Classical epistasis analysis can determine the order of function of genes in pathways using morphological, biochemical and other phenotypes. It requires knowledge of the pathway's phenotypic output and a variety of experimental expertise and so is unsuitable for genome-scale analysis. Here we used microarray profiles of mutants as phenotypes for epistasis analysis. Considering genes that regulate activity of protein kinase A in Dictyostelium, we identified known and unknown epistatic relationships and reconstructed a genetic network with microarray phenotypes alone. This work shows that microarray data can provide a uniform, quantitative tool for large-scale genetic network analysis
Abstract Recently, approaches have been developed for high-throughput identification o...
BACKGROUND: Identifying candidate genes in genetic networks is important for understanding regulatio...
The way in which the information contained in genotypes is translated into complex phenotypic traits...
Classical epistasis analysis can determine the order of function of genes in pathways using morpholo...
Motivation: Epistasis analysis is an essential tool of classical genetics for inferring the order of...
Inferring regulatory and metabolic network models from quantitative genetic interaction data remains...
Abstract Background Genetic interactions are keys to understand complex traits and evolution. Epista...
Epistasis refers to the phenomenon that phenotypic consequences caused by mutation of one gene depen...
Abstract Background Epistatic Miniarray Profiling(E-MAP) quantifies the net effect on growth rate of...
Genetic interactions describe how the presence of one gene affects the function of a second gene. Ne...
Epistasis, or gene-gene interaction, contributes substantially to trait variation in organisms rangi...
Inferring regulatory relationships between genes, including the direction and the nature of influenc...
Recently, approaches have been developed for high-throughput identification of synthetic sick/lethal...
An epistatic interaction between two genes occurs when the phenotypic impact of one gene depends on ...
Abstract Recently, approaches have been developed for high-throughput identification o...
Abstract Recently, approaches have been developed for high-throughput identification o...
BACKGROUND: Identifying candidate genes in genetic networks is important for understanding regulatio...
The way in which the information contained in genotypes is translated into complex phenotypic traits...
Classical epistasis analysis can determine the order of function of genes in pathways using morpholo...
Motivation: Epistasis analysis is an essential tool of classical genetics for inferring the order of...
Inferring regulatory and metabolic network models from quantitative genetic interaction data remains...
Abstract Background Genetic interactions are keys to understand complex traits and evolution. Epista...
Epistasis refers to the phenomenon that phenotypic consequences caused by mutation of one gene depen...
Abstract Background Epistatic Miniarray Profiling(E-MAP) quantifies the net effect on growth rate of...
Genetic interactions describe how the presence of one gene affects the function of a second gene. Ne...
Epistasis, or gene-gene interaction, contributes substantially to trait variation in organisms rangi...
Inferring regulatory relationships between genes, including the direction and the nature of influenc...
Recently, approaches have been developed for high-throughput identification of synthetic sick/lethal...
An epistatic interaction between two genes occurs when the phenotypic impact of one gene depends on ...
Abstract Recently, approaches have been developed for high-throughput identification o...
Abstract Recently, approaches have been developed for high-throughput identification o...
BACKGROUND: Identifying candidate genes in genetic networks is important for understanding regulatio...
The way in which the information contained in genotypes is translated into complex phenotypic traits...