The human body persists in its rhythm as per its initial time zone, and transition always occur
according to solar movements around the earth over 24 h. While traveling across different …

Effects of temperature and temperature changes on circadian clocks in cyanobacteria,
unicellular algae, and plants, as well as fungi, arthropods, and vertebrates are reviewed …

The cell-cycle oscillator includes an essential negative-feedback loop: Cdc2 activates the
anaphase-promoting complex (APC), which leads to cyclin destruction and Cdc2 …

The circadian clock is accountable for the regulation of internal rhythms in most living
organisms. It allows the anticipation of environmental changes during the day and a better …

Circadian clocks in all organisms include feedback loops that generate rhythmic expression
of key genes. We model the first such loop proposed for the clock of Arabidopsis thaliana …

Living organisms adapt to light–dark rhythmicity using a complex programme based on
internal clocks. These circadian clocks, which are regulated by the environment, direct …

▪ Abstract Over the course of the past 40 years Neurospora has become a well-known and
uniquely tractable model system for the analysis of the molecular basis of eukaryotic …

For 20 years, researchers have thought that circadian clocks are defined by feedback loops
of transcription and translation. The rediscovery of posttranslational circadian oscillators in …

The Goodwin model is a 3-variable model demonstrating the emergence of oscillations in a
delayed negative feedback-based system at the molecular level. This prototypical model …

Mammals evolved an endogenous timing system to coordinate their physiology and
behaviour to the 24h period of the solar day. While it is well accepted that circadian rhythms …