The evolution of structure in biology is driven by accretion and diversification. Accretion brings together disparate parts to form bigger wholes. Divers cation provides opportunities for growth and innovation. Here, we review patterns and processes that are responsible for a 'double tale' of accretion and diversification at various levels of complexity, from proteins and nucleic acids to high-rise building structures in cities. Parts are at first weakly linked and associate variously. As they diversity, they compete with each other and are selected for performance. The emerging interactions constrain their structure and associations. This causes parts to self-organise into modules with tight linkage. In a second phase, variants of the modu...
We assume that the functional relations that a protein engages in, influences it’s evolutionary dyna...
Proteins are tiny models of biological complexity: specific interactions among their many amino acid...
This chapter reviews the current research on how protein domain architectures evolve. We begin by su...
Biological systems are complex entities comprising of parts that interact with each other within and...
The survey of components in living systems at different levels of organization enables an evolutiona...
Although the mechanisms by which complex cellular features evolve constitute one of the great unsolv...
Protein structural diversity encompasses a finite set of architectural designs. Embedded in these to...
The bottom-up approach to understanding the evolution of organisms is by studying molecular evolutio...
SummaryProtein domains are compact evolutionary units of structure and function that usually combine...
Structural requirements constrain the evolution of biological entities at all levels, from macromole...
Most proteins have been formed by gene duplication, recombination, and divergence. Proteins of known...
Accretion occurs pervasively in nature at widely different timeframes. The process also manifests in...
The protein world has a hierarchical and redundant organization that can be specified in terms of ev...
AbstractAccretion occurs pervasively in nature at widely different timeframes. The process also mani...
AbstractWe develop models of the divergent evolution of genomes; the elementary object of sequence d...
We assume that the functional relations that a protein engages in, influences it’s evolutionary dyna...
Proteins are tiny models of biological complexity: specific interactions among their many amino acid...
This chapter reviews the current research on how protein domain architectures evolve. We begin by su...
Biological systems are complex entities comprising of parts that interact with each other within and...
The survey of components in living systems at different levels of organization enables an evolutiona...
Although the mechanisms by which complex cellular features evolve constitute one of the great unsolv...
Protein structural diversity encompasses a finite set of architectural designs. Embedded in these to...
The bottom-up approach to understanding the evolution of organisms is by studying molecular evolutio...
SummaryProtein domains are compact evolutionary units of structure and function that usually combine...
Structural requirements constrain the evolution of biological entities at all levels, from macromole...
Most proteins have been formed by gene duplication, recombination, and divergence. Proteins of known...
Accretion occurs pervasively in nature at widely different timeframes. The process also manifests in...
The protein world has a hierarchical and redundant organization that can be specified in terms of ev...
AbstractAccretion occurs pervasively in nature at widely different timeframes. The process also mani...
AbstractWe develop models of the divergent evolution of genomes; the elementary object of sequence d...
We assume that the functional relations that a protein engages in, influences it’s evolutionary dyna...
Proteins are tiny models of biological complexity: specific interactions among their many amino acid...
This chapter reviews the current research on how protein domain architectures evolve. We begin by su...