Abstract Background Fishes are extremely speciose and also highly disparate in their fin configurations, more specifically in the number of fins present as well as their structure, shape, and size. How they achieved this remarkable disparity is difficult to explain in the absence of any comprehensive overview of the evolutionary history of fish appendages. Fin modularity could provide an explanation for both the observed disparity in fin configurations and the sequential appearance of new fins. Modularity is considered as an important prerequisite for the evolvability of living systems, enabling individual modules to be optimized without interfering with others. Similarities in developmental patterns between some of the fins already suggest...
The newly resurgent field of evolutionary developmental biology integrates the study of evolutionari...
The evolutionary origin of the autopod involved a loss of the fin-fold and associated dermal skeleto...
All living tetrapods have a one-to-two branching pattern in the embryonic proximal limb skeleton, wi...
Abstract Background Fishes are extremely speciose and...
Fishes are both extremely diverse and morphologically disparate. Part of this disparity can be obser...
Changes in development drive evolution to produce exceptionally diverse morphologies, but too often,...
With a generally conserved function for locomotion, paired fins have an extensive evolutionary histo...
Phenotypic integration and modularity describe the strength and pattern of interdependencies between...
Phenotypic integration and modularity describe the strength and pattern of interdependencies between...
Phenotypic integration and modularity describe the strength and pattern of interdependencies between...
The locomotory appendages of vertebrates have undergone significant changes during evolution, which ...
Limited gross anatomical information about the muscles of fins, in particular those of the median fi...
Appendicular skeletal traits are used to quantify changes in morphological disparity and morphospace...
The transformation of paired fins into tetrapod limbs is one of the most intensively scrutinized eve...
The newly resurgent field of evolutionary developmental biology integrates the study of evolutionari...
The newly resurgent field of evolutionary developmental biology integrates the study of evolutionari...
The evolutionary origin of the autopod involved a loss of the fin-fold and associated dermal skeleto...
All living tetrapods have a one-to-two branching pattern in the embryonic proximal limb skeleton, wi...
Abstract Background Fishes are extremely speciose and...
Fishes are both extremely diverse and morphologically disparate. Part of this disparity can be obser...
Changes in development drive evolution to produce exceptionally diverse morphologies, but too often,...
With a generally conserved function for locomotion, paired fins have an extensive evolutionary histo...
Phenotypic integration and modularity describe the strength and pattern of interdependencies between...
Phenotypic integration and modularity describe the strength and pattern of interdependencies between...
Phenotypic integration and modularity describe the strength and pattern of interdependencies between...
The locomotory appendages of vertebrates have undergone significant changes during evolution, which ...
Limited gross anatomical information about the muscles of fins, in particular those of the median fi...
Appendicular skeletal traits are used to quantify changes in morphological disparity and morphospace...
The transformation of paired fins into tetrapod limbs is one of the most intensively scrutinized eve...
The newly resurgent field of evolutionary developmental biology integrates the study of evolutionari...
The newly resurgent field of evolutionary developmental biology integrates the study of evolutionari...
The evolutionary origin of the autopod involved a loss of the fin-fold and associated dermal skeleto...
All living tetrapods have a one-to-two branching pattern in the embryonic proximal limb skeleton, wi...