Can optimal resource allocation models explain why ectotherms grow larger in cold?
J Kozłowski, M Czarnołęski… - … and Comparative Biology, 2004 - academic.oup.com
Basically all organisms can be classified as determinate growers if their growth stops or
almost stops at maturation, or indeterminate growers if growth is still intense after maturation …
almost stops at maturation, or indeterminate growers if growth is still intense after maturation …
Size‐fecundity relationships, growth trajectories, and the temperature‐size rule for ectotherms
JD Arendt - Evolution, 2011 - academic.oup.com
Many ectotherms show crossing growth trajectories as a plastic response to rearing
temperature. As a result, individuals growing up in cool conditions grow slower, mature later …
temperature. As a result, individuals growing up in cool conditions grow slower, mature later …
How rearing temperature affects optimal adult size in ectotherms
RM Sibly, D Atkinson - Functional Ecology, 1994 - JSTOR
1. Rearing temperature may affect juvenile mortality, growth and development rates, adult
mortality rate, and/or population growth rate. Increased juvenile growth rate may affect the …
mortality rate, and/or population growth rate. Increased juvenile growth rate may affect the …
Temperature, growth rate, and body size in ectotherms: fitting pieces of a life-history puzzle
MJ Angilletta Jr, TD Steury… - … and comparative biology, 2004 - academic.oup.com
The majority of ectotherms grow slower but mature at a larger body size in colder
environments. This phenomenon has puzzled biologists because classic theories of life …
environments. This phenomenon has puzzled biologists because classic theories of life …
Experimental demonstration of a 'rate–size'trade-off governing body size optimization
JP DeLong - Evolutionary Ecology Research, 2012 - evolutionary-ecology.com
Questions: Can the decline in ectotherm body size with increasing temperature be explained
using a simple body size optimization model? Does the pattern conform to the rate–size …
using a simple body size optimization model? Does the pattern conform to the rate–size …
Evolution of thermal sensitivity of ectotherm performance
RB Huey, JG Kingsolver - Trends in ecology & evolution, 1989 - cell.com
By influencing physiological reaction rates'-', body temperature has a significant impact on
an ectotherm's performance (eg its ability to run, feed and interact sociallyI and ultimately on …
an ectotherm's performance (eg its ability to run, feed and interact sociallyI and ultimately on …
The temperature-size rule in ectotherms: simple evolutionary explanations may not be general
MJ Angilletta, Jr, AE Dunham - The American Naturalist, 2003 - journals.uchicago.edu
In many organisms, individuals in colder environments grow more slowly but are larger as
adults. This widespread pattern is embodied by two well-established rules: Bergmann's rule …
adults. This widespread pattern is embodied by two well-established rules: Bergmann's rule …
A general model for effects of temperature on ectotherm ontogenetic growth and development
The temperature size rule (TSR) is the tendency for ectotherms to develop faster but mature
at smaller body sizes at higher temperatures. It can be explained by a simple model in which …
at smaller body sizes at higher temperatures. It can be explained by a simple model in which …
How do organisms change size with changing temperature? The importance of reproductive method and ontogenetic timing
J Forster, AG Hirst, D Atkinson - Functional Ecology, 2011 - Wiley Online Library
The 'temperature‐size rule'(TSR) is a widely observed phenomenon within ectothermic
species: individuals reared at lower temperatures grow more slowly, but are larger as adults …
species: individuals reared at lower temperatures grow more slowly, but are larger as adults …
Thermal time: body size, food quality and the 10 C rule
EL Charnov, JF Gillooly - Evolutionary Ecology Research, 2003 - evolutionary-ecology.com
Developmental rates of ectotherms (y) are often linearly related to temperature (T c in C)
within some biologically relevant range of temperatures as y=(1/S)(T c− T b), where T b is …
within some biologically relevant range of temperatures as y=(1/S)(T c− T b), where T b is …