Picture of a black hole

Strathclyde Open Access research that creates ripples...

The Strathprints institutional repository is a digital archive of University of Strathclyde's Open Access research outputs. Strathprints provides access to thousands of research papers by University of Strathclyde researchers, including by Strathclyde physicists involved in observing gravitational waves and black hole mergers as part of the Laser Interferometer Gravitational-Wave Observatory (LIGO) - but also other internationally significant research from the Department of Physics. Discover why Strathclyde's physics research is making ripples...

Strathprints also exposes world leading research from the Faculties of Science, Engineering, Humanities & Social Sciences, and from the Strathclyde Business School.

Discover more...

Seasonal synchronicity and stage-specific life-cycles

Grist, E.P.M. and Gurney, William (1997) Seasonal synchronicity and stage-specific life-cycles. Mathematical Biosciences, 145 (1). pp. 1-25. ISSN 0025-5564

Full text not available in this repository. (Request a copy from the Strathclyde author)

Abstract

In his study on Catops nigricans (Coleoptera: Leiodidae), Topp [1] (W. Topp, Selection for an optimal monovoltine life-cycle in an unpredictable environment: Studies on the beetle C. nigricans Spence. Oecologia 84: 134–141 (1990).) observed that the times of eclosion and oviposition of a population of this European beetle are tightly synchronized to the local seasonal environment. Topp proposed that the key mechanism producing such synchrony is the developmental response that individuals exhibit to seasonal fluctuations of temperature and light at discrete stages of their life cycle. Here, an individual-level model of the C. nigricans life cycle is constructed and parameterized with the complete set of Topp's stage-specific development data. Seasonal variations of temperature and light are replicated by sinusoidal functions of time. Simulations are carried out to investigate the temporal behavior of lineages (generated from an arbitrary cohort) exposed to these periodic environmental variations over several generations. Our results support the hypothesis that stage-specific development in a periodic environment produces a powerful mechanism by which life-cycle synchronization can occur.