Abstract
Rhythmicity is a characteristic feature of the inanimate universe. The
organization of biological rhythms in time is an adaptation to the cyclical environmental
changes brought on by the earth's rotation on its axis and around the sun. Circadian
(L. Circa = "around or approximately"; diem = "a day") rhythms are biological
responses to the geophysical light/dark (LD) cycle in which an organism adjusts to
alterations in its internal physiology or external environment as a function of the time of
day. Sleep has been considered a biological rhythm. Normal human sleep, an
essential physiologic process, comprises two distinct phases: non-rapid eye movement
(NREM) sleep and rapid eye movement (REM) sleep. A mature adult human's
sleep/wake cycle displays a circadian rhythm with a ~24-hour cycle. According to the
two-process model of sleep regulation, the human sleep/wake cycle is orchestrated by
circadian and homeostatic processes. Sleep homeostasis (a sleep-dependent
process) and circadian rhythm (a sleep-independent process) are two biological
processes controlling the sleep/wake cycle. There are also ultradian (< 24-hour)
rhythms, including the NREM-REM sleep cycle, which has been extensively studied.
The clock and sleep genes both influence sleep. In this overview, we have reviewed
the circadian genes and their role in regulating sleep. Besides, the gene expression
and biological pathways associated with sleep and circadian rhythm-associated
diseases also have been highlighted.
Keywords: Clock, sleep, circadian, homeostasis, NREM sleep, REM sleep.
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