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The Journal of Neuroscience, September 1, 2000, 20(17):6594-6611
Coding of Border Ownership in Monkey Visual Cortex
Hong
Zhou1,
Howard S.
Friedman1, 3, and
Rüdiger
von der Heydt1, 2
1 Krieger Mind/Brain Institute,
2 Department of Neuroscience, and 3 Department
of Biomedical Engineering, Johns Hopkins University, Baltimore,
Maryland 21218
Areas V1 and V2 of the visual cortex have traditionally been
conceived as stages of local feature representations. We investigated whether neural responses carry information about how local features belong to objects. Single-cell activity was recorded in areas V1, V2,
and V4 of awake behaving monkeys. Displays were used in which the same
local feature (contrast edge or line) could be presented as part of
different figures. For example, the same light-dark edge could be the
left side of a dark square or the right side of a light square. Each
display was also presented with reversed contrast.
We found significant modulation of responses as a function of the side
of the figure in >50% of neurons of V2 and V4 and in 18% of neurons
of the top layers of V1. Thus, besides the local contrast border
information, neurons were found to encode the side to which the border
belongs ("border ownership coding"). A majority of these neurons
coded border ownership and the local polarity of
luminance-chromaticity contrast. The others were insensitive to
contrast polarity. Another 20% of the neurons of V2 and V4, and 48%
of top layer V1, coded local contrast polarity, but not border
ownership. The border ownership-related response differences emerged
soon (<25 msec) after the response onset. In V2 and V4, the
differences were found to be nearly independent of figure size up to
the limit set by the size of our display (21°). Displays that
differed only far outside the conventional receptive field could
produce markedly different responses. When tested with more complex
displays in which figure-ground cues were varied, some neurons produced
invariant border ownership signals, others failed to signal border
ownership for some of the displays, but neurons that reversed signals
were rare.
The influence of visual stimulation far from the receptive field center
indicates mechanisms of global context integration. The short latencies
and incomplete cue invariance suggest that the border-ownership effect
is generated within the visual cortex rather than projected down from
higher levels.
Key words:
primate visual cortex; visual perception; perceptual
organization; figure-ground segregation; awake macaque monkey; single-unit activity; nonclassical receptive fields; area V1; area V2; area V4
Copyright © 2000 Society for Neuroscience 0270-6474/00/20176594-18$05.00/0
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