. His work bridges theoretical physics and computational tools, with a focus on supersymmetry, black hole physics, cosmology, and string theory. PhD, Physics, University of Iowa MS, Physics, University of Iowa BSE, Biomedical Engineering, University of Iowa Dr. Stiffler specializes in Thomas-Whitehead gravity (developed under Professor Vincent G. J. Rodgers) and adinkras—visual representations of supersymmetry algebra. His research intersects with mathematical physics and nuclear/particle physics, advancing theoretical frameworks through interdisciplinary approaches. He leads the HEPTHools GitHub organization, collaborating with students to develop the adinkra.m Mathematica package for supersymmetry research. His contributions highlight the integration of computational methodologies into modern theoretical physics.
Abdurrahman Savaş Arapoğlu is a Professor at the Department of Physics Engineering, Istanbul Technical University. His research focuses on cosmology, general relativity, scalar field theories, and neutron star physics. He is actively involved in projects investigating cosmological phase transitions and gravitational wave dynamics. He has led TÜBİTAK-funded projects on cosmological phase transitions and gravitational waves (2021-2024) and currently directs a BAP project on O(D,D)-symmetric cosmological dynamics (2024-2025). His work bridges theoretical frameworks with observational cosmology, contributing to our understanding of dark energy and modified gravity. Key research areas include: Scalar-tensor theories and their cosmological implications Phase transitions in anisotropic universes Gravitational wave signatures from early universe processes His recent publications (2020-2024) address topics like neutron star mass-radius relations, stability analysis in stringy gravity, and numerical solutions to modified gravity scenarios.
Peter Schupp is a full Professor of Physics in the School of Science at Constructor University in Bremen, Germany, a position he has held since 2002. He previously served as visiting fellow and lecturer at Princeton University (1997-1999) and as assistant professor at the University of Munich (1994-1997, 1999-2002). His office is located in Research III, Room 65 on the Constructor campus. Education: PhD (Physics), University of California at Berkeley, 1990–1993 MSc (Physics), California Institute of Technology, 1989–1990 Vordiplom (Physics), University of Heidelberg, 1986–1989 Habilitation, University of Munich, 2001 Research Interests span a broad range of topics in mathematical and theoretical physics, including: Classical and quantum gravity Quantum field theory and string theory Generalized, graded and non-commutative geometry Coherent states, entropy and quantum information Non-geometric fluxes and nonassociative structures Cosmological data analysis (CMB anisotropy & non-Gaussianity) His publications reveal a steady focus on non-commutative and nonassociative extensions of geometry and gravity, as well as their implications for quantum field theory and cosmology. Recent work couples sophisticated algebraic techniques (graded Poisson algebras, Hopf algebras) to concrete physical problems such as CMB entropy measures and axion-gravity interactions. Scientific Awards & Fellowships : Heisenberg Fellowship, Deutsche Forschungsgemeinschaft (DFG), 2002 Studienstiftung des deutschen Volkes, 1986–1992 Max-Kade-Foundation Fellow, 1997–1998 Theodore S. Brown & Edith N. Brown Fellowship / Ephraim Weiss Scholarship, 1991–1992 Dora Garibaldi Scholarship, 1990–1991 Earl C. Anthony Fellowship, Caltech, 1989–1990 University Fellow, Renker GmbH & Co. KG, 1989–1991 International Physics Olympiad Silver Medal (Portorož 1985, 7th overall) International Physics Olympiad Bronze Medal (London 1986) Contact & Collaboration : Prof. Schupp welcomes inquiries at pschupp@constructor.university or by phone at +49 421 200-3224. While the text does not list specific PhD advisees, his long tenure and extensive publication record indicate active supervision of graduate researchers in theoretical and mathematical physics.
Scott A. Hughes is a Professor in the Department of Physics at the Massachusetts Institute of Technology (MIT), School of Science. He is affiliated with the MIT Kavli Institute for Astrophysics & Space Research and leads the Hughes Group, focusing on astrophysical general relativity. He previously served as the Astrophysics Division Head (2019–2023) and held the Adam J. Burgasser Chair in Astrophysics and the Class of 1956 Career Development Professorship. Education: B.A. in Physics, Cornell University (1993); Ph.D. in Physics, California Institute of Technology (Caltech), advised by Kip Thorne. Postdoctoral Experience: University of Illinois, Caltech, Kavli Institute for Theoretical Physics (UCSB). Joined MIT Faculty: January 2003. His research centers on astrophysical general relativity , with a focus on black holes , gravitational-wave sources , and strong-field gravity . He investigates waveform modeling, testing black hole spacetimes, and cosmological applications of gravitational waves ('standard sirens'). His work integrates high-performance computing and numerical relativity, contributing to LIGO science. He has authored numerous influential publications on extreme mass-ratio inspirals, ringdown spectroscopy, and gravitational wave cosmology. Analysis of his recent publications reveals a strong trend toward gravitational wave astrophysics , combining theoretical modeling with observational implications for LIGO and future space-based detectors like LISA. His work spans black hole dynamics , numerical relativity , cosmological parameter estimation , and tests of general relativity . There is a growing integration of machine learning and data analysis techniques in his recent work. Scientific Awards and Honors: American Physical Society Fellow (2012) John Simon Guggenheim Fellow (2012) Margaret MacVicar Faculty Fellow, MIT (2017–2027) Buechner Outstanding Advisor Award, MIT Physics (2016) MIT School of Science Prize for Excellence in Undergraduate Teaching (2005–2006) National Science Foundation Career Grant (2005) Buechner Teaching Prize, MIT Physics (2005) Class of 1956 Career Development Professor, MIT (2004) Professor Hughes is a dedicated educator and mentor. He has received multiple teaching awards and is recognized as an outstanding advisor. He teaches core courses including graduate 8.962 (General Relativity) , undergraduate 8.033 (Relativity) , and 8.022 (Electricity and Magnetism) . He has developed extensive open lecture notes for these courses. He is also a first-generation college graduate and actively supports first-generation students at MIT. He leads a research group and mentors graduate students, though specific student names are not listed in the provided text. His research has been supported by the NSF and other grants. He is actively involved in the international gravitational wave community, regularly presenting at major conferences and serving on thesis committees abroad. Laboratories and Research Groups: Hughes Group - Astrophysical General Relativity @ MIT (gmunu.mit.edu), affiliated with the MIT Kavli Institute for Astrophysics & Space Research.
Daniel Chung is a Professor in the Department of Physics at the University of Wisconsin-Madison . His research focuses on the intersection of cosmology and high energy theory, with an emphasis on observable physics beyond the Standard Model. Email: danielchung@wisc.edu Phone: (608) 265-3133 Office: 5287 Chamberlin, Madison, WI 53706 Research Interests : Inflationary Cosmology Axions Superheavy Dark Matter Quantum Field Theory in Curved Spacetime Baryogenesis Electroweak Phase Transition WIMP Dark Matter Alternative Gravity Models Braneworld/String-Inspired Cosmology Supersymmetry Gravitational Waves Dark Energy Cosmic Rays Teaching History : Courses taught include General Physics (207), Modern Intro to Physics I/II (247/248), Electromagnetic Fields (322), Undergraduate General Relativity (406), Graduate General Relativity (717), Graduate Electrodynamics (721), Graduate Cosmology (801), and Quantum Field Theory 2 (832) across multiple years from 2003–2018.
Elias Kiritsis is a Professor in the Department of Physics at the University of Crete, a position he has held since 1999. His academic career includes research fellowships at the University of California, Berkeley (1988-1991), Ecole Normale Superieure in Paris (1991-1992), and the CERN Theory Division (1992-1998). He is affiliated with the Crete Center for Theoretical Physics (CCTP), the Institute of Theoretical and Computational Physics, and the Crete Center for Quantum Complexity and Nanotechnology (CCQCN). His educational background includes: Undergraduate studies at the University of Athens (1984) Ph.D. in Conformal Field Theories from the California Institute of Technology (1988) Kiritsis's research is concentrated in Theoretical High Energy Physics and Cosmology, utilizing Quantum Field Theory and String Theory. His work focuses on non-perturbative aspects of Field Theory and M-Theory, including D-branes, Supersymmetry, Conformal Field Theory, Gauge Theories, Black Holes, and String Cosmology. He is particularly known for contributions to holographic QCD and the application of string theory to cosmological problems, with emphasis on de Sitter space and cosmological constant dynamics. Recent publications (2023-2025) demonstrate sustained focus on holographic methods in quantum field theory, particularly confining theories on curved backgrounds, phase transitions in symmetric holographic matter, and gravitational applications. Key trends include anomalies in effective theories, neutrino transport in dense matter, stability of spacetime geometries, and connections between string theory and Standard Model physics. His notable scientific awards include: ERC consolidator grant 'Gravity, Holography and the Standard Model' (2016) As principal investigator, Kiritsis has secured competitive research funding including the ERC grant, enabling advanced work in holographic QCD and quantum gravity. His leadership in collaborative research groups implies active mentorship of graduate students, though specific advisees are not listed in available sources. Research programs integrate theoretical exploration with computational methods across multiple physics domains. Kiritsis is integral to several research units at the University of Crete: the Institute of Theoretical and Computational Physics, the Crete Center for Theoretical Physics (CCTP), and the Crete Center for Quantum Complexity and Nanotechnology (CCQCN). These centers drive interdisciplinary work connecting string theory, quantum computing, condensed matter physics, and cosmology through holographic principles.
Steven Giddings is a Professor in the Department of Physics at the University of California, Santa Barbara (UCSB). His research focuses on quantum gravity, black holes, quantum cosmology, and string theory. Education: University of Utah (Mathematics and Physics) Princeton University (PhD in Theoretical Physics under Ed Witten) Research Interests: Quantum nature of spacetime Black hole information paradox Quantum cosmology/inflation Particle phenomenology and string theory Gravitational scattering Key Contributions: Co-founder of the "landscape" picture of string vacua Expert in quantum properties of black holes and high-energy scattering Organized major workshops (e.g., Quantum Gravity and Quantum Information at CERN, Santa Barbara Gravity Workshops) Contact: Email: giddings@physics.ucsb.edu, giddings@ucsb.edu Office: Broida 6105, UCSB
Kirtimaan Mohan serves as East Holmes Assistant Professor in the Department of Physics and Astronomy at Michigan State University, teaching LB 273 (Physics I) and LB 274 (Physics II) through the Lyman Briggs College. His office is located in Holmes Hall, E-189, East Lansing, MI. Education Ph.D. in Physics, Indian Institute of Science (2014) Research Focus Dr. Mohan investigates fundamental questions in particle physics including the nature of dark matter, signatures of new physics beyond the Standard Model, and precision Higgs boson studies. His work integrates quantum field theory calculations with machine learning techniques to analyze collider data and identify exotic phenomena. Current efforts focus on dark matter detection strategies, collider phenomenology, and theoretical frameworks addressing B-physics anomalies. Publication Trends His 2017-2019 publications demonstrate consistent focus on dark matter models (Majorana particles, FIMPs), LHC collider signatures (dijet resonances, energy correlation functions), and B-physics anomalies . The research combines simplified model building with one-loop calculations, bridging theoretical predictions and experimental constraints from both collider and direct detection experiments. Scientific Awards No awards documented in provided materials Academic Activities Information regarding graduate student supervision, grant funding, or laboratory affiliations is not specified in available documentation. His research appears highly collaborative based on multi-institutional co-authorship patterns across publications.
Benjamin Allen is a Researcher at the Auckland Bioengineering Institute , University of Auckland, New Zealand. His work bridges Bioengineering and Theoretical Physics , focusing on Brane Cosmology , Dark Matter , and High Energy Physics . Research Interests include: Theoretical exploration of Domain-Wall Branes in higher-dimensional physics. Phenomenology of Dark Matter and symmetry-breaking mechanisms. Mathematical modeling of Quantum Field Theory in extra dimensions. Publications highlight his contributions to: Unified dark matter theories (2017). Domain-wall brane intersections (2014). Geometric solutions in SU(2)-invariant actions (2013). Fermion mass generation in braneworld models (2011).
