Principles underlying the complex dynamics of temperature entrainment by a circadian clock

Autonomously oscillating circadian clocks resonate with daily environmental (zeitgeber) rhythms to organize physiology around the solar day. Although entrainment properties and mechanisms have been studied widely and in great detail for light-dark cycles, entrainment to daily temperature rhythms rem...

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Published iniScience Vol. 24; no. 11; p. 103370
Main Authors Burt, Philipp, Grabe, Saskia, Madeti, Cornelia, Upadhyay, Abhishek, Merrow, Martha, Roenneberg, Till, Herzel, Hanspeter, Schmal, Christoph
Format Journal Article
LanguageEnglish
Published United States Elsevier Inc 19.11.2021
Elsevier
Subjects
Chronobiology
In silico biology
Plant biology
Systems biology
Plant biology
Chronobiology
Systems biology
In silico biology
Online AccessGet full text
ISSN2589-0042
2589-0042
DOI10.1016/j.isci.2021.103370

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Abstract Autonomously oscillating circadian clocks resonate with daily environmental (zeitgeber) rhythms to organize physiology around the solar day. Although entrainment properties and mechanisms have been studied widely and in great detail for light-dark cycles, entrainment to daily temperature rhythms remains poorly understood despite that they are potent zeitgebers. Here we investigate the entrainment of the chronobiological model organism Neurospora crassa, subject to thermocycles of different periods and fractions of warm versus cold phases, mimicking seasonal variations. Depending on the properties of these thermocycles, regularly entrained rhythms, period-doubling (frequency demultiplication) but also irregular aperiodic behavior occurs. We demonstrate that the complex nonlinear phenomena of experimentally observed entrainment dynamics can be understood by molecular mathematical modeling. [Display omitted] •Temperature cycles can entrain the fungal model organism Neurospora crassa•We study the circadian surface for 99 combinations of τ, T and thermoperiod•1:1 entrainment, period doubling and other non-linear phenomena are observed•A mathematical model of temperature entrainment explains the observed complexity Chronobiology; Systems biology; In silico biology; Plant biology
AbstractList Autonomously oscillating circadian clocks resonate with daily environmental (zeitgeber) rhythms to organize physiology around the solar day. Although entrainment properties and mechanisms have been studied widely and in great detail for light-dark cycles, entrainment to daily temperature rhythms remains poorly understood despite that they are potent zeitgebers. Here we investigate the entrainment of the chronobiological model organism , subject to thermocycles of different periods and fractions of warm versus cold phases, mimicking seasonal variations. Depending on the properties of these thermocycles, regularly entrained rhythms, period-doubling (frequency demultiplication) but also irregular aperiodic behavior occurs. We demonstrate that the complex nonlinear phenomena of experimentally observed entrainment dynamics can be understood by molecular mathematical modeling.
Autonomously oscillating circadian clocks resonate with daily environmental (zeitgeber) rhythms to organize physiology around the solar day. Although entrainment properties and mechanisms have been studied widely and in great detail for light-dark cycles, entrainment to daily temperature rhythms remains poorly understood despite that they are potent zeitgebers. Here we investigate the entrainment of the chronobiological model organism Neurospora crassa, subject to thermocycles of different periods and fractions of warm versus cold phases, mimicking seasonal variations. Depending on the properties of these thermocycles, regularly entrained rhythms, period-doubling (frequency demultiplication) but also irregular aperiodic behavior occurs. We demonstrate that the complex nonlinear phenomena of experimentally observed entrainment dynamics can be understood by molecular mathematical modeling.
Autonomously oscillating circadian clocks resonate with daily environmental (zeitgeber) rhythms to organize physiology around the solar day. Although entrainment properties and mechanisms have been studied widely and in great detail for light-dark cycles, entrainment to daily temperature rhythms remains poorly understood despite that they are potent zeitgebers. Here we investigate the entrainment of the chronobiological model organism Neurospora crassa, subject to thermocycles of different periods and fractions of warm versus cold phases, mimicking seasonal variations. Depending on the properties of these thermocycles, regularly entrained rhythms, period-doubling (frequency demultiplication) but also irregular aperiodic behavior occurs. We demonstrate that the complex nonlinear phenomena of experimentally observed entrainment dynamics can be understood by molecular mathematical modeling. [Display omitted] •Temperature cycles can entrain the fungal model organism Neurospora crassa•We study the circadian surface for 99 combinations of τ, T and thermoperiod•1:1 entrainment, period doubling and other non-linear phenomena are observed•A mathematical model of temperature entrainment explains the observed complexity Chronobiology; Systems biology; In silico biology; Plant biology
Autonomously oscillating circadian clocks resonate with daily environmental (zeitgeber) rhythms to organize physiology around the solar day. Although entrainment properties and mechanisms have been studied widely and in great detail for light-dark cycles, entrainment to daily temperature rhythms remains poorly understood despite that they are potent zeitgebers. Here we investigate the entrainment of the chronobiological model organism Neurospora crassa, subject to thermocycles of different periods and fractions of warm versus cold phases, mimicking seasonal variations. Depending on the properties of these thermocycles, regularly entrained rhythms, period-doubling (frequency demultiplication) but also irregular aperiodic behavior occurs. We demonstrate that the complex nonlinear phenomena of experimentally observed entrainment dynamics can be understood by molecular mathematical modeling.Autonomously oscillating circadian clocks resonate with daily environmental (zeitgeber) rhythms to organize physiology around the solar day. Although entrainment properties and mechanisms have been studied widely and in great detail for light-dark cycles, entrainment to daily temperature rhythms remains poorly understood despite that they are potent zeitgebers. Here we investigate the entrainment of the chronobiological model organism Neurospora crassa, subject to thermocycles of different periods and fractions of warm versus cold phases, mimicking seasonal variations. Depending on the properties of these thermocycles, regularly entrained rhythms, period-doubling (frequency demultiplication) but also irregular aperiodic behavior occurs. We demonstrate that the complex nonlinear phenomena of experimentally observed entrainment dynamics can be understood by molecular mathematical modeling.
Autonomously oscillating circadian clocks resonate with daily environmental (zeitgeber) rhythms to organize physiology around the solar day. Although entrainment properties and mechanisms have been studied widely and in great detail for light-dark cycles, entrainment to daily temperature rhythms remains poorly understood despite that they are potent zeitgebers. Here we investigate the entrainment of the chronobiological model organism Neurospora crassa , subject to thermocycles of different periods and fractions of warm versus cold phases, mimicking seasonal variations. Depending on the properties of these thermocycles, regularly entrained rhythms, period-doubling (frequency demultiplication) but also irregular aperiodic behavior occurs. We demonstrate that the complex nonlinear phenomena of experimentally observed entrainment dynamics can be understood by molecular mathematical modeling. • Temperature cycles can entrain the fungal model organism Neurospora crassa • We study the circadian surface for 99 combinations of τ, T and thermoperiod • 1:1 entrainment, period doubling and other non-linear phenomena are observed • A mathematical model of temperature entrainment explains the observed complexity Chronobiology; Systems biology; In silico biology; Plant biology
ArticleNumber 103370
Author Burt, Philipp
Roenneberg, Till
Upadhyay, Abhishek
Schmal, Christoph
Grabe, Saskia
Madeti, Cornelia
Merrow, Martha
Herzel, Hanspeter
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Keywords Plant biology
Chronobiology
Systems biology
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Snippet Autonomously oscillating circadian clocks resonate with daily environmental (zeitgeber) rhythms to organize physiology around the solar day. Although...
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SubjectTerms Chronobiology
In silico biology
Plant biology
Systems biology
Title Principles underlying the complex dynamics of temperature entrainment by a circadian clock
URI https://dx.doi.org/10.1016/j.isci.2021.103370
https://www.ncbi.nlm.nih.gov/pubmed/34816105
https://www.proquest.com/docview/2601979164
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