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Flow similarity model predicts the allometry and allometric covariation of petiole dimensions
by
Price, Charles A.
in
Allometry
/ Angiospermae
/ Biomechanics
/ Cell division
/ fluid mechanics
/ geometry
/ Hydraulics
/ Morphology
/ petioles
/ Variables
2023
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Flow similarity model predicts the allometry and allometric covariation of petiole dimensions
by
Price, Charles A.
in
Allometry
/ Angiospermae
/ Biomechanics
/ Cell division
/ fluid mechanics
/ geometry
/ Hydraulics
/ Morphology
/ petioles
/ Variables
2023
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Flow similarity model predicts the allometry and allometric covariation of petiole dimensions
Journal Article
Flow similarity model predicts the allometry and allometric covariation of petiole dimensions
2023
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Overview
Allometric relationships for plants, plant organs and plant parts, have long generated interest among biologists. Several prominent theoretical models based on biomechanical and/or hydraulic arguments have been introduced with mixed support. Here, I test a more recent offering, flow similarity, which is based on the conservation of volumetric flow rate and velocity. Using dimensional data for 935 petioles from 43 angiosperm species, I show that both the intraspecific and interspecific petiole allometries are more closely aligned with the predictions of the flow similarity model than that of elastic or geometric similarity. Further, allometric covariation among empirical scaling exponents falls along predicted functions with clustering around the flow similarity predictions. This work adds to the body of literature highlighting the importance of hydraulics in understanding the physiological basis of plant allometries, identifies previously unknown central tendencies in petiole allometry, and helps to delineate the scope within which the flow similarity model may be applicable.
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