henhaobio
Sign in

eNeuroNeurosciencePeer-reviewed journal article

Population coupling of V1 and V4 neurons and its relation to local cortical state fluctuations and attention in macaque monkey

Mahyar Doost, Jochem van KempeniD, Michael Boyd, Alexander ThieleiD

PDFDOIPreprint

Abstract

Neurons couple to various degrees to the activity level of the local neighboring population whereby strongly coupled choristers and weakly coupled soloists have been identified as two extremes of a continuous spectrum. At the same time neuronal populations undergo coordinated ON and OFF cortical state activity fluctuations, which are locally modulated by attention. The population coupling of soloists and choristers suggests that soloists should show limited alignment with cortical state fluctuations, while choristers should exhibit profound alignment. To test this, we recorded neurons across cortical layers in macaque areas V1 and V4, while animals performed a feature based spatial attention task. As expected, we found a wide range of population coupling strength of neurons. In line with our prediction, coupling of choristers to cortical state changes (ON-OFF transitions) was generally stronger than that of soloists. The strength of population coupling of neurons was similar during spontaneous and stimulus driven activity. Allocation of attention to the receptive field reduced the population coupling strength. Attentional modulation of neurons was positively correlated with population coupling strength. While neurons on average retained their coupling strengths across conditions, some neurons change coupling strength condition dependent, thereby potentially enhancing the coding abilities of cortical circuits.

Citations
0
FWCI
0.00
Field percentile
1th percentile

Reproducibility ledger

Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.

Sign in to file a reproducibility report.

Similarity Map
SelectedSame fieldCross-field
THISShi '22Sachse '22Denfield '18Clancy '19Ghosh '21Sweeney '20
77% semantic matchNeuroscience
Yan-Liang Shi, Nicholas A. Steinmetz, Tirin Moore+2 more·Nature Communications·Jan 10, 2022· 33 citations