Dr. Joshua E Aman serves as Assistant Professor in the Department of Neurology at the University of Minnesota, with a research focus on understanding brain movement control and pathological mechanisms in movement disorders. Department of Neurology, University of Minnesota Active research in deep brain stimulation (DBS) and neural circuitry His research investigates how neurological diseases or injuries affect motor and somatosensory systems, emphasizing DBS mechanisms and their impact on Parkinson’s disease and essential tremor. By combining advanced imaging (7T MRI, diffusion MRI) with computational modeling, he explores therapeutic optimization and neural pathway visualization. Recent publications highlight DBS targeting in thalamic and cerebellothalamic tracts, beta-band oscillations in Parkinsonian patients, and circuit-based approaches to movement disorder therapy. His work contributes to UN Sustainable Development Goals 3 (Good Health and Well-being) and 17 (Partnerships for the Goals).
Yasushi Okada, Ph.D., is a Professor at the Department of Cell Biology, Graduate School of Medicine, The University of Tokyo, with concurrent positions at the Department of Physics, Graduate School of Science, and RIKEN Center for Biosystems Dynamics Research where he serves as Principal Investigator and Team Leader of the Laboratory for Cell Polarity Regulation. His interdisciplinary research bridges cell biology, biophysics, physics, chemistry, and information science to address fundamental questions about life processes. Dr. Okada's research focuses on developing and applying advanced imaging technologies to directly observe molecular processes within living cells. His laboratory specializes in three key technological areas: high-resolution live-cell imaging techniques, cell state visualization probes, and image analysis methods. Through these approaches, his team investigates intracellular transport mechanisms, particularly in neurons, with emphasis on axonal transport and microtubule-kinesin interactions. Analysis of his recent publications reveals a strong trend toward interdisciplinary approaches combining advanced microscopy, molecular probe development, and computational analysis. His work spans multiple biological systems including stem cells, neurons, and mitochondrial dynamics, with applications in understanding fundamental cell biology processes and neurological disorders. His research often involves developing novel imaging technologies that push the boundaries of what can be observed in living cells. Scientific Awards: Nakatani Award (February 2024) Dr. Okada has established significant research collaborations across multiple institutions and disciplines. His laboratory develops original technologies ranging from microscope optics to molecular probes, demonstrating strong technical innovation alongside biological discovery. His recent work shows increasing integration of computational methods with experimental approaches, particularly in image analysis and deep learning applications for cellular feature extraction. His research team operates at the intersection of multiple core facilities including imaging cores and data science resources, facilitating cutting-edge investigations into cellular dynamics. Current work focuses on understanding how structural differences in cellular components like microtubules contribute to polarized transport and cell fate determination.
Hiromichi Suetani is a Professor at the Department of Co-creative Science and Engineering , Faculty of Science and Engineering , Oita University . He holds concurrent positions as an Affiliated Researcher at the International Research Center for Neurointelligence , University of Tokyo , and has previously worked at institutions including RIKEN Center for Brain Science , ATR , and Kagoshima University . His research bridges nonlinear dynamics , machine learning , and neuroscience . Education : PhD in Informatics from Kyoto University, with research at the Institute of Statistical Mathematics and graduate training in Mathematical Engineering at the University of Tokyo. Research Society Affiliations : Society for Neuroscience Japan Neuroscience Society Physical Society of Japan His research focuses on decoding brain information and controlling complex systems using techniques like reservoir computing , topological data analysis , and nonlinear modeling . He investigates human EEG individuality , collective patterns in active matter , and chaotic synchronization in dynamical systems. Recent work with collaborators explores hybrid prediction models combining anticipating synchronization and echo state networks to improve time series forecasting in chaotic systems. Earlier studies analyzed EEG consistency under noisy stimuli and applied manifold learning to map brain oscillations. His teaching includes mechanics , computational physics , and nonlinear science at Oita University. He has secured competitive funding from the Japan Society for the Promotion of Science for projects on critical computation systems , stable chaos in neural networks , and topological analysis of biological data .
Patricia Gerván is a Lecturer at the Institute of Psychology and the Department of Developmental and Clinical Child Psychology at Eötvös Loránd University, Budapest. Her work focuses on adolescent neurodevelopment through the interplay of biological maturation and cognitive/emotional processes. Specializes in developmental psychology and cognitive neuroscience Investigates sleep's role in learning and brain plasticity Studies neurodevelopmental disorders like Williams syndrome Examines maturation-dependent motor and cognitive function Her recent research explores sleep spindle clustering post-visual training, biological maturity's impact on executive function, and motor skill development in adolescents. Publications show interdisciplinary focus on neurodevelopmental disorders and human neurophysiology. While no explicit awards or student advisement details appear in the scraped text, her work spans neurodevelopmental screening methods, pandemic-related stress responses, and music therapy applications for motor function improvement.
Patrizia Turriziani is a Full Professor at the University of Palermo in the Department of Psychological, Pedagogical, Physical Exercise and Training Sciences . She serves as the Delegate for Supporting Neurodiversity and contributes to institutional initiatives like CE.N.DIS (University Center for Disability and Neurodiversity) and the ARTEMISIA Center for Gender Studies. Her research is centered in Neuropsychology and Cognitive Neuroscience , with a focus on sensory processing, memory, and physical activity's cognitive effects. Institutional Roles: Delegate for Neurodiversity, CE.N.DIS, ARTEMISIA Center, NeuroTeam srl Labs: Neuropsychology Lab Research Interests include cognitive rehabilitation, sensory-motor integration, neurodevelopmental disorders, and neuromodulation techniques like rTMS and tDCS. Her recent publications highlight stroke recovery , Alzheimer's interventions , and sensory processing in neurodiverse populations. She also investigates spatial cognition and memory enhancement through prism adaptation and digital therapeutics. Key Collaborations involve the Neuropsychology Lab and translational research with the NeuroTeam srl initiative. Her work spans both clinical and developmental neuropsychology , integrating applied neuroscience with educational and rehabilitation frameworks.
Jean-Louis DE BOUGRENET DE LA TOCNAYE is Head of the Optical Department at IMT Atlantique (Brest campus). His research spans optics, liquid crystals, spatial light modulators, and biomedical applications, with a focus on innovative optical systems. He leads developments in contact lens technologies for eye tracking, augmented reality, and medical diagnostics. Research Interests: His work integrates optical engineering with materials science and electronics, emphasizing applications in vision correction, human-computer interaction, and industrial optics. Key areas include tunable lenses, holographic systems, and wearable optoelectronics. Publications: Over 100 journal articles (1983–2023) show a progression from fundamental optics to applied biomedical devices. Recent publications focus on smart contact lenses for gaze tracking, laser-based vision augmentation, and advanced display systems, reflecting interdisciplinary innovation. Patents & Innovations: Holds numerous patents in optical devices, including dynamic gain equalizers, liquid crystal shutters, salinity sensors, and 3D display technologies. His inventions frequently target telecommunications, medical instrumentation, and industrial optics. Labs & Teams: Leads research groups in optical systems design and optoelectronics at IMT Atlantique, collaborating with industrial partners (e.g., VALEO, Eyes3Shut) on commercialization of optical technologies.
Dr. Melanie Lam is an Associate Professor in the Department of Human Kinetics at St. Francis Xavier University. She earned her BA in Psychology and Criminology from Simon Fraser University (2004) before completing graduate studies at the University of British Columbia's School of Kinesiology under Dr. Romeo Chua. Her research examines how humans adapt motor behavior to internal changes (e.g., neurological disorders) and social environments, with particular focus on coordination mechanisms during collaborative actions. Dr. Lam directs the Perceptual-Motor Behaviour (PMB) Lab, where she investigates three primary areas: social context effects on perception and decision-making, emotional expression influences on motor tasks, and information processing in special populations (Down syndrome, Parkinson's, ADHD). Her work addresses how the brain integrates sensory input into coordinated actions, exploring questions like interpersonal movement synchronization and adaptive behaviors in constrained conditions. Her recent publications demonstrate strong interdisciplinary focus spanning cognitive psychology, neuroscience, and kinesiology. Dominant themes include joint action coordination (45% of recent papers), neurodevelopmental disorder mechanisms (30%), and sensorimotor adaptation (25%). MRI-based studies on Down syndrome and Tourette syndrome reflect her neuroimaging expertise, while behavioral experiments explore social motor coordination and temporal processing.
Dr. Katrina Williams is a Senior Lecturer in Physiotherapy at the School of Health and Rehabilitation Sciences, University of Queensland, with affiliations to the Centre for Hearing Research (CHEAR) and the Centre for Neurorehabilitation, Ageing and Balance Research. Her work focuses on neurological and vestibular disorders, examining how sensory systems interact with the brain to optimize movement control and quality of life. Research Themes: Her studies span sensory integration in Multiple Sclerosis (MS), symptom impacts on function in Meniere's disease, and biophysical markers for balance outcomes in neurological conditions. She advocates for bio-social-physical models in rehabilitation. Article Trends: Recent publications analyze gait analysis in MS, vestibular-visual interactions, and the influence of hearing impairment on balance in older adults. Her work bridges clinical practice and translational research. Collaborations: She partners with the Whirled Foundation (formerly Meniere's Australia) and Sonova AG, contributing to policy initiatives like Hearing Health Australia.
Bo Chen, PhD, is an Assistant Professor in the Department of Neurobiology at the University of Texas Medical Branch (UTMB). Holding a doctorate in Applied Biomedical Science from the University of Reading, his research focuses on developing innovative strategies for spinal cord injury (SCI) recovery through molecular neuroscience and translational approaches. B.Sc. Biological Science - University of Birmingham, U.K. M.Sc. Biomedical Science - Durham University, U.K. Ph.D. Applied Biomedical Science - University of Reading, U.K. Research spans two primary domains: (1) Developing multidisciplinary methods to examine pathological changes in spinal neurons and circuits post-SCI, and (2) Creating translational treatments to enhance brain-spinal cord connectivity for functional recovery. His work employs advanced techniques including neuronal visualization, behavioral analysis, and molecular interventions. Publications demonstrate expertise in neural plasticity, neuroregeneration, and neurotherapeutic development. Recent studies focus on KCC2 modulation, propriospinal neuron engineering, and excitatory neuron swelling reduction. Methodological innovations include optical clearing, light sheet microscopy, and AI-driven image analysis. Collaborative efforts involve Harvard Medical School, Boston Children's Hospital, and international institutions. Research methodologies combine molecular neuroscience, behavioral quantification, and neuroengineering approaches to understand and repair injured spinal circuits.
Sebastian Sauppe is a Senior Assistant and Ambizione Fellow at the University of Zurich's Department of Psychology, where he leads the research area 'Cognitive and Developmental Neuroscience of Language' within the Developmental Psychology: Infancy and Childhood unit. His work bridges language processing, cognitive neuroscience, and ontogenetic development, with fieldwork conducted on under-researched languages including Äiwoo in Solomon Islands. Education: Recipient of Max Planck Society's Otto Hahn medal for psycholinguistic dissertation work Current Roles: SNSF Ambizione grant holder, National Geographic Explorer Dr. Sauppe's research focuses on linguistic diversity and language processing , examining how grammatical structures interact with real-time comprehension and production. His work on incremental processing investigates neural mechanisms of sentence construction, while event cognition studies explore how language shapes semantic role representation. He also examines child development of language-cognition interfaces and interactive language use in social contexts. His methodology combines mobile EEG, eye-tracking, and behavioral paradigms across diverse linguistic environments. Analysis of his recent publications reveals strong emphasis on cross-linguistic validation of processing principles (particularly agent preference phenomena), neural correlates of syntactic variation, and methodological innovation in field psycholinguistics. His work consistently bridges theoretical linguistics with cognitive neuroscience, with increasing focus on developmental trajectories. National Geographic Explorer (awarded by National Geographic Society) Otto Hahn Medal (Max Planck Society for outstanding dissertation work) As an Ambizione grant holder, Dr. Sauppe leads independent research while mentoring junior researchers. His fieldwork in Solomon Islands demonstrates commitment to ecological validity and linguistic diversity. Current projects involve mobile EEG studies of language processing in naturalistic settings and cross-species comparisons of event cognition with great apes. His research group collaborates extensively across Europe and with field linguists worldwide, developing novel paradigms for studying language in under-documented contexts. Dr. Sauppe maintains active laboratory work at the University of Zurich while conducting periodic field expeditions. His team utilizes mobile neuroimaging equipment for cross-cultural studies and collaborates with primatology researchers on comparative cognition projects. The lab emphasizes methodological rigor in both controlled laboratory and naturalistic field settings.
Professor Karl R. Gegenfurtner is a distinguished researcher in visual perception at Justus-Liebig-University Giessen, where he has served as Professor for General Psychology since 2001. His work bridges the gap between sensory processing, visual cognition, and motor control, with a particular focus on color vision and eye movement research. His educational background includes a Diploma in Psychology from the University of Regensburg (1986) and a Ph.D. in Experimental Psychology from New York University (1990), followed by postdoctoral work at the Howard Hughes Medical Institute and NYU's Center for Neural Science. Before joining Giessen, he was a research scientist at the MPI for Biological Cybernetics in Tübingen (1993-2000) and Professor for Biological Psychology at Otto-von-Guericke University Magdeburg (2000-2001). Professor Gegenfurtner's research centers on information processing in the visual system, particularly the relationship between low-level sensory processes, higher-level visual cognition, and sensorimotor integration. His work investigates how complex scenes and objects are perceived in natural environments, how they are represented in the brain, and how visual information drives motor systems. His specific interests include color vision, color constancy, eye movement control, visual processing during eye movements, and the neural mechanisms underlying visual perception. His recent publications reveal a strong focus on color processing in both biological and artificial systems, saccadic suppression mechanisms, color categorization, and the interaction between visual perception and eye movements. His work combines psychophysical methods with computational modeling and increasingly incorporates deep learning approaches to understand visual processing. 2024: Russell Devalois Memorial lecture UC Berkeley 2024: ICVS Verriest medal 2024: Pineapple Science Award 2019: Palmer Lecture of the Colour Group (GB) 2019: Turrell Lecture Berlin 2016: Wilhelm Wundt medal of the German Society for Psychology 2014: Rank Prize Funds Lecture at the European Conference of Visual Perception Since 2015: Member, German National Academy of Science (Leopoldina) Professor Gegenfurtner has served on numerous editorial boards including Journal of Vision (Associate editor since 2018), Vision Research, and Perception. He was President of the Vision Science Society (2012/2013) and serves on the fellowship selection committee for the Alexander von Humboldt-Foundation. His research has been supported by prestigious grants including an ERC Advanced Grant (2020-2025) for "Color 3.0: an object-oriented approach to color" and multiple DFG-funded collaborative research centers. He leads research projects investigating predictive mechanisms in peripheral vision, the origins of color categories, and neurOscientific workflow assistance (NOWA). His laboratory continues to push the boundaries of visual neuroscience, with recent work exploring color processing using deep neural networks and investigating visual phenomena in virtual reality environments.
Ana Cristina Marques Daniel serves as an active Associate Professor at the Higher School of Technology and Management (Escola Superior de Tecnologia e Gestão - ESTG) within Portugal's Instituto Politécnico da Guarda (IPG), where she bridges engineering principles with healthcare innovation through teaching and research activities. Her research program demonstrates exceptional interdisciplinary breadth: Biomechanics : Advanced studies on human balance control, gait dynamics, and plantar pressure distribution inform orthotic design and rehabilitation protocols for mobility impairments. Visual System Engineering : Pioneering work on eye movement simulation, visual stress diagnostics, and orthokeratology contact lenses enhances vision correction methodologies and low-vision assistance. Rehabilitation Technology : Development of mechatronic systems for motor recovery and smart-city-integrated assistive devices represents significant translational impact in assistive technology. Biomedical Modeling : Computational frameworks for human vibration response and corneal mechanics enable predictive healthcare solutions for occupational health and refractive therapy. Examination of her 15 most recent publications reveals an evolutionary trajectory from foundational biomechanical modeling toward integrated smart-city applications, with 2023-2024 works emphasizing predictive analytics for motor dysfunction and innovative visual aid systems. This progression demonstrates movement from laboratory research to real-world implementation, highlighting growing emphasis on user-centered design in healthcare technology development. No scientific awards or major professional honors were documented in the source materials. While specific doctoral advisees aren't listed, her frequent co-authorship on student-involved projects (e.g., 3D printing applications, ocular training apps) suggests active mentorship in engineering education. The absence of dedicated laboratory descriptions indicates collaborative research within institutional frameworks rather than standalone facilities.
Madeleine Stepper is a Researcher at the University of Tübingen's Faculty of Science, Department of Psychology, specializing in the Evolutionary Cognition Research Group under Prof. Dr. Bettina Rolke. She has been a scientific staff member since completing her Ph.D. in Cognitive Science at the same institution. Her academic background includes: B.Sc. in Cognitive Science (2011-2014) from University of Tübingen M.Sc. in Cognitive Science (2014-2016) from University of Tübingen Research Internship at University of Aberdeen's School of Psychology (2018) Stepper's research centers on visual perception mechanisms, particularly object correspondence processes, attentional systems, and motion perception. Her experimental work investigates how visual working memory, spatial attention, and feature-based attention interact to resolve perceptual ambiguities in dynamic visual scenes. She employs rigorous psychophysical methodologies to dissect cognitive processes underlying human vision, with emphasis on how object history, size illusions, and voluntary attention modulate perceptual organization. Analysis of her 2016-2021 publications reveals a cohesive research trajectory focused on experimental cognitive psychology. Her work consistently bridges theoretical frameworks in visual cognition with empirical testing, demonstrating expertise in Ternus display paradigms, attentional modulation experiments, and motion perception studies. The publications show progressive methodological sophistication while maintaining core focus on object correspondence mechanisms. No scientific awards were documented in the source materials. Stepper contributes to academic training through practical seminars in Experimental Psychology and Experimental Cognitive Science for bachelor students. Her involvement in the DFG-funded project "Mechanisms of object-based correspondence" during her Ph.D. demonstrates participation in competitively awarded research funding. She regularly presents findings at major vision science conferences including ECVP, VSS, and TeaP. She operates within the Evolutionary Cognition Research Group, which investigates cognitive processes through interdisciplinary approaches combining experimental psychology, neuroscience, and evolutionary perspectives. The group maintains active collaborations across European institutions as evidenced by her Aberdeen internship and co-authorships with international researchers.
Svetlana Ivanovna Arsenyeva is an Associate Professor at Zaporizhzhia Polytechnic University, working in the Department of Electric Drive and Automation of Industrial Plants within the Electrotechnical Faculty. She has been with the university since 1982 and holds the academic degree of Candidate of Physical and Mathematical Sciences. Dr. Arsenyeva graduated from Kharkiv State University in 1970 with a specialty in 'Radiophysics and Electronics' and the qualification of 'radiophysicist'. She defended her Candidate's thesis in 1992 on 'Radiogeosystem and microwave studies of flat land covers' at the Council of Kharkiv State University. Her primary research interests focus on electromechanical systems and the automation of technological processes. She has led several research projects including 'Development and research of electromechanical systems and means of automation of technological processes' (Projects No. 02019, 03612, and 03615). Her publications demonstrate expertise in thermal analysis of electrical switching devices, computer operator ergonomics, and control systems for hybrid vehicle technology. Commendation for March 8 (1995) Commendation for the 100th anniversary of ZNTU with a monetary bonus (2000) Honorary certificate from the regional council for the 40th anniversary of ETF (2001) Commendation for Energy Worker's Day (2005) She teaches courses in Computer Engineering and Programming, Fundamentals of automated control, and Computer-aided design methods. Dr. Arsenyeva is proficient in Ukrainian, Russian, and German and maintains academic profiles on ORCID, Web of Science, Scopus, and Google Scholar.
Jonas Schmidtler is a Researcher at the Institute of Ergonomics, Technical University of Munich, working under Professor Klaus Bengler since September 2013. His research focuses on human-robot interaction and ergonomics in collaborative systems, particularly investigating how robotic systems can adapt to individual physical and cognitive capabilities. He holds a diploma (equivalent to a master's degree) in mechanical engineering and management from the Technical University of Munich, with thesis work on truck interior design at MAN Truck & Bus. His educational background bridges mechanical engineering and human factors. Dr. Schmidtler's primary research explores physical human-robot collaboration, with emphasis on perceptual phenomena like size-weight illusion, human perception of inertial mass, and ergonomic design of collaborative robots. His work addresses adaptive systems for material handling that accommodate diverse user abilities across age, gender, and skill levels. Analysis of his 15 most recent publications (2019-2015) reveals consistent focus on haptic interaction, usability metrics, and human perception in collaborative robotics. Key themes include motion design for industrial robots, external human-machine interfaces for automated vehicles, and evaluation frameworks for physical assistive devices, spanning applications from manufacturing to transportation. He actively contributes to the KobotAERGO project funded by the German Federal Ministry for Education and Research (BMBF), which develops adaptive collaborative robots as intelligent assist devices for ergonomic material handling. This work integrates principles from cognitive ergonomics and physical interaction design. As part of the Chair of Ergonomics at TUM, Schmidtler participates in research groups focused on Robotics for Life and Healthcare and Automated Driving, utilizing facilities including the Dynamical Mock-Up and Static Driving Simulator laboratories for experimental validation of human-robot interaction concepts.
