@misc{LehnenRamaioliHenningsenetal., author = {Lehnen, Nadine and Ramaioli, Cecilia and Henningsen, Peter and Glasauer, Stefan}, title = {An experimental litmus test of the emerging hypothesis that persistent physical symptoms can be explained as perceptual dysregulation}, series = {Journal of Psychosomatic Research}, volume = {114}, journal = {Journal of Psychosomatic Research}, issn = {1879-1360}, doi = {10.1016/j.jpsychores.2018.08.007}, pages = {15 -- 17}, language = {en} } @misc{XiangSeemungalGlasauer, author = {Xiang, Min and Seemungal, Barry M. and Glasauer, Stefan}, title = {Quantitative postural models as biomarkers of balance in Parkinson's disease}, series = {Brain}, volume = {141}, journal = {Brain}, number = {10}, issn = {0006-8950}, doi = {10.1093/brain/awy250}, pages = {2824 -- 2827}, language = {en} } @misc{GlasauerDieterichBrandt, author = {Glasauer, Stefan and Dieterich, Marianne and Brandt, Thomas}, title = {Neuronal network-based mathematical modeling of perceived verticality in acute unilateral vestibular lesions: from nerve to thalamus and cortex}, series = {Journal of Neurology}, volume = {265}, journal = {Journal of Neurology}, number = {Supplement 1}, issn = {1432-1459}, doi = {10.1007/s00415-018-8909-5}, pages = {112}, language = {en} } @misc{ChenGlasauerMuelleretal., author = {Chen, Siyi and Glasauer, Stefan and M{\"u}ller, Hermann J. and Conci, Markus}, title = {Surface filling-in and contour interpolation contribute independently to Kanizsa figure formation}, series = {Journal of Experimental Psychology}, volume = {44}, journal = {Journal of Experimental Psychology}, number = {9}, issn = {1939-1277}, doi = {10.1037/xhp0000540}, pages = {1399 -- 1413}, language = {en} } @misc{SalmasiLoebelGlasaueretal., author = {Salmasi, Mehrdad and Loebel, Alex and Glasauer, Stefan and Stemmler, Martin}, title = {Short-term synaptic depression can increase the rate of information transfer at a release site}, series = {PLoS Computational Biology}, volume = {15}, journal = {PLoS Computational Biology}, issn = {1553-7358}, doi = {10.1371/journal.pcbi.1006666}, pages = {21}, abstract = {The release of neurotransmitters from synapses obeys complex and stochastic dynamics. Depending on the recent history of synaptic activation, many synapses depress the probability of releasing more neurotransmitter, which is known as synaptic depression. Our understanding of how synaptic depression affects the information efficacy, however, is limited. Here we propose a mathematically tractable model of both synchronous spike-evoked release and asynchronous release that permits us to quantify the information conveyed by a synapse. The model transits between discrete states of a communication channel, with the present state depending on many past time steps, emulating the gradual depression and exponential recovery of the synapse. Asynchronous and spontaneous releases play a critical role in shaping the information efficacy of the synapse. We prove that depression can enhance both the information rate and the information rate per unit energy expended, provided that synchronous spike-evoked release depresses less (or recovers faster) than asynchronous release. Furthermore, we explore the theoretical implications of short-term synaptic depression adapting on longer time scales, as part of the phenomenon of metaplasticity. In particular, we show that a synapse can adjust its energy expenditure by changing the dynamics of short-term synaptic depression without affecting the net information conveyed by each successful release. Moreover, the optimal input spike rate is independent of the amplitude or time constant of synaptic depression. We analyze the information efficacy of three types of synapses for which the short-term dynamics of both synchronous and asynchronous release have been experimentally measured. In hippocampal autaptic synapses, the persistence of asynchronous release during depression cannot compensate for the reduction of synchronous release, so that the rate of information transmission declines with synaptic depression. In the calyx of Held, the information rate per release remains constant despite large variations in the measured asynchronous release rate. Lastly, we show that dopamine, by controlling asynchronous release in corticostriatal synapses, increases the synaptic information efficacy in nucleus accumbens.}, language = {en} } @misc{MacNeilageGlasauer, author = {MacNeilage, Paul R. and Glasauer, Stefan}, title = {Perceiving gravity: the role of the cerebellum}, series = {Current Biology}, volume = {28}, journal = {Current Biology}, number = {22}, issn = {1879-0445}, doi = {10.1016/j.cub.2018.09.053}, pages = {1296 -- 1298}, language = {en} } @misc{Glasauer, author = {Glasauer, Stefan}, title = {Ferr{\`e}, Elisa Raffaella (Hrsg.): Vestibular Cognition. Leiden [u.a.] Boston : Brill, 2017}, series = {Perception}, volume = {47}, journal = {Perception}, number = {7}, issn = {1468-4233}, pages = {799 -- 801}, language = {en} } @misc{KupferbergIacoboniFlanaginetal., author = {Kupferberg, Aleksandra and Iacoboni, Marco and Flanagin, Virginia and Huber, Markus and Kasparbauer, Anna and Baumgartner, Thomas and Hasler, Gregor and Schmidt, Florian and Borst, Christoph and Glasauer, Stefan}, title = {Fronto-parietal coding of goal-directed actions performed by artificial agents}, series = {Human Brain Mapping}, volume = {39}, journal = {Human Brain Mapping}, number = {3}, issn = {1097-0193}, doi = {10.1002/hbm.23905}, pages = {1145 -- 1162}, language = {en} } @misc{ChoiGlasauerZeeetal., author = {Choi, Jeong-Yoon and Glasauer, Stefan and Zee, David S. and Kim, Ji-Soo}, title = {Characteristics and Mechanism of Apogeotropic Central Positional Nystagmus}, series = {Brain}, volume = {141}, journal = {Brain}, number = {3}, issn = {1460-2156}, doi = {10.1093/brain/awx381}, pages = {762 -- 775}, language = {en} } @misc{DieterichGlasauerBrandt, author = {Dieterich, Marianne and Glasauer, Stefan and Brandt, Thomas}, title = {Why acute unilateral vestibular midbrain lesions rarely manifest with rotational vertigo: a clinical and modelling approach to head direction cell function.}, series = {Journal of Neurology}, volume = {265}, journal = {Journal of Neurology}, number = {5}, issn = {0340-5354}, doi = {10.1007/s00415-018-8828-5}, pages = {1184 -- 1198}, language = {en} }