Reptiles use pterin and carotenoid pigments to produce yellow, orange, and red colors. These conspicuous colors serve a diversity of signaling functions, but their molecular basis remains unresolved. Here, we show that the genomes of sympatric color morphs of the European common wall lizard (Podarcis muralis), which differ in orange and yellow pigmentation and in their ecology and behavior, are virtually undifferentiated. Genetic differences are restricted to two small regulatory regions, near genes associated with pterin (SPR) and carotenoid metabolism (BCO2), demonstrating that a core gene in the housekeeping pathway of pterin biosynthesis has been co-opted for bright coloration in reptiles and indicating that these loci exert pleiotropic...
As largely demonstrated for a wide range of vertebrates, the melanin‐based coloration can be the eff...
Color polymorphism – two or more heritable color phenotypes maintained within a single breeding popu...
Animal coloration has evolved in contexts such as communication, camouflage, and thermoregulation. M...
Reptiles use pterin and carotenoid pigments to produce yellow, orange, and red colors. These conspic...
Reptiles use pterin and carotenoid pigments to produce yellow, orange, and red colors. These conspic...
Determining the mechanistic and genetic basis of animal coloration is essential to understand the co...
Background: Colour polymorphic species provide invaluable insight into processes that generate and m...
Animal coloration has evolved in contexts such as communication, camouflage, and thermoregulation. M...
With functions as diverse as communication, protection and thermoregulation, coloration is one of th...
Color and color pattern are critical for animal camouflage, reproduction, and defense. Few studies, ...
Color polymorphisms are widespread in nature and may show a high variability not only within the sam...
When integumentary tissue pigments are contained in chromatophores, tissue color might not depend ex...
Background: Colour polymorphic species provide invaluable insight into processes that generate and m...
One hundred and fifty years after Darwin and “On the Origin of Species,” understanding how phenotypi...
As largely demonstrated for a wide range of vertebrates, the melanin‐based coloration can be the eff...
Color polymorphism – two or more heritable color phenotypes maintained within a single breeding popu...
Animal coloration has evolved in contexts such as communication, camouflage, and thermoregulation. M...
Reptiles use pterin and carotenoid pigments to produce yellow, orange, and red colors. These conspic...
Reptiles use pterin and carotenoid pigments to produce yellow, orange, and red colors. These conspic...
Determining the mechanistic and genetic basis of animal coloration is essential to understand the co...
Background: Colour polymorphic species provide invaluable insight into processes that generate and m...
Animal coloration has evolved in contexts such as communication, camouflage, and thermoregulation. M...
With functions as diverse as communication, protection and thermoregulation, coloration is one of th...
Color and color pattern are critical for animal camouflage, reproduction, and defense. Few studies, ...
Color polymorphisms are widespread in nature and may show a high variability not only within the sam...
When integumentary tissue pigments are contained in chromatophores, tissue color might not depend ex...
Background: Colour polymorphic species provide invaluable insight into processes that generate and m...
One hundred and fifty years after Darwin and “On the Origin of Species,” understanding how phenotypi...
As largely demonstrated for a wide range of vertebrates, the melanin‐based coloration can be the eff...
Color polymorphism – two or more heritable color phenotypes maintained within a single breeding popu...
Animal coloration has evolved in contexts such as communication, camouflage, and thermoregulation. M...