During rapid eye movements, motion of the stationary world is generally not perceived
despite displacement of the whole image on the retina. Here we report that during saccades, …

Studies in biological vision have always been a great source of inspiration for design of
computer vision algorithms. In the past, several successful methods were designed with varying …

The dynamics of attentional deployment before saccade execution was studied with a dual-task
paradigm. Observers made a horizontal saccade whose direction was indicated by a …

Moving objects generate motion information at different scales, which are processed in the
visual system with a bank of spatiotemporal frequency channels. It is not known how the brain …

Primates use vergence eye movements to align their two eyes on the same object and can
correct misalignments by sensing the difference in the positions of the two retinal images of …

We propose a bio-inspired feedforward spiking network modeling two brain areas dedicated
to motion (V1 and MT), and we show how the spiking output can be exploited in a computer …

Active visual perception relies on the ability to interpret correctly retinal motion signals
induced either by moving objects viewed with static eyes or by stationary objects viewed with …

To efficiently drive many behaviors, sensory systems have to integrate the activity of large
neuronal populations within a limited time window. These populations need to rapidly achieve …

Neurons in the neocortex receive a large number of excitatory and inhibitory synaptic inputs.
Excitation and inhibition dynamically balance each other, with inhibition lagging excitation …

Due to its inherent neural delays, the visual system has an outdated access to sensory
information about the current position of moving objects. In contrast, living organisms are …