The capacity to resist perturbations from the environment is crucial to the survival of all organisms. We quantitatively analyze the susceptibility of protein interaction networks of numerous organisms to random and targeted failures. We find for all organisms studied that random rewiring improves protein network robustness, so that actual networks are more fragile than rewired surrogates. This unexpected fragility contrasts with the behavior of networks such as the Internet, whose robustness decreases with random rewiring. We trace this surprising effect to the modular structure of protein networks
Biological networks have evolved to be highly functional within uncertain environments while remaini...
The structure of molecular networks is believed to determine important aspects of their cellular fun...
The structure of molecular networks is believed to determine important aspects of their cellular fun...
Texto completo: acesso restrito. p. 1-5The capacity to resist perturbations from the environment is ...
[[abstract]]The stability and fragility of four species’ protein-protein interaction networks (PINs)...
The relationship between the structure and function of biological networks constitutes a fundamental...
[[abstract]]The topological structures and robustness of the protein-protein interaction networks (P...
<div><p>The topology of cellular circuits (the who-interacts-with-whom) is key to understand their r...
Protein-protein interaction (PPI) networks represent complex intra-cellular protein interactions , a...
Biological networks have evolved to be highly functional within uncertain environments while remaini...
Recently, there has been much interest in the resilience of complex networks to random failures and ...
BackgroundMany studies of biochemical networks have analyzed network topology. Such work has suggest...
© 2018 AACC. Mathematical theories and empirical evidence suggest that several complex natural and m...
Robustness is a prominent feature of most biological systems. Most previous related studies have bee...
Many complex systems, from power grids and the internet, to the brain and society, can be modeled us...
Biological networks have evolved to be highly functional within uncertain environments while remaini...
The structure of molecular networks is believed to determine important aspects of their cellular fun...
The structure of molecular networks is believed to determine important aspects of their cellular fun...
Texto completo: acesso restrito. p. 1-5The capacity to resist perturbations from the environment is ...
[[abstract]]The stability and fragility of four species’ protein-protein interaction networks (PINs)...
The relationship between the structure and function of biological networks constitutes a fundamental...
[[abstract]]The topological structures and robustness of the protein-protein interaction networks (P...
<div><p>The topology of cellular circuits (the who-interacts-with-whom) is key to understand their r...
Protein-protein interaction (PPI) networks represent complex intra-cellular protein interactions , a...
Biological networks have evolved to be highly functional within uncertain environments while remaini...
Recently, there has been much interest in the resilience of complex networks to random failures and ...
BackgroundMany studies of biochemical networks have analyzed network topology. Such work has suggest...
© 2018 AACC. Mathematical theories and empirical evidence suggest that several complex natural and m...
Robustness is a prominent feature of most biological systems. Most previous related studies have bee...
Many complex systems, from power grids and the internet, to the brain and society, can be modeled us...
Biological networks have evolved to be highly functional within uncertain environments while remaini...
The structure of molecular networks is believed to determine important aspects of their cellular fun...
The structure of molecular networks is believed to determine important aspects of their cellular fun...