Neural Basis of Behavior
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Prof. Dr. Carlos Alos-Ferrer Research: Carlos Alós-Ferrer’s research foci are neuroeconomics, decision theory, game theory, evolution and learning in games and markets. Neuroeconomics studies the underlying neural processes of decision-making within today’s economic environment. Essential to the further progress of this field is the construction of empirically informed, testable models that connect the level of neural and mental processes underlying decision-making with the descriptive models of choice characterizing modern economics. Topics: Neural Basis of Behavior, Cognitive Neuroscience Publications: https://www.econ.uzh.ch/en/people/faculty/alos-ferrer/publications.html Website: https://www.econ.uzh.ch/en/people/faculty/alos-ferrer.html |
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PD Dr. Irmgard Amrein Research focus: We investigate eco-evolutionary adaptations in the structure of the mammalian hippocampus – How do structural specializations relate to the evolutionary history of animals? How do structural specializations translate into behaviors that allow the animals to successfully compete in their ecological niches? We perform comparative quantitative analysis of functionally defined neuron populations that also includes neurons that are born in adult animals. Most of the animals we study are wild-living species that show unique environmental adaptations. We have been able to define anatomical patterns that characterize taxonomic groups, and within these groups, habitat requirements that can shape quantitative relations between hippocampal cell populations - revealing surprising features that only nature is able to create. Keywords: hippocampus, behavior, adaptation, phylogeny, stereology, immunohistochemistry, neurogenesis Topic: Neural Basis of Behavior Publications: pubmed
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Dr. Giovanni Bertolini, Junior Group Leader Research Focus: The aim of the Swiss Space Travel and AiR Sickness (SSTARS) group is to investigate the mechanism of habituation and learning of self-motion perception in novel motion environments. A novel motion environment is any condition in which our brain fails to correctly interpret the motion stimuli. Such environments (from cars and ships to virtual reality and artificial gravity environments) cause motion sickness, spatial disorientation and other syndromes affecting performance and social interaction (sopite syndrome, mal de débarquement). Within our research activity, we develop non-invasive habituation protocols to counteract these conditions. The applications range from vestibular rehabilitation, acceptance of novel emerging technology (self-driving cars, virtual reality systems), quality of life and safety in transport systems. An important focus is on vestibular physiology for aviation and space flight (in flight, micro- and artificial gravity) in collaboration with the German Aerospace Center – DLR and the Swiss Aeromedical Institute. Keywords: Motion sickness, vestibular space physiology, artificial gravity, virtual reality sickness, self-motion perception, sensory habituation Topics: Sensory systems, Disorder of the nervous system, Neural Basis of Behavior Publications: scholar.google.ch
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Prof. Dr. Johannes Bohacek Research Focus: We are interested in understanding the organism-wide consequences of stress, and how the complex stress-response leads to changes in behavior and increases the risk for neuropsychiatric disease. We use mice as a model organism to study stress-induced effects in the CNS, but also in the germline. We use optogenetic, transcriptomic, pharmacologic, epigenetic and behavioral approaches combined with assisted reproductive techniques. Keywords: stress, anxiety, transcriptome, hippocampus, epigenetic inheritance, epigenetics Topics: Neural Basis of Behavior, Disorders of the Nervous System, Molecular and Cellular Neuroscience Publications: pubmed Website: http://www.bohaceklab.ethz.ch
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Prof. Dr. Steven Brown Research Focus: Humans are diurnal animals. Not only is one-third of our lives spent asleep, but nearly all aspects of physiology vary according to time of day, directed by biological “circadian” clocks in nearly all cells of the brain and body. Our laboratory is interested in the molecular mechanisms that govern these clocks and their control of sleep, using a mixture of biochemistry, microscopy and electrophysiology in genetically modified mice and human cellular model systems. For example, we have shown recently how particular families of ion channels control cortical oscillations during sleep, how RNAs are directed to synapses by clock-associated proteins, and that dynamic DNA methylation in the brain can reprogram daily transcriptional cycles. Keywords: Sleep, circadian clock, transcription, inhibitory synapse, IPSC, RNA transport, metabolism Topics: Sleep and Sleep Disorders, Molecular and Cellular Neuroscience, Neural Basis of Behavior Publications & Website: www.sbrownlab.com |
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ETH Zurich, Department of Health Sciences and Technology (D-HEST) Research focus: Neural algorithms and behaviour How does the brain solve complex problems? The Burdakov lab studies brain computations that convert sensory context into appropriate actions, appetites, and arousal. Our experiments focus on specific genetically-defined brain cells, but our questions are more general, overlapping with fields such as robotics (what control algorithms are best for performance in an uncertain world? what are their strengths and weaknesses?). To answer such questions, the lab studies how information is represented by specific neural clusters to sway decisions. This is achieved by tracking real-time brain network dynamics (using in vivo genetically-targeted calcium reporters, electrophysiology) associated with quantified voluntary actions, while manipulating sensory contexts (internal and external body state) and genetically- and temporally-defined elements of neural computations (using optogenetics, chemogenetics). These sensorimotor measurements are interpreted with the help of computational simulations that formally assess the performance of particular sensorimotor algorithms in defined tasks. By elucidating what different parts of the brain do, how they do it, and what makes them perform well or badly, this work provides fundamental information that can be used for designing better medical treatments for brain disorders. Topics: Neural basis of behaviour, computation and modelling, molecular and cellular neuroscience, disorders of the nervous systems Publications: https://www.ncbi.nlm.nih.gov/pubmed/?term=Burdakov+D Website: https://www.hest.ethz.ch/en/research/professorships/person-detail.html?persid=228841
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Prof. Dr. phil. Moritz M. Daum Research Focus: The overarching aim of the Research Group “Developmental Psychology” is to address the roots of infants’ and young children’s perception and understanding of their social world. The understanding of others as social agents is one of the most fundamental skills in our everyday social life. It is crucial for any engagement in cooperative and communicative activities. In our research, we are particularly interested in the mechanisms that form the bedrock of infants’ action perception, the interrelation of infants’ early action perception comprehension to the control of their own actions, the selective implementation of observed actions in one’s own actions. Current projects focus on the (neuro-)cognitive processes underlying infants’ and young children’s action understanding, the interrelation of action understanding and action performance across the whole lifespan, the interrelation of language and action in development, and the development of the self. Keywords: developmental psychology, infancy, life span, cognitive development, action perception language, imitation, eye tracking, EEG Topics: Development and Regeneration, Neural Basis of Behavior, Cognitive Neuroscience Publications: pubmed Website: http://www.psychologie.uzh.ch/fachrichtungen/devpsy/personen/daum.html Lab: http://www.kleineweltentdecker.ch
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PD Dr. med. Dr. med. dent. Dominik Ettlin Research Focus: Our clinical focus is the biopsychosocial evaluation and management of patients suffering from athrogenic, myogenic and neurogenic trigeminal pain disorders. The interdisciplinary team includes dentists, physicians, psychologists and neuroscientists. We aim at better understanding peripheral and central pathomechanisms underlying these disorders, utilizing primarily functional magnetic resonance imaging and spectroscopy (fMRI and fMRS). We developed several MR-compatible setups for reliable stimulation of extra and intraoral structures. We are also interested in behavioral aspects of pain. By collecting multicenter clinical data, we analyze potential pain etiologies and modifying factors. Keywords: trigeminal sensory system, nociception, (orofacial) pain, brainstem and cortical pain fMRI, fMRS, questionnaires, clinical pain trials Topics: Sensory Systems, Neural Basis of Behavior, Disorders of the Nervous Systems, Biomedical Technology and Imaging, cognitive neuroscience Publications: PubMed Website: http://www.zzm.uzh.ch/en/research/staff/ettlin-dominik.html
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Prof. Dr. Benjamin F. Grewe Research Focus: My primary research focus is directed towards understanding the basis of information processing and memory formation in neuronal networks using experimental as well as computational approaches. Currently my research at the INI investigates basic concepts of information processing and memory formation in limbic neuronal networks, using miniaturized cutting-edge imaging techniques to record learning induced changes in neuronal network activity of mice. Aligning with the combined strengths of the INI and in collaboration biomedical and electrical engineering groups my long-term vision is to extract fundamental principles of network-learning from real biological networks and then to reverse engineer their functionality as logical, reproducible algorithms that be implemented in software or directly as electrical circuits. I am convinced that reverse-engineering neural learning algorithms that mimic human thinking will one day change the importance of intelligent technologies in our everyday life Keywords: systems and computational neuroscience, population coding, neuronal network learning, deep learning, spiking network simulations, calcium imaging, two photon microscopy, miniaturized microscope, freely moving, behavior Topic: neural basis of behavior, computation and modeling, sensory systems Projects: https://www.ini.uzh.ch/research/61357 Publications: https://www.ini.uzh.ch/people/bgrewe Website: https://www.ini.uzh.ch/people/bgrewe |
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