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AN ALGORITHM FOR TEMPERATURE-DEPENDENT GROWTH RATE SIMULATION12

  • R. E. Stinner (a1), A. P. Gutierrez (a2) and G. D. Butler (a3)

Abstract

With the current advances in insect population modelling, the need for more accurate simulation of temperature-dependent growth rates has become vital. The day-degree concept, with its linear temperature–rate relationship, has not been adequate for simulation of field populations under highly variable temperature conditions. Similarly, several of the non-linear relationships proposed in the past (Janisch’s catenary, parabola) have also been inadequate. All of these relationships produce large errors at temperature extremes.

This paper presents a comparison of various functions which have been used for developmental time estimation and an algorithm for a sigmoid function which can be used in simulations having either a calendar or a physiological time base. Validation of the algorithm is presented for three insect species.

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AN ALGORITHM FOR TEMPERATURE-DEPENDENT GROWTH RATE SIMULATION12

  • R. E. Stinner (a1), A. P. Gutierrez (a2) and G. D. Butler (a3)

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