
pmid: 11570589
In this paper we give a derivation for the allometric scaling relation between the metabolic rate and the mass of animals and plants. We show that the characteristic scaling exponent of 3/4 occurring in this relation is a result of the distribution of sources and sinks within the living organism. We further introduce a principle of least mass and discuss the kind of flows that arise from it.
metabolic rate, scaling exponent, Body Weight, Functions of several variables, Lizards, Plants, Models, Biological, allometric scaling relation, Mice, Metabolism, Mathematical biology in general, mass, Animals, Cattle, Integral formulas of real functions of several variables (Stokes, Gauss, Green, etc.), principle of least mass, Mathematical Computing, General biology and biomathematics
metabolic rate, scaling exponent, Body Weight, Functions of several variables, Lizards, Plants, Models, Biological, allometric scaling relation, Mice, Metabolism, Mathematical biology in general, mass, Animals, Cattle, Integral formulas of real functions of several variables (Stokes, Gauss, Green, etc.), principle of least mass, Mathematical Computing, General biology and biomathematics
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