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William Walters is a Professor of political sociology at Carleton University, cross-appointed in Political Science and Sociology & Anthropology, and holds the FPA Research Excellence Chair (2019-22). He earned his BSc from Imperial College London, MA from City University of New York, and PhD from York University. His research focuses on political sociology, migration governance, secrecy, and Foucault studies, with recent projects exploring 'air deportation' and the role of civil aviation in forced removals. He co-edits A Handbook on Governmentality and is writing Secrecy: A Critical Introduction . Education: BSc (Imperial College London), MA (City University of New York), PhD (York University). Research Interests: Walters examines how states use secrecy to govern migration, borders, and security. His work critiques the invisibility of deportation practices and analyzes migration routes as sites of power. He employs interdisciplinary methods, including Foucault's governmentality framework and cultural studies, to explore topics like drone strikes, atomic weapons secrecy, and humanitarian border policies. Current Projects: SSHRC-funded study on air deportation (2017-22), co-editing Handbook on Governmentality , and a book on secrecy's role in modern governance. Recent publications include State Secrecy and Security (2021) and Viapolitics: Borders, Migration and the Power of Locomotion (2021). Scientific Awards: FPA Research Excellence Chair (2019-22), highlighting his contributions to migration and security scholarship. Advising & Grants: Supervised numerous graduate students across disciplines, many securing academic positions globally. Active in SSHRC-funded research. Collaborates with scholars like Martina Tazzioli on border governance and migration studies. Labs/Teams: Engaged with Carleton's interdisciplinary migration research networks, contributing to global debates on deportation, secrecy, and governmentality.

• Political Sociology
• Borders and Migration
• Secrecy and Security
• +3 more

Anna Gorczyca-Goraj is a Researcher at the Institute of Physics, University of Silesia, Katowice, Poland. She holds a PhD in Physics (2014) and an MSc in Theoretical Physics (2006), both from the University of Silesia. Her research focuses on nanotechnology, quantum physics, and transport phenomena in nanostructures, with notable contributions to spin-dependent transport in quantum dot-ring systems and thermal management in microelectronics. She has been affiliated with international research groups, including Jožef Stefan Institute (Ljubljana, Slovenia) under EU-funded projects. Education: PhD in Physics (2006–2010): University of Silesia, supervised by Prof. Marcin Mierzejewski MSc in Theoretical Physics (2001–2006): University of Silesia Power Engineering Degree (2009–2014): Silesian University of Technology, Gliwice Research Interests: Quantum dot-ring nanostructures Non-equilibrium transport in nanowires Magnetic response in low-dimensional systems Thermal management using novel materials Quantum cryptography applications in power systems Awards & Scholarships: Dean's Award (University of Silesia, 2009/2010 & 2010/2011) UPGOW Project Scholarship (EU-funded, 2009) Ministry of Education Scholarship (Poland, awarded twice) Collaborations: Joint work with Prof. Elżbieta Zipper and Maciej Maśka on nanostructure transport Co-supervision of MSc theses integrating econophysics and power system analysis Labs/Teams: Core member of the theoretical condensed matter physics group at the Institute of Physics, collaborating internationally on EU-funded projects.

• Nanotechnology
• Quantum Physics
• Solid State Physics
• +4 more

Jacqueline Foertsch is a Professor of English at the University of North Texas (UNT) and chairs the steering committee for UNT's Postwar Faculty Colloquium. Her research focuses on post-WWII American literature and culture, with expertise in true crime narratives, civil rights literature, feminist studies, and nuclear culture in postwar America. Ph.D., Tulane University M.A., University of Iowa B.A., Augustana College (Rock Island, IL) Her recent publications include Freedom's Ring: Literatures of Liberation from Civil Rights to the Second Wave (Rutgers 2021) and American Drama: In Dialogue, 1714-Present (Palgrave Macmillan 2017). She is currently working on Chariots of Doom: Getting Around to True Crime in Postwar America , extending her analysis of American cultural anxieties through literary forms. Analysis of her 15 most recent articles reveals sustained engagement with postwar trauma narratives, including nuclear dread ( The Bomb Next Door ), polio epidemics ( The Polio Years in Texas ), and civil rights struggles. Her work often intersects race, gender, and class within Cold War and post-Cold War contexts, examining how literature reflects and challenges societal norms. As an academic leader, Foertsch contributes to interdisciplinary scholarship through her role in the Postwar Faculty Colloquium. Her research spans true crime, feminist pedagogy, and comparative analyses of liberation movements, maintaining a critical focus on American cultural contradictions.

• Post-WWII American Literature
• True Crime Narratives
• Civil Rights Movement
• +3 more

Dr. Blake Fitzpatrick is a Professor in the School of Image Arts at Toronto Metropolitan University and serves as Graduate Program Director for the Media & Design Innovation PhD program in The Creative School. His work bridges critical landscape studies, nuclear era photography, and artistic responses to militarism. Education: Ph.D. from Ontario Institute for Studies in Education (University of Toronto), M.A. in Photography and Cinema (Ohio State University), B.A.A. from Toronto Metropolitan University's School of Image Arts. Research focuses on intersections of art, militarism, and nuclear history. His photo-based work has been exhibited globally, including at the Canadian Embassy in Berlin. Publications include Through Post-Atomic Eyes (2020), Camera Atomica (2015), and contributions to Critical Distance in Documentary Media (2018). Publications emphasize visual culture's role in understanding nuclear legacies and militarized landscapes. His exhibitions and writings critically engage with how photography documents historical and political conflicts. No scientific awards explicitly noted, though his academic contributions are highlighted through exhibitions and publications. No formal grants or advising roles listed, though his role as program director suggests leadership in academic innovation. Active in cross-disciplinary research teams within The Creative School.

• Critical Landscape Studies
• Photography and the Nuclear Era
• Artistic Responses to Militarism
• +3 more

Hebin Li is a Professor of Physics at the University of Miami's College of Arts and Sciences. His research focuses on experimental quantum optics and spectroscopy, particularly using multidimensional coherent spectroscopy to study quantum coherence in atomic systems and solid-state materials. Primary research domains include: Quantum dynamics of atomic vapors and cold atoms Coherent control of quantum emitters Defect centers in diamond and silicon carbide Ultrafast processes in semiconductor materials Recent publications advance spectroscopic methodologies through collinear 2D coherent spectroscopy techniques applied to atomic ensembles and quantum materials. Experimental work characterizes collective quantum states, many-body interactions, and defect photophysics under varied excitation conditions. Laboratory capabilities include ultrafast laser systems, cryogenic spectroscopy, and quantum optics instrumentation for probing coherent phenomena.

• Quantum Optics
• Atomic Physics
• Spectroscopy
• +2 more

Professor Daniel Sheehy is a Professor of Physics at the Department of Physics & Astronomy, Louisiana State University (LSU), within the College of Science. He earned his Ph.D. in Physics from the University of Illinois, Urbana-Champaign in 2001. His research focuses on theoretical condensed matter physics, particularly quantum many-particle systems where interactions drive novel behavior, such as Bose-Einstein condensates, paired fermion superfluidity, graphene, heavy-fermion materials, and high-temperature superconductors. Research Interests: Ultracold Atomic Gases : Studies of superfluidity and magnetism in cold atom systems, including trapped imbalanced Fermi gases and BCS-BEC crossover phenomena. Graphene : Investigation of electronic properties and quantum transport in graphene, emphasizing relativistic electron dynamics and strain effects. High-Temperature Superconductivity : Exploration of unconventional superconductivity in cuprates, pnictides, and cold atomic gas analogs, including FFLO states and quantum critical scaling. Recent Contributions: His work spans theoretical frameworks for trapped Fermi systems, topological superconductivity in thin films, and quantum criticality in graphene. Notable topics include the Fulde-Ferrell-Larkin-Ovchinnikov state in imbalanced Fermi gases and the interplay of electron interactions in novel materials. Awards & Grants: He has secured a NSF CAREER Award (2012) for research on cold atomic gases' phases and dynamics. His work has been published in leading journals such as Physical Review Letters, Physics, and Reviews of Modern Physics . Labs & Collaborations: Collaborates on interdisciplinary projects at LSU's Landolt Astronomical Observatory and participates in the LIGO-Virgo-KAGRA collaboration. Active in guiding graduate students in theoretical condensed matter physics.

• Theoretical Condensed Matter
• Ultracold Atomic Gases
• Graphene and Topological Insulators
• +3 more

Mehmet Özgür Oktel is a Professor of Physics at Bilkent University in Ankara, Turkey. His research focuses on condensed matter theory, particularly quasicrystals, artificial gauge fields in cold atoms, and ultradilute quantum droplets. He has held visiting appointments at Cornell University and Ohio State University. Oktel earned his Ph.D. from MIT (2001) and B.Sc. from Middle East Technical University (1996), with notable achievements including a Bronze Medal at the International Physics Olympiad (1992). Education: Ph.D. in Physics (1996-2001), Massachusetts Institute of Technology B.Sc. in Physics & Electrical Engineering (1992-1996), Middle East Technical University High School Diploma (1985-1992), Eskişehir Anadolu Lisesi Research Themes: Quasicrystals: Studies electronic and wave dynamics in non-periodic structures, including localization and higher-dimensional projections. Artificial Gauge Fields: Explores quantum phases of cold atoms under synthetic electromagnetic fields. Ultracold Droplets: Investigates self-bound Bose-Einstein condensates and their stability under quantum fluctuations. Awards: American Physical Society Outstanding Referee (2025) Bilkent Distinguished Teaching Award (2018) TUBITAK Encouragement Award (2009) TUBA GEBIP Young Investigator Award (2005-2008) Advising & Grants: Directed 19 Ph.D. and M.S. students, many now in top institutions like Max Planck Institute and Harvard. Recipient of TUBITAK Kariyer Grant (2005-2010) and Ohio State Fellowship (2001-2003). Labs/Teams: Leads a theoretical condensed matter group at Bilkent, collaborating on cold atom experiments and quasicrystal simulations.

• Condensed Matter Physics
• Quantum Physics
• Quasicrystals
• +3 more

Leonardo Badurina is a Sherman Fairchild Postdoctoral Scholar Research Fellow in Theoretical Physics at the California Institute of Technology (Caltech). His primary affiliation is with the Particle Theory Group, focusing on experimental and theoretical aspects of quantum gravity, dark matter detection, and atom interferometry. He is based in MC 452-48 and can be reached at badurina@caltech.edu . His research centers on advancing atom interferometry techniques for detecting gravitational signatures of dark matter and gravitational waves. Key projects include the AION ultra-cold strontium laboratories and conceptual studies for long-baseline atom interferometers at CERN. He collaborates on initiatives like the Terrestrial Very-Long-Baseline Atom Interferometry roadmap and the STE-QUEST space mission proposal. Badurina's work bridges theoretical frameworks with experimental precision, addressing challenges in decoherence, detector design, and signal processing. His recent articles emphasize computational models for gravitational signatures and ultralight dark matter phenomenology. While no formal awards are listed, his contributions to collaborative workshops and feasibility studies highlight his role in shaping future experimental physics directions. His research infrastructure includes leadership in ultra-high vacuum systems and laser stabilization, critical for precision measurements. He is actively involved in both terrestrial and space-based cold atom initiatives, contributing to the global roadmap for gravitational wave and dark matter detection technologies.

• Theoretical Physics
• Particle Physics
• Quantum Gravity
• +3 more

Dr. Julian Schmidt is a Tenure Track Scientist at the Paul Scherrer Institut (PSI), part of the Trapped Ion Quantum Computing group within the Laboratory for Nano and Quantum Technologies at the PSI Center for Photon Science. His research focuses on quantum technologies, molecular ion spectroscopy, and ultracold atom-ion interactions. Schmidt holds a PhD from the University of Freiburg, where he worked with Tobias Schätz on ions in optical traps. He completed postdoctoral work at Laboratoire Kastler Brossel (Laurent Hilico) and NIST (James Chou/Dietrich Leibfried), developing quantum logic spectroscopy techniques for molecular ions. In 2023, he joined PSI to advance cryogenic experiments and quantum computing applications. His expertise spans laser stabilization, ion trapping, and precision measurements in quantum systems. Education: Diploma and PhD in Physics, University of Freiburg (Group of Tobias Schätz) Research Interests: Quantum computing architectures, molecular ion spectroscopy, ultracold physics, cryogenic quantum systems, and precision laser techniques. His work bridges fundamental quantum science with applied quantum technologies, emphasizing scalable systems and precision measurements. Recent Research Trends: Articles focus on laser stabilization for quantum sensors, molecular ion dynamics under thermal environments, and quantum-state-dependent chemistry. He pioneers techniques like parametric excitation for ion manipulation and cryogenic setups to enhance coherence times in quantum systems. Labs & Collaborations: Active in the Trapped Ion Quantum Computing group at PSI and collaborates internationally with NIST and European institutions. His lab specializes in cryogenically cooled ion traps for quantum computing and precision spectroscopy.

• Quantum Computing
• Atomic Physics
• Molecular Physics
• +4 more

Dr. Charlotte Kielar is a Researcher at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) , based in the Nanomaterials and Transport department under the Ion Beam Physics and Materials Research Institute. Her work focuses on designing and analyzing nanostructured materials, particularly DNA origami systems, with applications in biomaterials, drug discovery, and surface engineering. She holds a PhD from the Universität Paderborn, where her groundbreaking research on DNA origami nanostructures earned her the prestigious Dissertationspreis 2020 and a €2,000 award. Her research interests bridge chemistry, materials science, and biophysics, with key emphases on Stability and Functionalization of Nanostructures , Biomolecular Interactions , and Advanced Microscopy Techniques . She has pioneered methods to enhance DNA origami durability under thermal and chemical stress, as well as techniques for precise molecular placement on nanostructured substrates for drug discovery. Dr. Kielar’s recent work includes cold denaturation mechanisms in DNA origami (2024), heavy metal stabilization strategies (2024), and large-scale DNA lattice fabrication on silicon (2023). Her studies on Pseudomonas aeruginosa biofilm adhesion (2023) and ZnO surface engineering (2021) further demonstrate her cross-disciplinary impact. She has published extensively in Angewandte Chemie International Edition , ACS Applied Materials & Interfaces , and Chemistry-A European Journal . Key Awards: Dissertationspreis 2020 (Universität Paderborn) Labs/Teams: Member of the Nanomaterials and Transport group at HZDR’s Ion Beam Physics Institute Collaborations: International partnerships include projects with Freiberg University (resource technology) and CASUS (advanced systems modeling)

• DNA Nanotechnology
• Materials Science
• Nanomaterials
• +3 more

Dr. Dávid Horváth is a Postdoctoral Research Fellow in the Department of Mathematics at King’s College London, part of the Faculty of Natural, Mathematical & Engineering Sciences. He holds a PhD (Summa cum laude) from Budapest University of Technology and Economics (2019), following a BSc and MSc in Physics (2014). His research focuses on out-of-equilibrium dynamics of low-dimensional quantum systems, entanglement entropy in integrable models, and non-equilibrium statistical mechanics. His academic journey includes postdoctoral fellowships at SISSA (Trieste) under Prof. Pasquale Calabrese and King’s College under Prof. Benjamin Doyon. He has developed novel methods in truncated conformal space approach and symmetry-resolved entanglement analysis. Notable achievements include the 'UNKP’ Fellowship from Hungary’s New National Excellence Program. Research interests span quantum quenches, hydrodynamic descriptions, and topological defects in integrable systems. His work bridges theoretical frameworks with experimental setups in cold atom systems and condensed matter physics. Teaching experience includes mechanics, electrodynamics, and mathematical methods for physics and computer science students. Publications emphasize entanglement dynamics and integrability, with contributions to sine-Gordon models, Potts models, and massless renormalisation flows. He collaborates closely with the Disordered Systems group at King’s, advancing statistical mechanics of complex systems.

• Out-of-equilibrium Dynamics
• Quantum Field Theories
• Entanglement Entropy
• +4 more

Dr. Alex Ruichao Ma is an Assistant Professor of Physics in the Department of Physics and Astronomy at Purdue University. His research focuses on quantum many-body physics and quantum information science, leveraging superconducting circuits to engineer synthetic quantum materials. He leads a lab developing novel quantum systems and collaborates with institutions like the Purdue Quantum Science and Engineering Institute and the Quantum Science Center. Ma has received prestigious awards, including the NSF CAREER Award (2021) and the Spira Undergrad Teaching Award (2025), recognizing his research and educational contributions. His work involves creating 'designer materials' using microwave photons in superconducting circuits to explore quantum phases and their applications in quantum computing. The lab uses advanced techniques like dilution refrigeration and nanofabrication, supported by Purdue’s Birck Nanotechnology Center. Ma emphasizes education and outreach, training undergraduate and graduate students in quantum technologies and developing accessible quantum science materials for K-12 audiences. Research Collaborations: Partnerships with Prof. Yong Chen, Prof. Leonid Rokhinson, and Dr. Aaron Chou (Fermi Lab) in the Quantum Science Center. Lab Infrastructure: State-of-the-art facilities including dilution refrigerators operating at near-absolute-zero temperatures. Education Initiatives: Mentoring underrepresented students and offering hands-on training in cryogenics, microwave measurements, and nanofabrication. Ma’s group actively publishes in top journals and conferences, with recent breakthroughs in machine learning-based qubit readout and tunneling spectroscopy. His work bridges theoretical predictions with experimental realizations, driving advancements in quantum engineering and materials science.

• Quantum Many-Body Physics
• Quantum Information Science
• Superconducting Circuits
• +3 more

Ehsan Marzbanrad is an Adjunct Assistant Professor at the University of Waterloo, affiliated with the Research Faculty and Adjunct Faculty groups. His work focuses on advanced materials processing, nanomaterial synthesis, and additive manufacturing technologies. Key research areas include molecular dynamics modeling of manufacturing processes, development of nanocomposite materials, and surface engineering for enhanced material performance. His contributions span the design of novel sensor systems, optimization of laser-based additive manufacturing techniques, and investigation of material behavior under extreme conditions. Research highlights include studies on the mechanics of powder bed fusion processes, synthesis of core-shell nanoparticles, and characterization of coatings for high-temperature applications. His interdisciplinary approach integrates computational modeling with experimental methods to address challenges in materials science and engineering. Current trends in his publications emphasize sustainable manufacturing practices, nanomaterial innovation, and the optimization of material properties through advanced processing techniques. No scientific awards or grants are explicitly listed in the provided information. His advising and collaborative efforts are not detailed here. Marzbanrad’s work contributes to advancements in aerospace, energy, and biomedical applications through innovative material solutions.

• Additive Manufacturing
• Nanomaterials Synthesis
• Materials Science
• +3 more

Professor Kostya Ostrikov is a leading academic at the Queensland University of Technology (QUT) , affiliated with the Faculty of Science . His research spans interdisciplinary domains in Plasma Nanoscience, Materials Engineering, and Advanced Manufacturing , focusing on harnessing plasma technologies for nanofabrication, energy solutions, and biomedical applications. His work explores the synthesis of functional nanomaterials and devices using reactive plasmas, with applications in Low-Temperature Plasma Applications for energy, environmental remediation, and health care. Recent publications highlight advancements in plasma-assisted catalysis, supercapacitor design, and cancer-targeted nanomaterials, underscoring his cross-disciplinary impact in Chemical Engineering , Optoelectronics , and Renewable Energy Systems . Professor Ostrikov coordinates the Physics Honours Program at QUT, encouraging students to pursue research in Nanoscience, Materials Science , and related fields. His research integrates Artificial Intelligence in catalyst design and emphasizes Sustainable Chemistry for industrial and medical innovations.

• Plasma nanoscience
• Nanotechnology
• Nanofabrication
• +13 more

Christian Koller is a Lecturer and Researcher in the Department of Electrical Engineering at Vienna University of Technology. His academic journey includes a PhD in Hybrid Quantum Systems from Technische Universität Wien (2007–2012), followed by a Marie Curie Fellowship at the University of Nottingham (2012–2014) and a postdoctoral position at TU Wien (2012). His research focuses on quantum physics, condensed matter systems, and nanotechnology, with particular emphasis on hybrid quantum systems, graphene-based materials, and superconducting cavities. He has contributed to advancements in atom chip technology, photodetector platforms, and quantum coherence studies. Notable projects include the E-Steril initiative (2021–2024), addressing chemical warfare agent detection. His work has been recognized with the Innovationspreis Land Niederösterreich in 2017. Koller collaborates internationally, with research spanning quantum optics, atomic physics, and solid-state qubits. His lab explores interdisciplinary applications of quantum technologies in sensing, photonics, and condensed matter systems.

• Quantum Physics
• Condensed Matter Physics
• Nanotechnology
• +5 more