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Evidence of divergent growth rates among populations of the lizard Anolis carolinensis based on experimental manipulations of egg size

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Population Ecology

Abstract

Geographic variation in body size is of special interest because it affects nearly all aspects of an organism’s life. I examined whether differences in body size among four populations of the green anole lizard, Anolis carolinensis, were attributable to maternal investment in egg size and/or growth rates of embryos and juveniles. Larger body size and larger egg size relative to female size in the northern part of the range have been documented in this species, and suggested to be adaptive responses to more extreme winters. The current study confirmed the trends in adult size and egg size in the north, but rejected the trend of larger egg size relative to body size in the south. To control for differences in maternal investment in egg size among populations, I performed yolk removals on eggs from two northern populations to produce comparably sized eggs relative to one southern population. This manipulation was designed to minimize the confounding effect of maternal investment in yolk, the primary energy reserves for eggs, so that intrinsic differences in embryonic growth due to metabolism could be investigated. I found that differences in juvenile and, potentially, embryonic growth rates existed among populations of A. carolinensis, both due to and independent of differences in egg size. Juveniles from the northernmost population were bigger not only due to larger egg size, but also due to faster juvenile growth and possibly differences in developmental stage of oviposition or conversion of egg mass to hatchling mass. Larger body size may hold a number of advantages in northern populations of this species, including starvation resistance through winters and better competitive access to food resources and warmer microhabitats.

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Acknowledgments

I thank A. Echternacht for assistance during this project and comments on this manuscript. J. Fordyce also provided suggestions that greatly improved this manuscript. Thanks to P. Heah, J. Nolt, N. Wyszynski, J. Walguarnery, and A. Fuller, who helped collect data and care for animals in the laboratory. I am grateful to the Department of Ecology and Evolutionary Biology at the University of Tennessee, Knoxville for providing funding and space for this project. Animals in this study were collected under Tennessee Wildlife Resources Agency Scientific Collecting Permit # 1946 and Georgia Department of Natural Resources Scientific Collecting Permit # 29-WSF-05-77. All methods used in this project were approved under the University of Tennessee Institutional Animal Care and Use Committee protocol # 1064.

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Correspondence to Rachel M. Goodman.

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Goodman, R.M. Evidence of divergent growth rates among populations of the lizard Anolis carolinensis based on experimental manipulations of egg size. Popul Ecol 52, 113–122 (2010). https://doi.org/10.1007/s10144-009-0167-z

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