Simultaneous recordings of spikes and fields could enable analyses of functional
connectivity in the brain at multiple spatiotemporal scales. However, these analyses require …

Neural representations span various spatiotemporal scales of brain activity, from the spiking
activity of single neurons to field activity measuring large-scale networks. The simultaneous …

Neurotechnological innovations allow for simultaneous recording at various scales, ranging
from spiking activity of individual neurons to large neural populations' local field potentials …

Objective. Brain recordings exhibit dynamics at multiple spatiotemporal scales, which are
measured with spike trains and larger-scale field potential signals. To study neural …

Behavior is encoded across spatiotemoral scales of brain activity, from small-scale spikes to
large-scale local field potentials (LFP). Identifying the functional dependence between …

Measuring and modeling the brain at multiple spatiotemporal scales are important for
studying brain function and developing high-performance brain-machine interfaces. To …

Neural recordings, such as local field potentials (LFPs), reflect the activity of populations of
neurons in time-varying voltage traces and, due to high temporal resolution, they are well …

Modern multi-channel recording devices offer the opportunity to untangle the coordination
mechanisms of neural activity at a mesoscopic level. However, this requires novel …

Neural spiking responses are generated by both extrinsic covariates such as sensory stimuli
and intrinsic covariates such as those representing the state of the system. Although the …

Conclusions The time-varying causal connectivity between neurons was assessed based on
the instantaneous point process LLR calculated using the sequential probability assignment …