Determining the mechanistic and genetic basis of animal coloration is essential to understand the costs and constraints on colour production, and the evolution and maintenance of phenotypic variation. However, genes underlying structural colour and widespread pigment classes apart from melanin remain largely uncharacterised, in part due to restricted taxonomic focus. We combined liquid chromatography-mass spectrometry and RNA-seq gene expression analyses to characterise the pigments and genes associated with skin colour in the polymorphic lizard, Ctenophorus decresii. Throat coloration in male C. decresii may be a combination of orange, yellow, grey or ultra-violet blue. We confirmed the presence of two biochemically different pigment class...
Population differences in visual environment can lead to divergence in multiple components of animal...
Colour polymorphic species are model systems for examining the evolutionary processes that generate ...
As largely demonstrated for a wide range of vertebrates, the melanin‐based coloration can be the eff...
Determining the mechanistic and genetic basis of animal coloration is essential to understand the co...
Reptiles use pterin and carotenoid pigments to produce yellow, orange, and red colors. These conspic...
Animal coloration has evolved in contexts such as communication, camouflage, and thermoregulation. M...
Reptiles show an amazing color diversity based on variation in melanins, carotenoids, and pterins. T...
Background: Colour polymorphic species provide invaluable insight into processes that generate and m...
Color and color pattern are critical for animal camouflage, reproduction, and defense. Few studies, ...
With functions as diverse as communication, protection and thermoregulation, coloration is one of th...
Carotenoids typically need reflective background components to shine. Such components, iridophores, ...
Animal coloration has evolved in contexts such as communication, camouflage, and thermoregulation. M...
Background: Colour polymorphic species provide invaluable insight into processes that generate and m...
Population differences in visual environment can lead to divergence in multiple components of animal...
Colour polymorphic species are model systems for examining the evolutionary processes that generate ...
As largely demonstrated for a wide range of vertebrates, the melanin‐based coloration can be the eff...
Determining the mechanistic and genetic basis of animal coloration is essential to understand the co...
Reptiles use pterin and carotenoid pigments to produce yellow, orange, and red colors. These conspic...
Animal coloration has evolved in contexts such as communication, camouflage, and thermoregulation. M...
Reptiles show an amazing color diversity based on variation in melanins, carotenoids, and pterins. T...
Background: Colour polymorphic species provide invaluable insight into processes that generate and m...
Color and color pattern are critical for animal camouflage, reproduction, and defense. Few studies, ...
With functions as diverse as communication, protection and thermoregulation, coloration is one of th...
Carotenoids typically need reflective background components to shine. Such components, iridophores, ...
Animal coloration has evolved in contexts such as communication, camouflage, and thermoregulation. M...
Background: Colour polymorphic species provide invaluable insight into processes that generate and m...
Population differences in visual environment can lead to divergence in multiple components of animal...
Colour polymorphic species are model systems for examining the evolutionary processes that generate ...
As largely demonstrated for a wide range of vertebrates, the melanin‐based coloration can be the eff...