Comparative developmental evidence indicates that reorganizations in developmental gene regulatory networks (GRNs) underlie evolutionary changes in animal morphology, including body plans. We argue here that the nature of the evolutionary alterations that arise from regulatory changes depends on the hierarchical position of the change within a GRN. This concept cannot be accomodated by microevolutionary nor macroevolutionary theory. It will soon be possible to investigate these ideas experimentally, by assessing the effects of GRN changes on morphological evolution
Sea stars and sea urchins evolved from a last common ancestor that lived at the end of the Cambrian,...
Synopsis Advanced genomics tools enable powerful new strategies for understanding complex biological...
Today's biodiversity is the spectacular product of hundreds of millions of years of evolution. Under...
Comparative developmental evidence indicates that reorganizations in developmental gene regulatory n...
Evolutionary change in animal morphology results from alteration of the functional organization of t...
Evolutionary change in animal morphology results from alteration of the functional organization of t...
The molecular and genetic basis for the evolution of anatomical diversity is a major question that h...
AbstractAt present several entirely different explanatory approaches compete to illuminate the mecha...
At present several entirely different explanatory approaches compete to illuminate the mechanisms by...
AbstractAn open question in animal evolution is why the phylum- and superphylum-level body plans hav...
Gene regulatory networks (GRNs) offer an unprecedented view on the genomic control of developmental ...
The nature of the origin of morphological characters has long been a central subject of interest in ...
<p>A central challenge of developmental and evolutionary biology is to explain how anatomy is encode...
<div><p>The extent and the nature of the constraints to evolutionary trajectories are central issues...
<div><p>Convergent phenotypic evolution is often caused by recurrent changes at particular nodes in ...
Sea stars and sea urchins evolved from a last common ancestor that lived at the end of the Cambrian,...
Synopsis Advanced genomics tools enable powerful new strategies for understanding complex biological...
Today's biodiversity is the spectacular product of hundreds of millions of years of evolution. Under...
Comparative developmental evidence indicates that reorganizations in developmental gene regulatory n...
Evolutionary change in animal morphology results from alteration of the functional organization of t...
Evolutionary change in animal morphology results from alteration of the functional organization of t...
The molecular and genetic basis for the evolution of anatomical diversity is a major question that h...
AbstractAt present several entirely different explanatory approaches compete to illuminate the mecha...
At present several entirely different explanatory approaches compete to illuminate the mechanisms by...
AbstractAn open question in animal evolution is why the phylum- and superphylum-level body plans hav...
Gene regulatory networks (GRNs) offer an unprecedented view on the genomic control of developmental ...
The nature of the origin of morphological characters has long been a central subject of interest in ...
<p>A central challenge of developmental and evolutionary biology is to explain how anatomy is encode...
<div><p>The extent and the nature of the constraints to evolutionary trajectories are central issues...
<div><p>Convergent phenotypic evolution is often caused by recurrent changes at particular nodes in ...
Sea stars and sea urchins evolved from a last common ancestor that lived at the end of the Cambrian,...
Synopsis Advanced genomics tools enable powerful new strategies for understanding complex biological...
Today's biodiversity is the spectacular product of hundreds of millions of years of evolution. Under...