Data from: Neurons in primate visual cortex alternate between responses to multiple stimuli in their receptive field

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Standard

Data from: Neurons in primate visual cortex alternate between responses to multiple stimuli in their receptive field. Li, Kang (Producent); Kozyrev, Vladislav (Producent); Kyllingsbæk, Søren (Producent); Treue, Stefan (Producent); Ditlevsen, Susanne (Producent); Bundesen, Claus (Producent). 2017. DRYAD.

Publikation: Bidrag der ikke har en tekstformDatasætForskning

Harvard

Li, K, Kozyrev, V, Kyllingsbæk, S, Treue, S, Ditlevsen, S & Bundesen, C, Data from: Neurons in primate visual cortex alternate between responses to multiple stimuli in their receptive field, 2017, Datasæt, DRYAD. https://doi.org/10.5061/dryad.88pv1

APA

Li, K. (Producent), Kozyrev, V. (Producent), Kyllingsbæk, S. (Producent), Treue, S. (Producent), Ditlevsen, S. (Producent), & Bundesen, C. (Producent). (2017). Data from: Neurons in primate visual cortex alternate between responses to multiple stimuli in their receptive field. Datasæt, DRYAD. https://doi.org/10.5061/dryad.88pv1

Vancouver

Li K (Producent), Kozyrev V (Producent), Kyllingsbæk S (Producent), Treue S (Producent), Ditlevsen S (Producent), Bundesen C (Producent). Data from: Neurons in primate visual cortex alternate between responses to multiple stimuli in their receptive field DRYAD. 2017. https://doi.org/10.5061/dryad.88pv1

Author

Li, Kang (Producent) ; Kozyrev, Vladislav (Producent) ; Kyllingsbæk, Søren (Producent) ; Treue, Stefan (Producent) ; Ditlevsen, Susanne (Producent) ; Bundesen, Claus (Producent). / Data from: Neurons in primate visual cortex alternate between responses to multiple stimuli in their receptive field. [Datasæt].

Bibtex

@misc{3caa4619c91043b8a9d0bff1ffde5005,
title = "Data from: Neurons in primate visual cortex alternate between responses to multiple stimuli in their receptive field",
abstract = "A fundamental question concerning representation of the visual world in our brain is how a cortical cell responds when presented with more than a single stimulus. We find supportive evidence that most cells presented with a pair of stimuli respond predominantly to one stimulus at a time, rather than a weighted average response. Traditionally, the firing rate is assumed to be a weighted average of the firing rates to the individual stimuli (response-averaging model) (Bundesen et al., 2005). Here, we also evaluate a probability-mixing model (Bundesen et al., 2005), where neurons temporally multiplex the responses to the individual stimuli. This provides a mechanism by which the representational identity of multiple stimuli in complex visual scenes can be maintained despite the large receptive fields in higher extrastriate visual cortex in primates. We compare the two models through analysis of data from single cells in the middle temporal visual area (MT) of rhesus monkeys when presented with two separate stimuli inside their receptive field with attention directed to one of the two stimuli or outside the receptive field. The spike trains were modeled by stochastic point processes, including memory effects of past spikes and attentional effects, and statistical model selection between the two models was performed by information theoretic measures as well as the predictive accuracy of the models. As an auxiliary measure, we also tested for uni- or multimodality in interspike interval distributions, and performed a correlation analysis of simultaneously recorded pairs of neurons, to evaluate population behavior. ",
author = "Kang Li and Vladislav Kozyrev and S{\o}ren Kyllingsb{\ae}k and Stefan Treue and Susanne Ditlevsen and Claus Bundesen",
year = "2017",
doi = "10.5061/dryad.88pv1",
language = "English",
publisher = "DRYAD",

}

RIS

TY - DATA

T1 - Data from: Neurons in primate visual cortex alternate between responses to multiple stimuli in their receptive field

A2 - Li, Kang

A2 - Kozyrev, Vladislav

A2 - Kyllingsbæk, Søren

A2 - Treue, Stefan

A2 - Ditlevsen, Susanne

A2 - Bundesen, Claus

PY - 2017

Y1 - 2017

N2 - A fundamental question concerning representation of the visual world in our brain is how a cortical cell responds when presented with more than a single stimulus. We find supportive evidence that most cells presented with a pair of stimuli respond predominantly to one stimulus at a time, rather than a weighted average response. Traditionally, the firing rate is assumed to be a weighted average of the firing rates to the individual stimuli (response-averaging model) (Bundesen et al., 2005). Here, we also evaluate a probability-mixing model (Bundesen et al., 2005), where neurons temporally multiplex the responses to the individual stimuli. This provides a mechanism by which the representational identity of multiple stimuli in complex visual scenes can be maintained despite the large receptive fields in higher extrastriate visual cortex in primates. We compare the two models through analysis of data from single cells in the middle temporal visual area (MT) of rhesus monkeys when presented with two separate stimuli inside their receptive field with attention directed to one of the two stimuli or outside the receptive field. The spike trains were modeled by stochastic point processes, including memory effects of past spikes and attentional effects, and statistical model selection between the two models was performed by information theoretic measures as well as the predictive accuracy of the models. As an auxiliary measure, we also tested for uni- or multimodality in interspike interval distributions, and performed a correlation analysis of simultaneously recorded pairs of neurons, to evaluate population behavior.

AB - A fundamental question concerning representation of the visual world in our brain is how a cortical cell responds when presented with more than a single stimulus. We find supportive evidence that most cells presented with a pair of stimuli respond predominantly to one stimulus at a time, rather than a weighted average response. Traditionally, the firing rate is assumed to be a weighted average of the firing rates to the individual stimuli (response-averaging model) (Bundesen et al., 2005). Here, we also evaluate a probability-mixing model (Bundesen et al., 2005), where neurons temporally multiplex the responses to the individual stimuli. This provides a mechanism by which the representational identity of multiple stimuli in complex visual scenes can be maintained despite the large receptive fields in higher extrastriate visual cortex in primates. We compare the two models through analysis of data from single cells in the middle temporal visual area (MT) of rhesus monkeys when presented with two separate stimuli inside their receptive field with attention directed to one of the two stimuli or outside the receptive field. The spike trains were modeled by stochastic point processes, including memory effects of past spikes and attentional effects, and statistical model selection between the two models was performed by information theoretic measures as well as the predictive accuracy of the models. As an auxiliary measure, we also tested for uni- or multimodality in interspike interval distributions, and performed a correlation analysis of simultaneously recorded pairs of neurons, to evaluate population behavior.

U2 - 10.5061/dryad.88pv1

DO - 10.5061/dryad.88pv1

M3 - Dataset

PB - DRYAD

ER -

ID: 276270295