Neurovascular impulse response function (IRF) during spontaneous activity differentially reflects intrinsic neuromodulation across cortical regions
ID: 001211
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Created October 19, 2024
Last update October 21, 2024
Licenses: spdx:CC-BY-4.0
Access Information: dandi:OpenAccess
Ascending neuromodulatory projections from deep brain nuclei generate internal brain states that differentially engage specific neuronal cell types. Because neurovascular coupling is cell-type specific and neuromodulatory transmitters have vasoactive properties, we hypothesized that the impulse response function (IRF) linking spontaneous neuronal activity with hemodynamics would depend on...
Keywords:
Neurovascular coupling
Norepinephrine
Acetylcholine
Hemodynamics
Functional connectivity
Contributors
Perez, Pablo
Martin, Emily
Chai, Nathan
Froio, Francesca
Garcia, Andrew
Jiang, John
Funding information
National Institute of Health
- Award Number: BRAIN Initiative U19NS123717
National Institute of Health
- Award Number: BRAIN Initiative R01NS122742
National Institute of Health
- Award Number: R01DA050159
National Institute of Health
- Award Number: T32-NS136080
Boston University Kilachand Fund
Boston University Neurophotonics Center
Assets Summary
Approach
behavioral approach
microscopy approach; cell population imaging
Data StandardRRID:SCR_015242
Neurodata Without Borders (NWB)
Number Of Subjects
9
Variable Measured
BehavioralTimeSeries
PlaneSegmentation
OpticalChannel
ProcessingModule
ImagingPlane
Measurement Technique
surgical technique
behavioral technique
analytical technique