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Liang DongView profile

Professor

• Photonics
• Optical Fibers
• Fiber Lasers
• +4 more

Liang Dong is a Professor of Electrical and Computer Engineering at Clemson University's College of Engineering, Computing and Applied Sciences, with over 30 years of pioneering work in photonics and optical fiber technology. His research spans materials science, laser physics, and system integration for telecommunications, industrial machining, and medical applications. His academic foundation includes: Ph.D. in Optical Fibers from University of Southampton (1992) M.Sc. in Communication Engineering and Digital Electronics from University of Manchester Institute of Science and Technology (1987) B.Sc. in Electronics from Harbin Institute of Technology (1985) Dr. Dong's research explores fundamental and applied aspects of fiber lasers and optical amplifiers, with emphasis on power scaling, beam quality preservation, and novel materials. His work addresses critical challenges like transverse mode instability, thermal management, and quantum defect minimization through innovative fiber designs including single-crystal fibers and photonic bandgap structures. Current investigations focus on breaking power barriers while maintaining diffraction-limited output for industrial and scientific applications. Analysis of his recent publications reveals a strategic shift toward ultra-high-power fiber lasers with quantum-defect engineering, single-crystal fiber amplifiers, and sophisticated modeling of thermal instabilities. His work consistently targets practical solutions for power scaling limitations while exploring new material systems like lutetium oxide and borogermanosilicate compositions for specialized applications. His distinguished recognition includes: Fellow of IEEE for contributions to high-power fiber lasers Fellow of The Optical Society (OSA) for advancements in fiber amplifier technology Fellow of SPIE for innovations in optical fiber design Dr. Dong has authored approximately 300 publications, 27 patents, and the authoritative book "Fiber Lasers: Basics, Technology and Applications." His editorial leadership as associate editor for Optica and IEEE journals, along with committee roles in major photonics conferences, demonstrates significant influence in the field. Research funding has supported extensive experimental work in fiber fabrication and laser development. At Clemson University, he leads advanced photonics research focusing on next-generation fiber laser architectures, with current projects targeting kilowatt-level diffraction-limited systems through novel thermal management and fiber design strategies.

Judson D. RyckmanView profile

Associate Professor

• Nanophotonics
• Silicon Photonics
• Integrated Optics
• +5 more

Dr. Judson D. Ryckman is an Associate Professor of Electrical and Computer Engineering at Clemson University's College of Engineering, Computing and Applied Sciences. He leads the Nanophotonics Laboratory and conducts research at the Duke Energy Innovation Center and Advanced Materials Research Laboratory. His work bridges engineering, physics, and biotechnology to develop novel photonic solutions for real-world applications. Dr. Ryckman received his educational training at Vanderbilt University, where he earned both his B.E. and Ph.D. degrees in Electrical Engineering in 2008 and 2013, respectively. His doctoral dissertation was titled "Porous and Phase Change Nanomaterials for Photonic Applications." Dr. Ryckman's research focuses on nanophotonics and silicon photonics, with particular emphasis on developing photonic platforms for applications in sensing, biomedicine, food safety, and computing. His lab specializes in creating integrated optical devices, porous nanomaterials for flat optics, nanofabrication techniques, and colorimetric biosensors that can be read by the naked eye or smartphone. The group's work on hyperchromatic structural color has enabled perceptually enhanced sensing without expensive instrumentation, while their research on silicon photonic integrated circuits has advanced optical security applications. Their publications demonstrate a strong focus on pushing the boundaries of optical sensitivity, miniaturization, and practical implementation. NSF CAREER Award Air Force Office of Scientific Research Young Investigator Program Award Best Student Paper Award at IEEE Group IV Photonics (2012) 2nd Prize for Best Student Paper at IEEE Group IV 2021 As an advisor, Dr. Ryckman mentors numerous graduate and undergraduate students in the Nanophotonics Laboratory. His research is supported by significant grants from the National Science Foundation and the Air Force Office of Scientific Research. He serves on technical committees for conferences such as IEEE Optical Interconnects and reviews for journals published by IEEE and OSA, contributing to the advancement of the photonics field through both research leadership and community service. The Nanophotonics Laboratory operates within Clemson's Advanced Materials Center research park, utilizing state-of-the-art facilities including the Duke Energy Innovation Center and the Advanced Materials Research Laboratory. The lab's interdisciplinary team combines expertise in electrical engineering, materials science, and biotechnology to push the boundaries of photonic device development and application, with ongoing projects spanning from fundamental light-matter interactions to commercializable sensing technologies.

• Retinopathy of Prematurity
• Pediatric Ophthalmology
• Inherited Retinal Degenerations
• +3 more

Lotta Gränse is a Clinical Associate Professor (Docent) and Senior Consultant (Överläkare) in Ophthalmology at Lund University's Faculty of Medicine, Department of Ophthalmology. She serves as Project Manager for the Retinopathy of Prematurity Research project and conducts clinical research on inherited retinal degeneration in families, with affiliations at Lund University Hospital. Her research centers on pediatric ophthalmology with intense focus on Retinopathy of Prematurity (ROP), spanning clinical trial design for novel interventions like dexamethasone eye drops, national epidemiological analyses of ROP treatment patterns in Sweden, and investigations into genetic eye disorders such as tuberous sclerosis complex. She pioneers biomarker research including neurofilament light chain applications for detecting neurological complications in preterm infants. Recent publications (2024-2025) reveal consistent themes: development of preventive ROP therapies, national healthcare system evaluations for ROP management, and longitudinal studies tracking ophthalmological outcomes into childhood. Her work integrates clinical practice with cutting-edge research on genetic retinal disorders and neonatal visual system development. As Project Manager for the Retinopathy of Prematurity Research project and key collaborator in the DROPROP multi-centre trial, Dr. Gränse directs significant research initiatives funded through institutional and collaborative grants. She actively contributes to academic discourse through workshop organization, including the 2019 "Imaging the visual system" seminar. She operates within Lund University's Ophthalmology research ecosystem, maintaining extensive national and international collaborations evident in her work on ROP, tuberous sclerosis, and biomarker validation. Her primary affiliations include the Retinopathy of Prematurity Research project and the DROPROP collaboration group, connecting neonatology, neurology, and genetics specialists.

Haogang CaiView profile

Assistant Professor

• Biosensing
• Nanotechnology
• Optical Physics
• +3 more

Haogang Cai is an Assistant Professor in the Department of Radiology at NYU Grossman School of Medicine. He holds a PhD from Columbia University and leads the Cai Lab, focusing on advanced nano-bio interfaces for biosensing and diagnostics. Education: PhD from Columbia University Current Position: Assistant Professor, Department of Radiology, NYU Grossman School of Medicine Dr. Cai's research spans nanotechnology, biosensing, and cell mechanobiology, with a particular emphasis on metasurface-based optical biosensors and ligand-cell interaction studies. His work integrates nanophotonics, biomedical engineering, and surface engineering to develop innovative diagnostic platforms. Recent publications highlight advancements in TiO₂ nano-biopatterning, dielectric metasurfaces, and CRISPR-Cas13a sensing technologies. His team has also pioneered superhydrophobic-optofluidic devices and explored liquid crystal tunable metasurfaces for visible light applications. The Cai Lab employs cutting-edge techniques like microstereolithography and super-resolution microscopy to analyze cell adhesion, ligand positioning, and nanoscale optical transmission. These studies bridge biophysics, materials science, and biomedical diagnostics.

Ian CameronView profile

Professor

• Rehabilitation
• Disability
• Aging
• +4 more

Professor Ian Cameron holds the Chair in Rehabilitation Medicine at the University of Sydney's School of Health Sciences, Faculty of Medicine and Health. He serves as Head of the John Walsh Centre for Rehabilitation Research within the Kolling Institute, Northern Sydney Local Health District. Concurrently, he maintains Senior Staff Specialist positions at Hornsby Ku-ring-gai Hospital and Southern NSW Local Health District. His research focuses on injury-related disability and rehabilitation, with specific expertise in: Disability and health in older adults Musculoskeletal injury in compensable settings Catastrophic injury management Geriatric rehabilitation Epidemiology of injury outcomes His work integrates clinical, epidemiological, and implementation research methodologies with interdisciplinary collaboration. Recent publications reveal strong trends in: Geriatric trauma rehabilitation (hip fractures, falls prevention) Compensable injury systems analysis Spinal cord injury community integration Long-COVID rehabilitation protocols Mental health impacts of traffic injuries His research consistently addresses real-world implementation challenges in rehabilitation systems. Award highlights: 2014 Sidney Licht Lectureship Award (International Society of Physical Medicine and Rehabilitation) 2014 George Burniston Oration Award (Australasian Faculty of Rehabilitation Medicine) Professor Cameron actively contributes to national health systems through: Grant Review Panels for NHMRC and NZ Health Research Council Advisory roles for NSW State Insurance Regulatory Authority and Lifetime Care Policy development for WorkCover and Area Health Services Editorial leadership as Associate Editor of Journal of Rehabilitation Medicine His educational roles span the Royal Australasian College of Physicians and University of Sydney Medical Program. The John Walsh Centre for Rehabilitation Research serves as his primary research hub, conducting interdisciplinary studies on injury-related disability with strong partnerships across government agencies, health districts, and international consortia including ConsoRTI.

• Electromagnetics
• Computational Electromagnetics
• Transformation Electromagnetics
• +7 more

Ozlem Ozgun is a Professor in the Department of Electrical and Electronics Engineering at Hacettepe University, Ankara, Turkey. She serves as Vice Dean of the Faculty of Engineering (2021-present) and previously held leadership roles including Department Vice Chair (2017-2020) and Chair of the Electromagnetic Fields and Microwave Techniques Division (2021-2024). Her academic journey includes positions at TED University as Founding Department Chair (2012-2015) and at Middle East Technical University-Northern Cyprus Campus as Assistant Professor (2008-2012). Education: Ph.D (2007): Middle East Technical University, Dept. of Electrical and Electronics Engineering M.Sc (2001): Bilkent University, Dept. of Electrical and Electronics Engineering B.Sc (1998): Bilkent University, Dept. of Electrical and Electronics Engineering Professor Ozgun's research focuses on computational electromagnetics with emphasis on transformation electromagnetics, finite element methods, and radio wave propagation. Her work bridges theoretical electromagnetics with practical applications in radar systems, antenna design, and wireless communications. She has pioneered techniques using coordinate transformations to solve complex electromagnetic problems, developing innovative methods for modeling scattering phenomena, wave propagation, and metamaterial applications. Her research has significant implications for radar cross-section reduction, microwave imaging for medical applications, and 5G communication systems. Analysis of her recent publications reveals a consistent focus on advancing computational techniques in electromagnetics, particularly through transformation optics and domain decomposition methods. Her work shows increasing integration of machine learning approaches with traditional electromagnetic modeling, especially in radar cross-section analysis and inverse synthetic aperture radar techniques. There's also a strong emphasis on practical tools development, with multiple software packages released for public use including PETOOL, GO+UTD, and VectGUI. Scientific Awards: Hacetepe Science Award (2024) IEEE Antennas and Propagation Society Distinguished Lecturer (2025-2027) Top 2% of the 'career-long impact' category in the world's most influential scientists list (2023-2024) URSI elevation to senior membership (2020) IEEE elevation to senior membership (2013) Prof. Dr. Leopold B. Felsen Award for Excellence in Electromagnetics (2009) Professor Ozgun has supervised 15 graduate students to completion, with research spanning radar cross-section computation, electromagnetic scattering, and microwave imaging. She has secured multiple research grants including TÜBİTAK-TEYDEB and TÜBİTAK-ARDEB projects focused on high-frequency radar analysis and electromagnetic modeling. Her professional service includes significant editorial roles and leadership positions in URSI-Turkey where she served as President of the Steering Committee (2018-2023). She is actively involved in developing computational tools for electromagnetic education and research, with several MATLAB-based applications available for public use. Her research group maintains strong collaborations with international institutions including Penn State University, and she has established a productive research environment focused on advancing computational electromagnetics through innovation in numerical methods and practical applications.

Jennifer ReillyView profile

Associate Professor

• Optometric Education
• Clinical Optometry
• Vision Science
• +1 more

Jennifer Reilly is an Associate Professor of Optometry at the New England College of Optometry ( NECO ). Her expertise spans optometric education , clinical optometry , and vision science , with a focus on primary care optometry and ocular disease management . She contributes to academic clinical research and serves as a preceptor for optometry students. Education : MSc , Vision Science, New England College of Optometry OD , New England College of Optometry Residency : Primary Care and Ocular Disease, Boston VA Healthcare System, Brockton. Her research emphasizes optometric education , including the development of clinical training tools and case-based learning. Publications highlight advancements in ocular examination techniques , refractive error measurement , and community health training for optometry students. Professional Honors & Awards : 2024 OD1 Preceptor of the Year, NECO 2023 Dupuis-Pellerin Award for Faculty Excellence, NECO 2022 Carroll Martus Award for Outstanding Clinical Instruction, NECO 2022 OD1 Preceptor of the Year, NECO 2021 OD1 Preceptor of the Year, NECO 2019 OD1 Preceptor of the Year, NECO 2018 Fellow, American Academy of Optometry Reilly is affiliated with professional organizations including the American Academy of Optometry ( AAO ), American Optometric Association ( AOA ), Association for Schools and Colleges of Optometry ( ASCO ), and Massachusetts Society of Optometrists ( MSO ).

• Pediatric ophthalmology
• Cataracts
• Glaucoma
• +5 more

Rosanne Superstein is a Clinical Associate Professor in the Department of Ophthalmology at the University of Montreal's Faculty of Medicine. She maintains strong affiliations with major Montreal medical institutions, including membership in the CRCHUM (Research Center of the University Hospital Center of the University of Montreal) and clinical work at the Centre hospitalier universitaire Sainte-Justine (CHU Sainte-Justine), a leading pediatric hospital. Dr. Superstein's research focuses on critical areas of pediatric ophthalmology, with particular expertise in pediatric cataracts and glaucoma , strabismus (both pediatric and adult), retinoblastoma , and retinopathy of prematurity . Her work bridges clinical practice and research, addressing both common pediatric eye conditions and rare ocular diseases. Analysis of her recent publications reveals a strong emphasis on evidence-based approaches to pediatric eye care. Her research spans clinical trials on refractive error management, international epidemiological studies of retinoblastoma, investigations into novel treatments for retinopathy of prematurity, and basic science research on retinoblastoma mechanisms. This breadth demonstrates her commitment to advancing both clinical practice and scientific understanding in pediatric ophthalmology. Dr. Superstein has made significant contributions through collaborative research networks, particularly the Pediatric Eye Disease Investigator Group and the Global Retinoblastoma Study Group. Her work on retinopathy of prematurity treatments, including studies of bevacizumab outcomes, has important implications for neonatal eye care worldwide. Her research on strabismus management provides valuable clinical guidance for ophthalmologists treating children with eye alignment disorders.

Akhlesh LakhtakiaView profile

Professor

• Electromagnetics
• Metamaterials
• Nanophotonics
• +7 more

Akhlesh Lakhtakia is an Evan Pugh University Professor in the Department of Engineering Science and Mechanics at Penn State University's College of Engineering. He holds multiple prestigious editorial positions including Series Editor for Electromagnetics and Metamaterials, Synthesis Lectures on Electromagnetics, and Nanophotonics. His research spans electromagnetics, metamaterials, nanophotonics, and biologically inspired design, with particular focus on sculptured thin films and chiral materials. Dr. Lakhtakia's research interests encompass the theoretical and applied aspects of sculptured thin films, chiral materials, electromagnetic theory, and biomimicry. He has pioneered research in negative refraction, surface plasmon polaritons, and the circular Bragg phenomenon. His work bridges fundamental electromagnetic theory with practical applications in optical sensing, photonic devices, and biomimetic materials. He has developed theoretical frameworks for understanding wave propagation in complex materials and has explored bioinspired applications ranging from insect vision to fingerprint detection. His publication record shows consistent high-impact contributions across electromagnetics and photonics, with recent focus on biologically inspired design, metamaterials, and advanced analytical methods. The articles demonstrate progression from foundational theoretical work on sculptured thin films to increasingly sophisticated applications in sensing, optical devices, and renewable energy technologies. His research consistently explores the intersection of electromagnetics, materials science, and biomimicry. Nano 50 Award (2005) for Sculptured Thin Films (Technology) Nano 50 Award (2006) for Akhlesh Lakhtakia (Innovator) Dr. Lakhtakia has advised numerous graduate students and postdoctoral researchers, though specific names aren't provided in the source material. His research has been supported by multiple grants enabling the development of sculptured thin film technology and its applications. He has served as editor for several major journals and book series, significantly influencing the fields of electromagnetics and nanophotonics. His work on the Journal of Nanophotonics, which achieved a 2-year impact factor of 1.854 in 2010, demonstrates his leadership in advancing the field. His laboratory has pioneered the development of sculptured thin film technology, creating novel nanostructured materials with applications in optical sensing, photonic devices, and biomimetic systems. The research team has developed techniques for mass replication of biotemplates, nano-resurfacing of bones, and bioinspired waveplates. Current work focuses on advancing the theoretical understanding of chiral materials while exploring new applications in optical sensing, renewable energy, and biomedical devices.

• Materials Physics
• General Physics
• Electromagnetism
• +1 more

Türkan MALKOÇ serves as an Assistant Professor and Department Head at Kafkas University's Kağızman Vocational School within the Department of Medical Services and Techniques since 2018. Her academic career spans materials physics research with focus on shape memory alloys and magnetic properties, while teaching opticianry courses including Opticianry I-III, Refraction, Contact Lens, and Quality Assurance. Education: PhD in Physics (2011-2014), Fırat University, Institute of Science Associate Degree in Law (2011-2013), Anadolu University, Open Education Faculty MSc in Physics (1999-2002), Fırat University, Institute of Science Bachelor of Arts in Physics (1995-1999), Fırat University, Faculty of Arts and Sciences Research Focus: Dr. MALKOÇ specializes in Materials Physics with emphasis on shape memory alloys, particularly ferromagnetic variants. Her work investigates the relationship between thermal treatments, microstructure, and magnetic behavior in Heusler alloys (NiMnSn, FeCrV systems) and Co-based alloys. She employs both experimental methods like thermal analysis and crystal structure characterization, alongside theoretical modeling approaches including the Transverse Ising Model. Her research has significant implications for developing advanced magnetic shape memory materials with potential applications in sensors and actuators. Publication Trends: Her 11 publications (6 journal articles, 5 conference papers) demonstrate consistent focus on shape memory alloys since 2003, with increased specialization in magnetic shape memory materials since 2014. Recent work centers on Heusler alloys, particularly examining electron concentration effects and thermal treatment impacts on phase transformation behavior. The research shows strong international recognition with 94 total citations and an h-index of 3. Research Leadership: Dr. MALKOÇ has led two significant research projects as Principal Investigator: 'Thermal treatment effect on NiMnSn-based magnetic shape memory alloy' (2022-2023) and 'Modeling of Cr doping effect on Fe50−xCr25+xV25 Heusler alloy' (2022-2023). She previously contributed as Researcher to 'Production and investigation of ferromagnetic shape memory alloys' (2013-2015). Her collaborative network spans multiple Turkish universities including Fırat University, Gazi University, and Bitlis Eren University, with frequent collaboration with researchers like Fethi Dağdelen and Mediha Kök.

Barzin MobasherView profile

Professor

• Theoretical and experimental mechanics of solids
• Development of new construction materials
• Aerospace engine containment systems
• +7 more

Barzin Mobasher is a Professor of Civil and Environmental Engineering in the School of Sustainable Engineering and the Built Environment at Arizona State University, where he has been a faculty member since 1991. He also holds an appointment as a Senior Global Futures Scientist with the Global Futures Scientists and Scholars program at ASU. His educational background includes: Ph.D. in Civil Engineering from Northwestern University M.S. in Civil Engineering from Northeastern University B.S. in Civil Engineering from University of Wisconsin-Platteville Professor Mobasher's research program focuses on the intersection of materials science, mechanics of solids, and structural design. His work centers on understanding failure mechanisms to develop safer products and systems across diverse applications including corneal surgery procedures, electric power insulators, jet engines, and earthquake-resistant buildings. His research methodology incorporates experimental stress analysis, constitutive modeling, and durability testing of composite materials to manipulate material toughness and strength. His specific research areas include theoretical and experimental mechanics of solids, development of new construction materials and processes for manufacture, analysis and design, aerospace engine containment systems, biomechanics of refractive surgeries, steel structural systems, durability of building materials, transport properties of solids, fracture mechanics of composites, composites for power delivery systems, and performance-based specifications. Analysis of Professor Mobasher's recent publications reveals a strong focus on fabric-reinforced cement composites, with significant work on pultrusion processes, mechanical properties characterization, and structural applications. His research spans civil engineering, materials science, biomechanics, and aerospace engineering, demonstrating his interdisciplinary approach. Key themes include the development of advanced composite materials for structural applications, understanding failure mechanisms, and applying this knowledge to practical engineering problems across multiple industries. Professor Mobasher has secured substantial research funding from national and international organizations including NSF, FAA, DOT and various industrial entities. His research activities demonstrate a consistent pattern of collaboration with transportation departments, materials manufacturers, and engineering firms to address practical challenges in construction materials and structural systems.

• Disease Modeling
• Host-Parasite Dynamics
• Data Analytics
• +7 more

Professor Crawford Revie is a Professor of Data Analytics in the Department of Computer and Information Sciences at the University of Strathclyde's Faculty of Science. He holds a joint position as Senior Expert: Early Warning Information Systems at the UN's Food and Agriculture Organisation (FAO) since 2023, and has been an Adjunct Professor of Veterinary Epidemiology at the University Prince Edward Island since 2008. His research spans the critical intersection of informatics, data science, and life sciences with significant applications in global health and sustainable food systems. Professor Revie's research focuses on data-driven models of disease and host-parasite dynamics in both human and animal populations. His work in Canada centered on fish health and sustainable salmon aquaculture, where his research group's work on sea lice modeling is widely acknowledged as world leading. Currently, he is developing mobile technology solutions for differential disease diagnostic support in rural communities in low- and middle-income countries using domain-agnostic design approaches based on machine learning and semantic models. His expertise in passive (or syndromic) surveillance of disease represents a significant contribution to public health monitoring systems. His recent publications demonstrate a strong focus on aquaculture epidemiology, particularly sea lice infestation in salmon populations, combining ecological data analysis with practical applications for sustainable fisheries management. He also makes significant contributions to veterinary epidemiology, antimicrobial resistance research, and the application of data science to marine biology and shellfish health, reflecting his interdisciplinary approach to solving complex biological problems through informatics. Scientific Recognition: Held a prestigious Canada Research Chair in Population Health: Epi-Informatics World-leading contributions to sea lice modeling research Impact on European Society of Cataract and Refractive Surgery guidelines that reduced sight loss for cataract surgery patients Professor Revie has secured significant research funding through projects including Sea lice dispersal models, KTP with Rico Developments Ltd, the D3F - Differential Disease Diagnosis Framework, and research on climate change impacts on pests and diseases. He has supervised multiple graduate students and collaborates extensively across disciplinary boundaries. As part of the Human Centric AI Research Group at Strathclyde, he leads initiatives that bridge computer science with practical applications in health and environmental sustainability, while his FAO position allows him to translate research into global policy impact.

• Soft Condensed Matter Physics
• Colloid Science
• Nanoscale Structuring
• +4 more

Krassimir P. Velikov is an Assistant Professor at Utrecht University's Soft Condensed Matter group within the Debye Institute for Nanomaterials Science. He holds a part-time position at Utrecht University while also working as Team Leader and Science Leader for Colloidal Dispersions and Nanoscale Structuring at Unilever R&D in Vlaardingen. Additionally, he serves as an Adjunct Associate Professor at North Carolina State University's Department of Chemical and Biomolecular Engineering and as program director for the 5B Molecular Structure of Food program at NanoNextNL. Dr. Velikov's research focuses on soft-condensed matter and colloidal dispersions, nanoscale structuring, colloidal self-assembly, and the application of colloids to control stability, appearance, texture, taste, and bioavailability of bioactives. His work bridges fundamental colloid science with practical applications in food science and nutraceutical delivery systems. His expertise spans from the physical chemistry of digestion to the formulation and delivery of functional ingredients. His recent publications demonstrate a strong focus on Pickering emulsions, colloidal assembly, food fortification, and nanoscale structuring. The research shows a consistent trajectory toward understanding and controlling colloidal phenomena for food applications, with particular emphasis on iron fortification, texture modification, and the development of responsive colloidal systems. His work often combines fundamental physical chemistry with practical food science applications. Dr. Velikov has extensive experience in both academic and industrial research settings, having worked at Unilever since 2002 while maintaining an active academic position. His research bridges the gap between fundamental colloid science and industrial applications, particularly in the food sector.

Kevin KöserView profile

Professor

• 3D Underwater Vision
• Robot Vision
• Photogrammetry
• +4 more

Kevin Köser holds dual affiliations: Professor of Computer Science at Kiel University (Marine Data Science) Emmy Noether Research Group Leader for "Oceanic Machine Vision" at GEOMAR Helmholtz Centre for Ocean Research, Kiel His research focuses on: 3D underwater robot vision and automated camera-based measurement for deep-sea environments Physical models of underwater light transport and imaging 3D mapping and reconstruction from deep-sea photos Novel vision methods for quantification in 2D, 3D, and 4D His work enables exploration, monitoring, and hazard assessment of deep-sea habitats. Recent publications demonstrate advancements in refractive photogrammetry, digital twins, and autonomous seafloor mapping. Scientific awards: Prof. Petersen Prize for Technology (VDI/VDE/PWP Foundation) Dissertation award (University of Kiel) DAGM 2011 Main Prize Emmy-Noether Programme grant (2019) Prof. Köser mentors computer science master's students on robust estimation, GPU computation, and underwater robotics. His group develops sensor systems for deployments from shallow waters (-40m) to abyssal depths (-5000m), constructing camera/sonar systems for deep-sea observation. The Oceanic Machine Vision group pioneers sustainable terabyte-scale marine image analysis, contributing to projects like DeepSurveyCam and TuLUMIS for optical surveying and multispectral imaging in extreme marine environments.

• Pain mechanisms
• Ion channel physiology
• Sodium channelopathies
• +5 more

Xiaoyang Cheng is a Research Scientist in the Department of Neurology at Yale School of Medicine, specializing in pain mechanisms and ion channel physiology. Working within the Center for Neuroscience and Regeneration Research, Dr. Cheng collaborates extensively with prominent researchers including Stephen Waxman, Sulayman Dib-Hajj, and Philip Effraim. Dr. Cheng's research focuses on understanding the molecular mechanisms of pain, particularly through the study of sodium channels (Nav1.7, Nav1.8) and other ion channels involved in sensory neuron function. Their work spans genetic studies of pain disorders, channelopathies, and the development of potential therapeutic targets for chronic pain conditions. Key research areas include TRP channels in ocular pain, sodium channel mutations in small fiber neuropathy, and the effects of natural toxins on pain signaling pathways. Analysis of Dr. Cheng's publication record reveals a strong focus on translational neuroscience, with research spanning molecular mechanisms, animal models, and human genetic studies. The work demonstrates consistent contributions to understanding how ion channel dysfunction leads to pathological pain states, with particular emphasis on sodium channel variants and their role in inherited pain disorders. Recent publications highlight work on TRPM8 mutations related to ocular pain and Nav1.8's role in chemotherapy-induced neuropathy. Dr. Cheng maintains active collaborations within the Yale neuroscience community and with international researchers, contributing to the understanding of pain mechanisms and potential therapeutic approaches. The research has implications for developing targeted treatments for chronic pain conditions that currently lack effective therapies.