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A General Model for the Origin of Allometric Scaling Laws in Biology

@inproceedings{West1997AGM,
  title={A General Model for the Origin of Allometric Scaling Laws in Biology},
  author={Geoffrey B. West and James H. Brown and Brian J. Enquist},
  booktitle={Science},
  year={1997},
  url={https://api.semanticscholar.org/CorpusID:3140271}
}
The model provides a complete analysis of scaling relations for mammalian circulatory systems that are in agreement with data and predicts structural and functional properties of vertebrate cardiovascular and respiratory systems, plant vascular systems, insect tracheal tubes, and other distribution networks.

Allometric Scaling Laws and the Derivation of the Scaling Exponent

Allometric scaling relations abound in nature. Examples include the power law relating the metabolic rate of organisms to their masses and the power law describing the dependence of the size. In

Allometric scaling and central source systems.

This work presents a scaling exponent of the form D/D+1, which is simply a consequence of the source distribution of the systems considered and requires no further assumptions.

Scaling Laws in Physiology: Relationships between Size, Function, Metabolism and Life Expectancy

This universal equation, χ M, is applied to study mammals' circulatory network, function, metabolism and life expectancy and it is shown that this power-law scaling is valid even in a class of animals that vary widely in size.

Yes, West, Brown and Enquist"s model of allometric scaling is both mathematically correct and biologically relevant

The WBE model of the mammalian cardiovascular systems shows quantitatively and realistically how the scalings of the structure and hydrodynamics solve the problem of distributing blood from a beating heart through elastic hierarchically branching arteries to body-size invariant capillaries.

A general model for metabolic scaling in self-similar asymmetric networks

A general network model is derived that relaxes the symmetric assumption and defines two classes of asymmetrically bifurcating networks and shows how network asymmetry can now be incorporated in the many allometric scaling relationships via total network volume.

Allometric scaling law and ergodicity breaking in the vascular system

The West-Brown-Enquist model of fractal branching in a vascular network explains the empirical allometric Kleiber law and may be viewed as a source of ergodicity breaking in biophysical systems, in addition to such mechanisms as aging and macromolecular crowding.

Allometric scaling law and ergodicity breaking in the vascular system

The West-Brown-Enquist model of fractal branching in a vascular network explains the empirical allometric Kleiber law and may be viewed as a source of ergodicity breaking in biophysical systems, in addition to such mechanisms as aging and macromolecular crowding.
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Botanical Scaling. (Book Reviews: Plant Allometry. The Scaling of Form and Process.)

The objective of this book is to show that, in contrast to the empirical approach to the relations between absolute and relative size, and between organic form and process, scaling relations can be analytically derived.

Active and resting metabolism in birds: allometry, phylogeny and ecology

Despite the strong correlation between resting metabolic rate and body weight, there is evidence for adaptive departures from the allometric line, and possible selective forces are discussed.

Structural and Functional Determinates of Metabolic Rate

Standard metabolic rates are principally determined by relatively few factors: temperature, mass, and phylogenetic affinities, and the phylogenetic history and relative associations of an animal are important determinates of energy expenditure.

Size and Shape in Biology

The model proposed here promises useful answers in comparisons of living things on both the microscopic and the gross scale, as part of the growing science of form, which asks precisely how organisms are diverse and yet again how they are alike.

Comparative Cardiovascular Dynamics of Mammals

    J. Li
    Biology, Medicine
  • 1995
Introduction The Mammalian Species The Cardiovascular System Function of the Circulation Book Content Comparative Anatomy and Physiology of the Circulation The Heart Arteries The Veins The

The Ecological Implications of Body Size

A mathematical primer: logarithms, power curves, and correlations, and a mathematical primer for allometric simulation models.

Size‐dependent variations in plant growth rates and the “¾‐power rule”

It is speculated that the anisometric relation between the growth rate and mass of unicellular plants is attributable to a "dilution" of metabolically active cellular constituents with increasing cell size in combination with the scaling of surface area with respect to volume.
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