To correctly perceive biological actions, the movement pattern generated in the course of the action has to be linked to the configuration of the actor. Recently, we showed that in humans, motion and configuration cues are processed separately in occipito-temporal cortex, and that both cues are integrated in the extrastriate (EBA) and fusiform (FBA) body areas (Jastorff and Orban, 2009). Using the same factorial design as in our human study, we performed fMRI experiments in awake monkeys to compare biological motion processing in the two species. Point-light displays of monkeys engaged in various actions were presented in a 2×2 factorial design. One factor manipulated the configuration of the stimuli, the other, the kinematics. As in humans...
Contains fulltext : 97023.pdf (publisher's version ) (Open Access)To investigate f...
The visual pathway for the processing of human actions involves a stream of regions along the latera...
AbstractTheories of vision posit that form and motion are represented by neural mechanisms segregate...
In order to correctly perceive biological actions, the movement pattern generated in the course of t...
Psychophysical and imaging studies in humans have demonstrated specialized mechanisms for the detect...
In a series of human functional magnetic resonance imaging experiments, we systematically manipulate...
Neuroimaging studies of biological motion perception have found a network of coordinated brain areas...
The present report reviews a series of functional magnetic resonance imaging (fMRI) activation studi...
To reduce the information gap between human neuroimaging and macaque physiology and anatomy, we mapp...
Cells have been found in the superior temporal polysensory area (STPa) of the macaque temporal corte...
AbstractTo reduce the information gap between human neuroimaging and macaque physiology and anatomy,...
Precise kinematics or body configuration cannot be recovered from visual input without disparity inf...
SummaryFacial motion transmits rich and ethologically vital information [1, 2], but how the brain in...
In both monkeys and humans, the observation of actions performed by others activates cortical motor ...
We compared neural substrates of two-dimensional shape processing in human and nonhuman primates usi...
Contains fulltext : 97023.pdf (publisher's version ) (Open Access)To investigate f...
The visual pathway for the processing of human actions involves a stream of regions along the latera...
AbstractTheories of vision posit that form and motion are represented by neural mechanisms segregate...
In order to correctly perceive biological actions, the movement pattern generated in the course of t...
Psychophysical and imaging studies in humans have demonstrated specialized mechanisms for the detect...
In a series of human functional magnetic resonance imaging experiments, we systematically manipulate...
Neuroimaging studies of biological motion perception have found a network of coordinated brain areas...
The present report reviews a series of functional magnetic resonance imaging (fMRI) activation studi...
To reduce the information gap between human neuroimaging and macaque physiology and anatomy, we mapp...
Cells have been found in the superior temporal polysensory area (STPa) of the macaque temporal corte...
AbstractTo reduce the information gap between human neuroimaging and macaque physiology and anatomy,...
Precise kinematics or body configuration cannot be recovered from visual input without disparity inf...
SummaryFacial motion transmits rich and ethologically vital information [1, 2], but how the brain in...
In both monkeys and humans, the observation of actions performed by others activates cortical motor ...
We compared neural substrates of two-dimensional shape processing in human and nonhuman primates usi...
Contains fulltext : 97023.pdf (publisher's version ) (Open Access)To investigate f...
The visual pathway for the processing of human actions involves a stream of regions along the latera...
AbstractTheories of vision posit that form and motion are represented by neural mechanisms segregate...