Find Academic Supervisors

• Active Nematics
• Fluid Dynamics
• Microbial Motion
• +3 more

Kevin Mitchell is a Professor in the Department of Physics at the University of California Merced. His research focuses on the dynamics of active nematics, fluid mechanics, and the behavior of microswimmers in complex flows. He employs methods from nonlinear dynamics, topological analysis, and computational modeling to study systems ranging from biological soft corals to chaotic fluid systems. Key research areas include: Active matter and nematic fluids Chaotic advection and transport barriers Swimmer dynamics in laminar and vortex flows Interdisciplinary applications in biophysics and marine biology His recent work explores optimal mixing mechanisms in confined active systems, topological entropy in three-dimensional flows, and the interplay between noise and deterministic motion in microbial swarming. Notable contributions include studies on pulsating soft corals, fractal dynamics in BECs, and the development of ensemble-based entropy calculation methods for fluid systems. No scientific awards are explicitly mentioned in the provided texts. His research has been supported by collaborations in experimental biophysics and computational fluid dynamics, with a focus on real-world applications in marine ecology and material science.

Giacomo RobertiView profile

Lecturer

• Dispersive Hydrodynamics
• Soliton Gas
• Rogue Waves
• +1 more

Giacomo Roberti is a Lecturer in Mathematics at Northumbria University, where he earned his PhD in 2022 under Prof. G. El. His research focuses on nonlinear dispersive waves, soliton gases, and rogue wave dynamics in hydrodynamics and nonlinear optics. He transitioned from postdoctoral roles to a permanent faculty position in 2024. Education: PhD in Mathematics (Northumbria, 2022), MA (Hons) in Physics (2017). Research interests include dispersive hydrodynamics, soliton condensates, rogue wave formation, and their applications in fiber optics and fluid systems. His work bridges theoretical models with experimental validations in optical fibers and hydrodynamic setups. Key publications (2019–2025) explore soliton gas dynamics, extreme wave statistics, and modulational instability. Recent studies highlight interdisciplinary applications in electrical transmission lines and deep-water surface waves. No awards listed; active in collaborative projects involving optical experiments and numerical simulations. No advising or grants detailed in available texts.

Benjamin AkersView profile

Professor

• Nonlinear Waves
• Fluid Dynamics
• Applied Mathematics
• +3 more

Benjamin Akers is a Professor of Mathematics at the Air Force Institute of Technology (AFIT), specializing in nonlinear waves and fluid dynamics. He holds a PhD from the University of Wisconsin-Madison (2008), an MA from the same institution (2005), and a BS from Pennsylvania State University (2003). His research focuses on mathematical modeling of water waves, thermal blooming in high-energy lasers, solar magnetic field dynamics, and numerical methods for nonlinear PDEs. Dr. Akers has received numerous teaching awards, including the AFIT Dean's Distinguished Teaching Professorship (2020) and multiple SOCHE Excellence in Teaching accolades (2012, 2019). His work bridges applied mathematics with engineering challenges, with applications in laser propagation, solar physics, and environmental modeling. Key research themes include: Wave dynamics (gravity-capillary waves, Wilton ripples) Laser thermal blooming and atmospheric effects Computational methods (radial basis functions, machine learning) Solar flare magnetic field analysis Recent publications emphasize high-order resonance phenomena in nonlinear systems and machine learning-enhanced numerical simulations. He collaborates widely with institutions like NASA and the National Solar Observatory.

Nicolas HirschView profile

Associate Professor

• Developmental Neurobiology
• Gene Regulation in Development
• Comparative Embryology
• +3 more

Nicolas Hirsch is an Associate Professor of Biology and Director of the School of Science & Technology at Hiram College. He holds a Ph.D. in Developmental Neurobiology from the University of California, San Diego, and a B.A. in Biology and Political Science from the University of Chicago. His research focuses on understanding how genetic programs direct the development of complex organs like the brain and eye in vertebrates, particularly using Xenopus and zebrafish as model systems. Key interests include gene regulation during embryogenesis, comparative embryology across species, and the evolution of developmental pathways. Before joining Hiram, Hirsch held positions at Eastern Connecticut State University and conducted postdoctoral research at institutions including the University of Virginia and Dana-Farber Cancer Institute. His work integrates molecular genetics, transgenic technologies, and embryological approaches to study neural and ocular development. He teaches courses such as 'The Science and Ethics of Human Cloning' and coaches Hiram College’s Speech and Debate Team. His research has been published in journals like Developmental Biology and Zebrafish , focusing on topics such as rax gene function in eye field specification, hoxb1-regulated pathways in hindbrain segmentation, and aldh1a2 roles in pancreas development. While no specific awards are listed, his contributions to developmental biology span over two decades with a strong emphasis on model organism systems.

Keith Thraen-BorowskiView profile

Associate Professor

• Exercise Oncology
• Cancer Survivorship
• Physical Activity Interventions
• +3 more

Dr. Keith Thraen-Borowski is an Associate Professor in the Kinesiology department at Loras College, with a secondary appointment in Biology. He holds a PhD in Kinesiology from the University of Wisconsin-Madison (2015), following a postdoc in Physical Activity & Cancer Epidemiology at the same institution and a fellowship in Supportive Oncology at Harvard Medical School/Massachusetts General Hospital. Education: BS in Kinesiology, Illinois State University (2001) MS in Kinesiology, University of Wisconsin-Madison (2011) PhD in Kinesiology, University of Wisconsin-Madison (2015) His research focuses on the intersection of physical activity and cancer survivorship, particularly leveraging technology for intervention delivery. Directing the Loras CARES Lab, he investigates sedentary behavior modification, telehealth exercise programs, and the impact of exercise on cancer-related outcomes. Notable contributions include pioneering the Exercise Oncology Twitter Conference and receiving the ACSM Cancer Interest Group Award twice. Awards: ACSM's Cancer Interest Group Research Award (20xx, 20xx) Teaching responsibilities include Anatomy & Physiology, Research Methods, and Public Health courses. His work has been featured in CBS Sunday Morning and Wisconsin Public Radio. He actively collaborates on NIH-funded grants exploring exercise interventions in underserved cancer populations. Laboratory affiliations include the Loras CARES Lab (Cancer Research in Exercise Science), emphasizing translational research to improve survivorship outcomes through physical activity.

• Fluid Dynamics
• Quantum Optics
• Granular Materials
• +3 more

Dr. Ali Anwar serves as a Knowledge Exchange Fellow in the Department of Mechanical & Aerospace Engineering within the University of Strathclyde's Faculty of Engineering. His interdisciplinary research bridges quantum physics and aerospace engineering, with significant contributions to space technology and industrial mechanical systems. He earned his PhD in Mechanical Engineering from the University of Strathclyde in 2019, completing his thesis on pressure relief valve leak tightness under high-pressure conditions. This foundational work established his expertise in fluid-structure interactions and sealing mechanisms. Dr. Anwar's research focuses on fluid dynamics in extreme environments, quantum optical systems, and granular material behavior. His current investigations include vibro-fluidization of lunar regolith under microgravity, polarization-entangled photon-pair generation, and thermovibrationally-driven particle accumulation phenomena. These projects address critical challenges in space exploration and quantum information processing. Recent publications reveal a strategic dual-track research trajectory: quantum optics advancements (particularly stable entangled photon sources using folded interferometers) and space engineering applications (fiber dispersion manipulation and regolith fluidization in microgravity). This synergy between quantum technology and aerospace systems defines his innovative approach. His scientific recognition includes: Hermann Oberth Gold Medal/Graduate 1st Prize (2024) Rudy Scavuzzo PhD Student Paper Competition (2017) IMECHE Conference grant (2017) Dr. Anwar currently leads multiple industry-funded projects including DEM tool development for wear prediction (Weir Group, 2024-2027) and XAI for high-pressure grinding rollers. His collaborative work with Marcello Lappa and Peter Watson on space environment vibrations demonstrates strong industry-academia partnerships focused on practical engineering solutions. He actively collaborates with the Microgravity Research Group at Strathclyde, contributing to the university's Space Engineering initiative through experimental and computational studies of particle dynamics in low-gravity conditions.

Yanne ChemboView profile

Associate Professor

• Nonlinear Optics
• Quantum Photonics
• Stochastic Phenomena
• +9 more

Yanne Chembo is an Associate Professor in the Department of Electrical and Computer Engineering (ECE) and the Institute for Research in Electronics and Applied Physics (IREAP) at the University of Maryland. He holds dual affiliations and leads research in nonlinear, quantum, and stochastic phenomena in optoelectronics, microwave photonics, and laser physics. His work targets applications in aerospace systems, optical communications, time-frequency metrology, quantum networks, and fiber sensors. Before joining UMD in 2019, he was a Research Director at CNRS (France), leading a group focused on photonic systems such as high-Q whispering-gallery mode resonators and optoelectronic oscillators. He is a Fellow of OSA and SPIE. His research group (PACES Lab) explores photonic architectures for advanced applications including machine learning and quantum technologies. Key research trends include the development of ultra-broadband Kerr microcombs, topological frequency combs, and reservoir computing with optoelectronic systems. His recent work emphasizes multi-timescale synchronization, synthetic frequency lattices, and noise analysis in optoelectronic oscillators. Applications span aerospace systems, quantum communication, and high-precision metrology. Awards: Fellow of OSA (2020), Fellow of SPIE (2021) Labs/Teams: PACES Lab, UMD’s IREAP/ECE collaboration Grants/Advising: No explicit grants or student advisees listed in text; focuses on experimental/theoretical research leadership.

• Turbulence Studies
• Magnetohydrodynamics (MHD)
• Quantum Fluid Dynamics
• +3 more

Dr. Dan Lathrop is a Professor at the University of Maryland's Department of Physics, leading the Nonlinear Dynamics Laboratory. His research focuses on turbulence, magnetohydrodynamics, and geophysical fluid dynamics, with a particular emphasis on modeling planetary magnetic fields using liquid sodium experiments. He oversees the 3-meter geodynamo experiment, aiming to replicate Earth's core dynamics. His work bridges experimental physics, computational modeling, and geophysics, with applications in understanding planetary interiors and astrophysical phenomena. Dr. Lathrop's research interests include turbulence modification by rotation and magnetic fields, quantum fluid dynamics, and the development of novel geophysical sensors for landmine detection. He has collaborated on interdisciplinary projects involving UAVs, machine learning, and reservoir computing. His lab has been featured in media outlets like Terp Magazine and Veritasium for its groundbreaking experiments. He advises multiple graduate students and has mentored former researchers now in academia and industry. His experimental setups, such as the sodium-filled spherical Couette device, explore magnetic dynamo action and helicity effects. Recent work includes advancements in magnetic gradiometry, superparamagnetic tunnel junctions, and stochastic computing hardware. Dr. Lathrop's team integrates field robotics, multisensor platforms, and AI for environmental monitoring and UXO detection, demonstrating a commitment to applied physics with societal impact.

• Colloidal Synthesis
• Quantum Materials
• Opto-electronic Properties
• +4 more

Prof. Daniël Vanmaekelbergh is a Professor of Chemistry and Physics of Nanostructures at Utrecht University's Department of Chemistry, affiliated with the Science Faculty and the Debye Institute for Nanomaterials Science. His research focuses on colloidal synthesis of low-dimensional semiconductors, cryogenic scanning tunneling microscopy (STM), and artificial lattices as quantum simulators . He leads the Vanmaekelbergh Lab, collaborating with SWARTLAB.EU on quantum materials. Grants include Dutch NWO projects (2019–2023, 2016–2022) and an ERC Advanced Grant (FIRSTSTEP, 2016–2022). His publications total 416 peer-reviewed papers with an H-index of 84 (Google Scholar, 2021). Education : PhD in Chemistry (1984, Rijksuniversiteit Gent) Roles : Director of Debye Institute (2018–2021), Editorial Board member of Physics Reports Research Interests span quantum emitters, Dirac materials, and nanocrystal superlattices. Key techniques include HAADF-STEM, optical spectroscopy, and STM manipulation. Awards include the Descartes–Huygens Prize (2017) and Honorary Membership in the Israel Chemical Society (2018). He has advised over 40 PhD students, with recent graduates including Dr. Maaike van der Sluijs (2024) and Dr. Jesper Moes (2024). Labs/Teams : Vanmaekelbergh Lab and SWARTLAB.EU collaboration focuses on "atomic-scale engineering of quantum materials" .

Subrata DasView profile

Research Fellow

• Theoretical Quantum Physics
• Quantum Gas
• Bose-Einstein Condensate
• +3 more

Subrata Das is a Postdoctoral Researcher at Virginia Tech's Center for Quantum Information Science & Engineering within the Department of Physics, College of Science. Working under Professor Vito Scarola, he conducts advanced research on quantum many-body systems using Tensor Network methods including Matrix Product States and Tree Tensor Networks. His office is located at 106 Robeson Hall in Blacksburg, Virginia. Das earned his PhD from the Indian Institute of Technology Kharagpur specializing in Quantum Turbulence in Bose-Einstein Condensates. His academic journey began with undergraduate studies at the University of North Bengal, followed by postgraduate work at the University of Calcutta where he received the prestigious DST-INSPIRE Scholarship for academic excellence. His research expertise spans Theoretical Quantum Physics with emphasis on Quantum Gas systems, Bose-Einstein Condensates, and Many-Body Physics. Das utilizes Tensor Network methods and DMRG to investigate Quantum Vortices and Quantum Turbulence in ultracold quantum systems. With over six years of experience, he has developed scientific code in C++ and excels in data post-processing using Python for high-performance computing applications. Das's publication record demonstrates consistent contributions to understanding supersolids, quantum turbulence, and dipolar quantum gases. His work reveals patterns in vortex dynamics, phase transitions in dipolar Bose-Einstein condensates, and computational approaches to quantum many-body problems, often involving collaborations with leading physicists in the field. DST-INSPIRE Scholarship for academic excellence Google Cloud Platform Research Credits ($5,000) for large-scale quantum turbulence simulations As a postdoctoral researcher, Das contributes to Virginia Tech's quantum research ecosystem supported by computational resources including Google Cloud Platform credits. His work bridges theoretical physics with computational approaches to advance understanding of quantum phenomena with potential applications in quantum technologies. Das actively collaborates with the Center for Quantum Information Science & Engineering, engaging with researchers in quantum computing, simulation, and information theory. His current projects focus on vortex dynamics in quantum fluids and computational methods for large-scale quantum systems, positioning him at the forefront of theoretical quantum physics research.

• Petroleum Geochemistry
• Organic Geochemistry
• Hydrocarbon Exploration
• +3 more

Nikos Pasadakis is a Professor at the School of Mineral Resources Engineering, Technical University of Crete. His office is located in the MICHOP Building (Office M1.207), and he can be contacted via email at npasadakis@tuc.gr or phone at +30 2821037669. His academic profile indicates active engagement in petroleum geochemistry and hydrocarbon research. Professor Pasadakis's research focuses on: Geochemical characterization of hydrocarbon systems Source rock evaluation and kerogen kinetics Sedimentary basin analysis Reservoir characterization Petroleum exploration methodologies His work frequently integrates analytical chemistry with geological modeling to assess hydrocarbon potential across Mediterranean and Southeast Asian basins. His recent publications (2021-2025) demonstrate a strong focus on: Advanced analytical techniques for petroleum characterization Integrated basin modeling approaches Source rock potential in diverse geological settings Innovative methods for reservoir assessment Publications frequently examine Greek sedimentary basins while incorporating comparative studies from Australia, Brunei, and Mediterranean regions.

François SchweisguthView profile

Researcher

• Developmental Biology
• Cell Biology
• Notch Signaling
• +11 more

François Schweisguth is a CNRS Research Director and Unit Head at the Institut Pasteur in Paris, where he leads research in developmental and stem cell biology. He is also the co-coordinator of Labex REVIVE and has previously directed the CNRS UMR3738 and the Department of Developmental and Stem Cell Biology (BDCS). His work focuses on cell signaling, morphogenesis, and pattern formation using Drosophila as a model system. Education: PhD in Developmental Biology, University Paris 6 (1990) Postdoctoral Fellow, University of California San Diego (1990–1993) Studies at École Normale Supérieure, Paris (1983–1988) Research Interests: His research investigates the mechanisms of Notch signaling, epithelial morphogenesis, asymmetric cell division, and self-organization during development. He combines genetic, cell biological, and biophysical approaches to understand how cell fate decisions are made and how tissues are patterned during embryogenesis. Recent Research Trends: His recent publications (2019–2024) highlight a focus on dynamic aspects of Notch signaling, pulsatile behaviors in tissue patterning, optogenetic manipulation of signaling pathways, and the role of cytoskeletal dynamics in cell fate determination. These works often involve mathematical modeling and quantitative imaging, reflecting an interdisciplinary approach to developmental biology. Scientific Awards: CNRS Silver Medal (2006) EMBO Member (2012) Prix Zermati, Fondation de France (2012) Prix Jaffé, French Academy of Science (2005) Academia Europaea Member (2016) Prix Charles-Leopold Mayer, French Academy of Science (2015) Bronze Medal of the CNRS (1996) Prix Lebrasseur, Fondation de France (2019) Advising and Grants: As a long-standing group leader and department head, he has mentored numerous researchers and secured sustained funding through CNRS, Labex REVIVE, and Institut Pasteur. He co-directs a Stem Cell Biology course and has led multiple research projects on epithelial morphogenesis, Notch signaling, and fate patterning. Labs and Teams: He leads a research unit at the Institut Pasteur focused on developmental mechanisms in Drosophila. His former and ongoing projects include studies on asymmetric cell division, cell polarity, Notch biology, and self-organized patterning. The team employs advanced techniques such as optogenetics, live imaging, and genetic screening.

Damià Agustí Gomila VillalongaView profile

Researcher

• Nonlinear Dynamics
• Applied Mathematics
• Pattern Formation
• +5 more

Damià Agustí Gomila Villalonga serves as University Research Institute Staff at the University of the Balearic Islands (UIB), actively contributing to graduate education and research in complex systems. He teaches multiple courses across the Master's Degree in Advanced Physics and Applied Mathematics and the Master's Degree in Physics of Complex Systems programs. His research focuses on the dynamics of spatial structures in nonlinear extended systems, with three primary current research lines: dynamics and stability of Kerr frequency combs, nonlinear dynamics and collective phenomena in power grids, and pattern formation in clonal growth plants. His methodological expertise includes mathematical approaches for partial differential equations, semianalytical techniques, and high-throughput computational simulations. Dr. Gomila Villalonga is an active member of two Consolidated R&D&I Groups: Complex Quantum Systems: Methods, Foundations and Applications (CoQuS) Complex Systems in Life and the Environment (CILIA) His specialties span the interdisciplinary areas of Non-linear optics and Plant ecology, reflecting his broad research portfolio that bridges physics, mathematics, and environmental science. His teaching portfolio includes advanced courses such as Dynamical Systems, Chaos and Patterns; Spatiotemporal Dynamics; and Pattern Formation across multiple academic years from 2020-21 through the upcoming 2025-26 term.

• Mechanics of Elastic Rods
• Cosserat Theory
• Biomechanics
• +7 more

Dr Geoff Goss is an Associate Professor in the Department of Mechanical Engineering and Design at London South Bank University, where he is also affiliated with the Bioscience and Bioengineering Research Centre. His academic journey is distinctive, having pursued his higher education part-time as a mature student. Education: BEng (Hons) in Mechanical Engineering – London South Bank University MSc in Nonlinear Dynamics and Chaos – University College London (UCL) PhD in Mechanical Engineering – University College London (UCL), supervised by Prof Michael Thompson (FRS) MA in Historical Research Methods – Birkbeck (part-time study) His research focuses on the large deformations of elastic rods using Cosserat theory , supported by a bespoke laboratory he developed for experimental validation. Key projects include the Modelling the Mechanics and Engineering Applications of Animal Whiskers (MMEAW) as Principal Investigator, collaboration on squirrel jumping dynamics with Exeter University, and insect wing mechanics with Dr Hamed Rajabi. His work bridges mechanics, biology, and engineering, contributing to bioinspired design and sustainable technologies. The 15 most recent publications reflect a strong trend in biomechanics and structural mechanics , particularly in biological filament systems like whiskers and wings. The research integrates theoretical modeling with experimental data, often applying Cosserat rod theory to understand tactile sensing, morphological adaptation, and dynamic response. There is also a notable interdisciplinary reach into historical research, as seen in his 2025 publication on labor history. Scientific Awards and Recognition: Co-Investigator on a Royal Society APEX grant for whisker research Dr Goss has supervised postgraduate research, including at least one student, and has secured external funding for multidisciplinary projects. His teaching responsibilities include Dynamics and Control , Dynamics and System Modelling , and Advanced Solid Mechanics and Dynamics . He previously worked as a Welding Technician at LSBU and as a Coded Pipe Welder in industry, bringing practical engineering experience into his academic role. He is actively engaged in laboratory development and experimental mechanics, contributing to both fundamental science and engineering applications. His collaborations span institutions including UCL, MMU, Exeter University, and Birkbeck, reflecting a broad academic network.

Frank FrostView profile

Researcher

• Surface Engineering
• Nanotechnology
• Ion Beam Applications
• +3 more

Frank Frost is a leading researcher at the Leibniz Institute for Surface Modification (IOM) in Leipzig, Germany. He has held the position of Group Leader for Ion Beam Structuring and Smoothing since 2013, following earlier roles as a Research Associate (1995–2003) and Group Leader for Layer Deposition and Structuring (2003–2012). Education: Diploma in Physics, University of Leipzig (1995) Doctorate in Natural Sciences, University of Leipzig (1998) Postgraduate studies in Analytics & Spectroscopy, University of Leipzig (2001–2008) His research focuses on ion-surface interactions , enabling sub-nanometer precision in optical surface engineering . This includes pattern formation, smoothing techniques, and industrial implementation of ion beam technologies. He has pioneered applications in nanostructuring titanium and germanium surfaces and reactive ion beam etching (RIBE) for optical components. Recent publications highlight his work on depth reference samples for nanoscale analysis (2019), ion beam planarization of diamond-turned surfaces (2017), and large-area smoothing via ion bombardment (2009). These studies span Materials Science , Nanotechnology , and Optical Engineering , emphasizing industrial scalability. Scientific Awards: Science and Technology Award of the Leibniz Institute for Surface Modification (IOM), 2012 Frost has contributed to major collaborative projects, including the DFG Research Unit FOR 845 (2007–2015) on self-organized nanostructures and the SHAPION initiative (2012–2015) for ultra-precise surface manufacturing. He co-founded Trionplas GmbH in 2017 and serves on the Scientific and Technical Council of IOM since 2001–2008 and 2013 onward.