Most living organisms on earth experience daily and expected changes from the rotation of
the earth. For an organism, the ability to predict and prepare for incoming stresses or …

Due to the Earth's rotation, a consistent day/night cycle dictates the environment of most
organisms, many of which have adapted a circadian clock in order to anticipate these drastic …

Circadian clocks are the internal time-keeping mechanisms for organisms to synchronize
their cellular and physiological processes to the daily light/dark cycles. The molecular …

The filamentous fungus Neurospora crassa is one of a handful of model organisms that has
proven tractable for dissecting the molecular basis of a eukaryotic circadian clock. Work on …

Circadian clocks have been described in organisms ranging in complexity from unicells to
mammals, in which they function to control daily rhythms in cellular activities and behavior …

Night follows day and as a consequence, organisms have evolved molecular machineries
that allow them to anticipate and respond to the many changes that accompany these …

The circadian clock exists to synchronize inner physiology with the external world, allowing
life to anticipate and adapt to the continual changes that occur in an organism's …

Circadian clocks are self-sustaining timekeepers found in almost all organisms on earth. The
filamentous fungus Neurospora crassa is a preeminent model for eukaryotic circadian …

Light and temperature are 2 of the most important environmental influences on all circadian
clocks, and Neurospora provides an excellent system for understanding their effects …

Circadian clocks are molecular timekeepers that provide organisms with a means to predict
and prepare for environmental change. The filamentous fungus Neurospora crassa has …