My name is Malte Güth. I'm a writer and a fifth year PhD student in the Behavioral and Neural Sciences program at the Center for Molecular and Behavioral Neuroscience at Rutgers University Newark (NJ, USA).
My research is focused on multimodal imaging of theta oscillations underlying spatial memory and developing a novel real-time closed-loop EEG-TMS system for instantaneous stimulation time-locked to EEG ampltiude, phase, and frequency. In my writing I currently focus on popular science and self help books presenting psychological research to an audience without a scientific background.M.Sc. in Psychology (focus on Clinical Psychology and Psychotherapy), 2018
Philipps-Universität Marburg (Germany)
B.Sc. in Psychology, 2017
Philipps-Universität Marburg (Germany)
For my PhD with Dr. Travis Baker at the Laboratory for Cognitive Neuroimaging and Stimulation I use simultaneous EEG-fMRI, MEG, diffusion imaging, and their joint analysis to study oscillatiory signatures of goal-directed spatial navigation. In order to test the functional relevance of these oscillations for spatial memory and reinforcement learning in humans, my main focus is on developing a real-time closed-loop EEG-TMS system giving phase specific stimulation at a higher precision than conventional phase prediction systems.
With my writing I present the life experience of people most do not pay attention to. This can be due to their social, mental or medical condition. My most recent work is a couple of German popular science and self help books, communicating psychological science behind loneliness and emotion. My goal is to contribute to broadening the public understanding of mental illness and everyday psychology.Rutgers University Newark (USA) – Center for Molecular and Behavioral Neuroscience
Philipps-Universität Marburg – Department of Psychology, Biological Psychology
Philipps-Universität Marburg – Department of Psychology, Biological Psychology
Real-time EEG analysis and instantaneous phase-locked TMS stimulation
Combination of anatomical parahippocampal cortex connectivity, simultaneous EEG-fMRI, and MEG experiments to identifiy theta phase-resetting in response to spatial reward cues.
Anatomical targeting (cortical thickness, diffusion, etc) and electric field simulations for improving the efficacy of TMS.
Investigating parahippocampal cortex oscillations related to spatial memory performance in the Linear Track Maze task.