Color is a vital and integral part of human experience. For instance, color vision allows us to
effortlessly tell the difference between a ripe yellow banana and an unripe green one …

Although many computational models have been proposed to explain orientation maps in
primary visual cortex (V1), it is not yet known how similar clusters of color-selective neurons …

A biologically plausible computational model for color representation is introduced. We
present a mechanistic hierarchical model of neurons that not only successfully encodes …

This paper explores the possibility that the formation of color blobs in primate striate cortex
can be partly explained through the process of activity-based self-organization. We present …

While our understanding of the way single neurons process chromatic stimuli in the early
visual pathway has advanced significantly in recent years, we do not yet know how these …

In this paper we address the problem of understanding the cortical processing of color
information. Unravelling the cortical representation of color is a difficult task, as the neural …

How does the visual cortex represent and process color? Experimental evidence from
macaque monkey suggests that cells selective for color are organized into small, spatially …

The way in which color signals from the three cone classes (L, M, S) are handled by the rest
of the visual system to bring about color perception is incompletely known. In particular, the …

Color vision is an illusion created by the interactions of billions of neurons in our brain.
There is no color in the external world; it is created by neural programs and projected onto …

Many biological and artificial neural networks require the parallel extraction of multiple
features, and meet this requirement with distinct populations of neurons that are selective to …