[1].Plasticity in Metamorphic Traits of Rice Field Frog (Rana limnocharis) Tadpoles: The Interactive Effects of Rearing Temperature and Food Level[J].Asian Herpetological Research,2016,7(4):265-270.[doi:10.16373/j.cnki.ahr.150062]
 Tonglei YU*,Guifang YANG,Michael BUSAM and Yaohui DENG.Plasticity in Metamorphic Traits of Rice Field Frog (Rana limnocharis) Tadpoles: The Interactive Effects of Rearing Temperature and Food Level[J].Asian Herpetological Reserch(AHR),2016,7(4):265-270.[doi:10.16373/j.cnki.ahr.150062]
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Plasticity in Metamorphic Traits of Rice Field Frog (Rana limnocharis) Tadpoles: The Interactive Effects of Rearing Temperature and Food Level()
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Asian Herpetological Research[ISSN:2095-0357/CN:51-1735/Q]

卷:
7
期数:
2016年4期
页码:
265-270
栏目:
出版日期:
2016-12-25

文章信息/Info

Title:
Plasticity in Metamorphic Traits of Rice Field Frog (Rana limnocharis) Tadpoles: The Interactive Effects of Rearing Temperature and Food Level
文章编号:
AHR-2015-0062
Author(s):
Tonglei YU1* Guifang YANG1 Michael BUSAM2 and Yaohui DENG1
1 Department of Biology, College of Life Science, Xinyang Normal University, Xinyang 464000, Henan, China
2 College of Agriculture and Natural Resources, University of Maryland, College Park, MD 20742, USA
Keywords:
metamorphosis Rana limnocharis larval period phenotypic plasticity rearing temperature food level
DOI:
10.16373/j.cnki.ahr.150062
Abstract:
In organisms with complex life cycles, such as amphibians, morphological variation is strongly influenced by environmental factors (e.g. temperature) and maternal effects (e.g. diet). Although temperature and food level exert a strong influence on larval growth, little is known about the interacting effects of these factors on age and size at metamorphosis. In this study, plasticity in growth rates, survival, larval period, and size at metamorphosis were examined in Rice field Frog (Rana limnocharis) under different combinations of rearing temperature and food level. Rearing temperature did not affect age at metamorphosis, but a significant interaction between temperature and food level revealed that of tadpoles feeding at a high food level, those reared at 32°C had a shorter length of larval period than those reared at 29°C or 26°C. Similarly, our results also showed high food level produced a larger growth rate and mass at metamorphosis at 32°C, but not at 29 and 26°C. Therefore, our results revealed that the effects of food level on larval growth and metamorphosis were highly dependent on developmental temperature.

参考文献/References:

Alvarez D., Nicieza A. G. 2002. Effects of temperature and food quality on anuran larval growth and metamorphosis. Funct Ecol, 16: 640–648
Arendt J., Hoang L. 2005. Effect of food level and rearing temperature on burst speed and muscle composition of Western Spadefoot Toad (Spea hammondii) Funct Ecol, 19: 982–987
Arnold S. J., Wassersug R. J. 1978. Differential predation on metamorphic anurans by garter snakes (Thamnophis): social behavior as a possible defense. Ecology, 59: 1014–1022
Atkinson D. 1996. Ectotherm life-history responses to developmental temperature. Animals and Temperature. Phenotypic and Evolutionary Adaptation (eds I. A. Johnston and A. F. Benett), pp. 183–204. Cambridge University Press, Cambridge
Beck C. W., Congdon J. D. 2000. Effects of age and size at metamorphosis on performance and metabolic rates of Southern Toad, Buffo terrestris, metamorphs. Funct Ecol, 14: 32–38
Berven K. A., Gill D. E. 1983. Interpreting geographic variation in life history traits. Am Zool, 23: 85–97
Buchholz D. R., Hayes T. B. 2000. Larval period comparison for the Spadefoot Toads Scaphiopus couchii and Spea multiplicata (Pelobatidae: Anura). Herpetologica, 56: 455–468
Castano B., Miely S., Smith G. R., Rettig J. E. 2010. Interactive effects of food availability and temperature on wood frog (Rana sylvatica) tadpoles. Herpetol J, 20: 209–211
Fei L., Ye C. Y. 2001. The colour handbook of amphibians of Sichuan. China Forestry Publishing House, Beijing
Gosner K. L. 1960. A simplified table for staging anuran embryos and larvae with notes on identification. Herpetologica, 16: 183–190
Laugen A. T., Laurila A., Rasanen K., Merila J. (2003). Latitudinal countergradient variation in the common frog (Rana temporaria) development rates-evidence for local adaptation. J Evol Boil, 16: 996–1005
Liess A., Rowe O., Guo J., Thomsson G., Lind M. I. 2013. Hot tadpoles from cold environments need more nutrients-life history and stoichiometry reflects latitudinal adaptation. J Anim Ecol, 82: 1316–1325
Lindgren B., Laurila A. 2009. Physiological variation along a geographical gradient: is growth rate correlated with routine metabolic rate in Rana temporaria tadpoles? Biol J the Linn Soc, 98: 217–224
Loman J. 2002. Temperature, genetic and hydroperiod effects on metamorphosis of brown frogs Rana arvalis and R. temporaria in the field. J Zool, 258: 115–129
Merila J., Laurila A., Laugen A. T., Rasanen K., Pahkala M. 2000. Plasticity in age and size at metamorphosis in Rana temporara comparison of high and low latitude populations. Ecography, 23: 457–465
Morey S. R., Reznick D. N. 2004. The relationship between habitat permanence and larval development in California spadefoot toads: field and laboratory comparison of developmental plasticity. Oikos, 104: 172–190
Nathan J. M., James V. G. 1972. The role of protozoa in the nutrition of tadpoles. Copeia, 1972: 669–679
Newman R. A. 1998. Ecological constraints on amphibian metamorphosis: interactions of temperature and larval density with responses to changing food level. Oecologia, 115: 9–16
Orizaola G., Laurila A. 2009. Microgeographic variation in temperature-induced plasticity in an isolated amphibian metapopulation. Evol Ecol, 23: 979–991
Palo J. U., O’Hara R. B., Laugen A. T., Laurila A., Primmers C. R., Merila J. 2003. Latitudinal divergence of common frog (Rana temporaria) life history traits by natural selection: evidence from a comparison of molecular and quantitative genetic data. Mol Ecol, 12: 1963–1978
Pandian T. J., Marian M. P. 1985. Predicting anuran metamorphosis and energetics. Physiol Zool, 58: 538–552
Peacor S. D., Pfister C. A. 2006. Experimental and model analyses of the effects of competition on individual size variation in wood frog (Rana sylvatica) tadpoles. J Anim Ecol, 75: 990–999
Riha V. F., Berven K. A. 1991. An analysis of latitudinal variation in the larval development of the wood frog (Rana syIvatica). Copeia, 1991: 209–221
Rose C. S. 2005. Integrating ecology and developmental biology to explain the timing of frog metamorphosis. Trends Ecol Evol, 20: 129–135
Sanuy D., Oromí N., Galofré A. 2008. Effects of temperature on embryonic and larval development and growth in the natterjack toad (Bufo calamita) in a semi-arid zone. Anim Biodiv Conserv, 31: 41–46
Shi L. Q., Zhao L. H., Ma X. H., Ma X. M. 2012. Selected body temperature and thermal tolerance of tadpoles of two frog species (Fejervarya limnocharis and Microhyla ornata) acclimated under different thermal conditions. Acta Ecologica Sinica, 32: 465–471
Skelly D. K. 2004. Microgeographic countergradient variation in the wood frog, Rana sylvatica. Evolution, 58: 160–165
Steinwascher K., Travis J. 1983. Influence of food quality and quantity on early growth of two anurans. Copeia, 1983: 238–242
von Bertalanffy L. 1960. Principles and theory of growth. Pages 137–259 in W. W. Nowinski, ed. Fundamental aspects of normal and malignant growth. Elsevier, New York
Wilbur H. M. 1980. Complex life cycles. Ann Rev Ecol Syst, 11: 67–93
Wilbur H. M., Collins J. P. 1973. Ecological aspects of amphibian metamorphosis. Science, 182: 1305–1314
Woodward B. D., Travis J., Mitchell S. 1988. The effects of the mating system on progeny performance in Hyla crucifer (Anura, Hylidae). Evolution, 42: 784–794
Wu Y. L., Sun Y. H. 1981. A preliminary observation on the early embryonic development of Rana limnocharis. Chin J Zool, 3: 28–30

更新日期/Last Update: 2016-12-25