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Evolution of brain-body allometry in Lake Tanganyika cichlids

Brain size is strongly associated with body size in all vertebrates. This relationship has been hypothesized to be an important constraint on adaptive brain size evolution. The essential assumption behind this idea is that static (i.e., within species) brain–body allometry has low ability to evolve....

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Published in:Evolution 2016-07, Vol.70 (7), p.1559-1568
Main Authors: Tsuboi, Masahito, Kotrschal, Alexander, Hayward, Alexander, Buechel, Severine Denise, Zidar, Josefina, Løvlie, Hanne, Kolm, Niclas
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container_issue 7
container_start_page 1559
container_title Evolution
container_volume 70
creator Tsuboi, Masahito
Kotrschal, Alexander
Hayward, Alexander
Buechel, Severine Denise
Zidar, Josefina
Løvlie, Hanne
Kolm, Niclas
description Brain size is strongly associated with body size in all vertebrates. This relationship has been hypothesized to be an important constraint on adaptive brain size evolution. The essential assumption behind this idea is that static (i.e., within species) brain–body allometry has low ability to evolve. However, recent studies have reported mixed support for this view. Here, we examine brain–body static allometry in Lake Tanganyika cichlids using a phylogenetic comparative framework. We found considerable variation in the static allometric intercept, which explained the majority of variation in absolute and relative brain size. In contrast, the slope of the brain–body static allometry had relatively low variation, which explained less variation in absolute and relative brain size compared to the intercept and body size. Further examination of the tempo and mode of evolution of static allometric parameters confirmed these observations. Moreover, the estimated evolutionary parameters indicate that the limited observed variation in the static allometric slope could be a result of strong stabilizing selection. Overall, our findings suggest that the brain–body static allometric slope may represent an evolutionary constraint in Lake Tanganyika cichlids.
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subjects Allometry
Animal behavior
Animals
Biological Evolution
Body Size
Brain
Brain - anatomy & histology
brain evolution
brain-body allometry
Cichlidae
Cichlids
Cichlids - anatomy & histology
constraints
Evolution
Fish
Lake Tanganyika cichlid
Lakes
Organ Size
Parameter estimation
phylogenetic comparative analysis
Phylogenetics
Phylogeny
Vertebrates
Zambia
title Evolution of brain-body allometry in Lake Tanganyika cichlids
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