Inter-oscillator communication modulates and sustains the circadian locomotor rhythms in
flies and rodent animal models. In Drosophila, the multioscillator network that controls sleep …

Circadian pacemaker circuits consist of ensembles of neurons, each expressing molecular
oscillations, but how circuit-wide coordination of multiple oscillators regulates rhythmic …

Animal circadian clocks are based on multiple oscillators whose interactions allow the daily
control of complex behaviors. The Drosophila brain contains a circadian clock that controls …

The brain clock that drives circadian rhythms of locomotor activity relies on a multi-oscillator
neuronal network. In addition to synchronizing the clock with day-night cycles, light also …

Molecular oscillations that underlie the circadian clock are coupled to different output signals
by which daily rhythms in downstream events are evoked and/or synchronized. Here the …

Our experiments address two long-standing models for the function of the Drosophila brain
circadian network: a dual oscillator model, which emphasizes the primacy of PDF-containing …

The neural circuits that regulate sleep and arousal as well as their integration with circadian
circuits remain unclear, especially in Drosophila. This issue intersects with that of …

Substantial progress has been made in elucidating the molecular processes that impart a
temporal control to physiology and behavior in most eukaryotes. In Drosophila, dorsal and …

The fruit fly Drosophila melanogaster shows a bimodal circadian locomotor rhythm with
peaks at lights-on and before lights-off, which are regulated by multiple clocks in the brain …

Robust self-sustained oscillations are a ubiquitous characteristic of circadian rhythms. These
include Drosophila locomotor activity rhythms, which persist for weeks in constant darkness …