AbstractSimilar disease phenotypes are engendered as a result of the modular nature of gene networks; thus we hypothesized that all human genetic disease phenotypes appear in similar modular styles. Network representations of phenotypes make it possible to explore this hypothesis. We investigated the modularity of a network of genetic disease phenotypes. We computationally extracted phenotype modules and found that the modularity is well correlated with a physiological classification of human diseases. We also found correlations between the modularity and functional genomics as well as its connection to drug-target associations
MasterMolecular connection is primary mechanism for comorbidity of distinct diseases in population. ...
Deciphering the genetic basis of human diseases is an important goal of biomedical research. On the ...
Previous studies of network properties of human disease genes have mainly focused on monogenic disea...
AbstractSimilar disease phenotypes are engendered as a result of the modular nature of gene networks...
Evidence from many sources suggests that similar phenotypes are begotten by functionally related gen...
Background: Scientists have been trying to understand the molecular mechanisms of diseases to design...
AbstractCurrently, some efforts have been devoted to the text analysis of disease phenotype data, an...
<div><p>Recent advances in genome sequencing techniques have improved our understanding of the genot...
Recent advances in genome sequencing techniques have improved our understanding of the genotype-phen...
Empirical clinical studies on the human interactome and phenome not only illustrates prevalent pheno...
<div><p>The molecular complexity of genetic diseases requires novel approaches to break it down into...
Untangling the complex interplay between phenotype and genotype is crucial to the effective characte...
More reliable and cheaper sequencing technologies have revealed the vast mutational landscapes chara...
Abstract/nBACKGROUND: Scientists have been trying to understand the molecular mechanisms of diseases...
AbstractSystems approaches to analyzing disease phenotype networks in combination with protein funct...
MasterMolecular connection is primary mechanism for comorbidity of distinct diseases in population. ...
Deciphering the genetic basis of human diseases is an important goal of biomedical research. On the ...
Previous studies of network properties of human disease genes have mainly focused on monogenic disea...
AbstractSimilar disease phenotypes are engendered as a result of the modular nature of gene networks...
Evidence from many sources suggests that similar phenotypes are begotten by functionally related gen...
Background: Scientists have been trying to understand the molecular mechanisms of diseases to design...
AbstractCurrently, some efforts have been devoted to the text analysis of disease phenotype data, an...
<div><p>Recent advances in genome sequencing techniques have improved our understanding of the genot...
Recent advances in genome sequencing techniques have improved our understanding of the genotype-phen...
Empirical clinical studies on the human interactome and phenome not only illustrates prevalent pheno...
<div><p>The molecular complexity of genetic diseases requires novel approaches to break it down into...
Untangling the complex interplay between phenotype and genotype is crucial to the effective characte...
More reliable and cheaper sequencing technologies have revealed the vast mutational landscapes chara...
Abstract/nBACKGROUND: Scientists have been trying to understand the molecular mechanisms of diseases...
AbstractSystems approaches to analyzing disease phenotype networks in combination with protein funct...
MasterMolecular connection is primary mechanism for comorbidity of distinct diseases in population. ...
Deciphering the genetic basis of human diseases is an important goal of biomedical research. On the ...
Previous studies of network properties of human disease genes have mainly focused on monogenic disea...