Gibbons have experienced extensive karyotype rearrangements during evolution and represent an ideal model for studying the underlying molecular mechanism of evolutionary chromosomal rearrangements. It is anticipated that the cloning and sequence characterization of evolutionary chromosomal breakpoints will provide vital insights into the molecular force that has driven such a radical karyotype reshuffle in gibbons. We constructed and characterized a high-quality fosmid library of the white-cheeked gibbon (Nomascus leucogenys) containing 192,000 non-redundant clones with an average insert size of 38kb and 2.5-fold genome coverage. By end sequencing of 100 randomly selected fosmid clones, we generated 196 sequence tags for the library. These ...
Gibbons are small arboreal apes that display an accelerated rate of evolutionary chromosomal rearran...
In this study we characterized the extension, reciprocal arrangement, and orientation of syntenic ch...
The homology between hylobatid chromosomes and other primates has long remained elusive. We used chr...
Gibbons have experienced extensive karyotype rearrangements during evolution and represent an ideal ...
The gibbon karyotype is known to be extensively rearranged when compared to the human and to the anc...
Gibbons are part of the same superfamily (Hominoidea) as humans and great apes, but their karyotype ...
The gibbon genome exhibits extensive karyotypic diversity with an increased rate of chromosomal rear...
The gibbon family belongs to the superfamily Hominoidea and includes 15 species divided into four ge...
Chromosome rearrangements in small apes are up to 20 times more frequent than in most mammals. Becau...
Gibbons are the most speciose family of living apes, characterized by a strikingly diverse chromosom...
Gibbons are part of the same superfamily (Hominoidea) as humans and great apes, but their karyotype ...
Gibbon species have accumulated an unusually high number of chromosomal changes since diverging from...
Gibbons are part of the same superfamily (Hominoidea) as humans and great apes, but their karyotype ...
Gibbons are small arboreal apes that display an accelerated rate of evolutionary chromosomal rearran...
In this study we characterized the extension, reciprocal arrangement, and orientation of syntenic ch...
The homology between hylobatid chromosomes and other primates has long remained elusive. We used chr...
Gibbons have experienced extensive karyotype rearrangements during evolution and represent an ideal ...
The gibbon karyotype is known to be extensively rearranged when compared to the human and to the anc...
Gibbons are part of the same superfamily (Hominoidea) as humans and great apes, but their karyotype ...
The gibbon genome exhibits extensive karyotypic diversity with an increased rate of chromosomal rear...
The gibbon family belongs to the superfamily Hominoidea and includes 15 species divided into four ge...
Chromosome rearrangements in small apes are up to 20 times more frequent than in most mammals. Becau...
Gibbons are the most speciose family of living apes, characterized by a strikingly diverse chromosom...
Gibbons are part of the same superfamily (Hominoidea) as humans and great apes, but their karyotype ...
Gibbon species have accumulated an unusually high number of chromosomal changes since diverging from...
Gibbons are part of the same superfamily (Hominoidea) as humans and great apes, but their karyotype ...
Gibbons are small arboreal apes that display an accelerated rate of evolutionary chromosomal rearran...
In this study we characterized the extension, reciprocal arrangement, and orientation of syntenic ch...
The homology between hylobatid chromosomes and other primates has long remained elusive. We used chr...