Modelling Development of Reptile Embryos under Fluctuating Temperature Regimes

An increase in temperature, within bounds, will accelerate development of reptile embryos, and morphogenesis can be normal over a range of temperatures despite those varying rates of development. Less well understood is the form of the relationship that best describes variation in developmental rate...

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Veröffentlicht in:Physiological and biochemical zoology 2005-01, Vol.78 (1), p.18-30
Hauptverfasser: Georges, Arthur, Beggs, Kerry, Young, Jeanne E., Doody, J. Sean
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creator Georges, Arthur
Beggs, Kerry
Young, Jeanne E.
Doody, J. Sean
description An increase in temperature, within bounds, will accelerate development of reptile embryos, and morphogenesis can be normal over a range of temperatures despite those varying rates of development. Less well understood is the form of the relationship that best describes variation in developmental rate with temperature. In this article, we apply a linear degree.hour model, an empirical curvilinear model, a biophysical model, and a polynomial model to data on rates of embryonic development and temperature in the pig‐nosed turtleCarettochelys insculptafrom northern Australia. The curvilinear models, which have been applied with success to development of insects, describe the embryonic development of turtles well. When fluctuating temperatures extend beyond the constant temperatures that support successful incubation, the curvilinear models continue to perform well, whereas the linear model predictions fail. Sensitivity analysis indicates that under some circumstances, incubation duration may be increased by diel temperature fluctuations, independent of an influence of mean temperature. In other circumstances, incubation duration may be decreased, and in still other circumstances, diel temperature fluctuations will have no impact on incubation duration. This adds an additional dimension to our understanding of how thermal regimes can be selected or manipulated by reptiles to optimise incubation duration and the timing of offspring emergence.
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subjects Animal nesting
Animals
Economic fluctuations
Eggs
Embryo, Nonmammalian - physiology
Embryos
Freshwater
Incubation
Linear models
Low temperature
Modeling
Models, Biological
Morphogenesis - physiology
Northern Territory
Parametric models
Reptiles
Temperature
Time Factors
Turtles - embryology
title Modelling Development of Reptile Embryos under Fluctuating Temperature Regimes
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