AbstractAnalysis of the whole set of human genes reveals that most of them present TA and GC skews, that these biases are correlated to each other and are specific to gene sequences, exhibiting sharp transitions between transcribed and non-transcribed regions. The GC asymmetries cannot be explained solely by a model previously proposed for (G+T) skew based on transitions measured in a small set of human genes. We propose that the GC skew results from additional transcription-coupled mutation process that would include transversions. During evolution, both processes acting on a large majority of genes in germline cells would have produced these transcription-coupled strand asymmetries
During evolution, mutations occur at rates that can differ between the two DNA strands. In the human...
AbstractHere, we evaluate the contribution of two major biological processes—DNA replication and tra...
Under neutrality all classes of mutation have an equal probability of becoming fixed in a population...
Abstract Analysis of the whole set of human genes reveals that most of them present TA and GC skews...
AbstractAnalysis of the whole set of human genes reveals that most of them present TA and GC skews, ...
A great deal of effort has been devoted to measuring the rates of different types of nucleotide subs...
A regional analysis of nucleotide substitution rates along human genes and their flanking regions al...
Under no-strand bias conditions, each genomic DNA strand should present equimolarities of A and T an...
A regional analysis of nucleotide substitution rates along human genes and their flanking regions al...
A regional analysis of nucleotide substitution rates along human genes and their flanking regions al...
Background:Complementary single-nucleotide polymorphisms (SNPs) may not be distributed equally betwe...
AbstractSince the human genome is mostly transcribed, genetic variations must exhibit sequence signa...
In the course of evolution, mutations do not affect both strands of genomic DNA equally. This imbal...
In the course of evolution, mutations do not affect both strands of genomic DNA equally. This imbala...
A great deal of effort has been devoted to measuring the rates of different types of nucleotide subs...
During evolution, mutations occur at rates that can differ between the two DNA strands. In the human...
AbstractHere, we evaluate the contribution of two major biological processes—DNA replication and tra...
Under neutrality all classes of mutation have an equal probability of becoming fixed in a population...
Abstract Analysis of the whole set of human genes reveals that most of them present TA and GC skews...
AbstractAnalysis of the whole set of human genes reveals that most of them present TA and GC skews, ...
A great deal of effort has been devoted to measuring the rates of different types of nucleotide subs...
A regional analysis of nucleotide substitution rates along human genes and their flanking regions al...
Under no-strand bias conditions, each genomic DNA strand should present equimolarities of A and T an...
A regional analysis of nucleotide substitution rates along human genes and their flanking regions al...
A regional analysis of nucleotide substitution rates along human genes and their flanking regions al...
Background:Complementary single-nucleotide polymorphisms (SNPs) may not be distributed equally betwe...
AbstractSince the human genome is mostly transcribed, genetic variations must exhibit sequence signa...
In the course of evolution, mutations do not affect both strands of genomic DNA equally. This imbal...
In the course of evolution, mutations do not affect both strands of genomic DNA equally. This imbala...
A great deal of effort has been devoted to measuring the rates of different types of nucleotide subs...
During evolution, mutations occur at rates that can differ between the two DNA strands. In the human...
AbstractHere, we evaluate the contribution of two major biological processes—DNA replication and tra...
Under neutrality all classes of mutation have an equal probability of becoming fixed in a population...