Summary Gamma oscillations (∼ 30–150 Hz) are widespread correlates of neural circuit
functions. These network activity patterns have been described across multiple animal …

The function of neural circuits and networks can be controlled, in part, by modulating the
synchrony of their components' activities. Network hypersynchrony and altered oscillatory …

Episodic memory-based decision-making requires top-down medial prefrontal cortex and
hippocampal interactions. This integrated prefrontal-hippocampal memory state is thought to …

Sharp wave ripples (SPW‐Rs) represent the most synchronous population pattern in the
mammalian brain. Their excitatory output affects a wide area of the cortex and several …

The hippocampal local field potential (LFP) shows three major types of rhythms: theta, sharp
wave–ripples and gamma. These rhythms are defined by their frequencies, they have …

Abstract Slow gamma oscillations (30–60 Hz) correlate with retrieval of spatial memory.
Altered slow gamma oscillations have been observed in Alzheimer's disease. Here, we use …

In the hippocampus GABAergic local circuit inhibitory interneurons represent only~ 10–15%
of the total neuronal population; however, their remarkable anatomical and physiological …

Oscillations are a prevalent feature of brain recordings. They are believed to play key roles
in neural communication and computation. Current analysis methods for studying neural …

Neuronal activity in the brain gives rise to transmembrane currents that can be measured in
the extracellular medium. Although the major contributor of the extracellular signal is the …

Theta and gamma frequency oscillations occur in the same brain regions and interact with
each other, a process called cross-frequency coupling. Here, we review evidence for the …