Highlights•The phase of population oscillators underlying brain rhythms can be reset.•Phase-
resetting theory can help explain how brain rhythms phase-lock.•Phase-locking between …

The way the brain work and its principle of work has long been a big scientific question that
scientists have dreamed of solving. However, as is known to all, the brain works at different …

Although examples of variation and diversity exist throughout the nervous system, their
importance remains a source of debate. Even neurons of the same molecular type have …

Neurons transform time-varying inputs into action potentials emitted stochastically at a time
dependent rate. The map** from current input to output firing rate is often represented with …

Neural networks are more than the sum of their parts, but the properties of those parts are
nonetheless important. For instance, neuronal properties affect the degree to which neurons …

Regularly spiking neurons can be described as oscillators. In this article we review some of
the insights gained from this conceptualization and their relevance for systems …

Understanding how populations of neurons encode information is the challenge faced by
researchers in the field of neural coding. Focusing on the many mysteries and marvels of the …

Macroscopic oscillations of different brain regions show multiple phase relationships that are
persistent across time and have been implicated in routing information. While multiple …

The presence of phenomenological inductances in neuronal membrane has been known for
more than one-half a century. Despite this, the dramatic contributions of such inductive …

What physiological role does a slow hyperpolarization‐activated ion channel with mixed
cation selectivity play in the fast world of neuronal action potentials that are driven by …