Deschampsia antarctica is one of the two native vascular plants present in the Antarctic continent. More than half of its genome is composed of repetitive DNA. The present work aims to study the amount, composition and chromosomal localization of the main retroelements in the genome of D. antarctica, via a bioinformatic analysis and cytogenetic approach in two Antarctic localities. The retroelements are the largest fraction of genomic repetitive DNA. Ty3-Gypsy superfamily was more abundant than Ty1-Copia in D. antarctica\u27s genome. However, Ty1-Copia was more diverse. Angela, SIRE, TatV and Tekay families were the most abundant in the studied genome. The hybridization signals showed that the four retrotransposon families have dispersal di...
Diverse families of satellite DNA (satDNA) were detected in heterochromatin regions of Deschampsia. ...
Deschampsia P. Beauv. is a cosmopolitan grass genus, which grows in cold and temperate regions, incl...
Plastid genome analysis of non-model organisms provides valuable information for basic research e.g....
Deschampsia antarctica is one of the two native vascular plants present in the Antarctic continent. ...
Deschampsia antactica E. Desv. is one of the only two native vascular plants of Antarctica, having a...
The genus Deschampsia P. Beauv (Poaceae) involves a group of widespread polymorphic species. Some of...
Unlike the Arctic flora, with many floweringplant species offering opportunities to study evolutiona...
Repetitive DNA is a rapidly evolving component of vascular plant genomes, which can account for geno...
Aim To determine patterns in diversity of a major Antarctic plant species, including relationships o...
Deschampsia antarctica Desv. (Poaceae) (2n = 26) is one of the two vascular plants adapted to the ha...
AbstractOnly two vascular plants, Deschampsia antarctica Desv. (Poaceae) and Colobanthus quitensis K...
Aim To determine patterns in diversity of a major Antarctic plant species, including relationships o...
The aim of this study was to analyze the variation among three polar species Deschampsia antarctica,...
Chloroplast and mitochondrial DNA sequences of Deschampsia antarctica were studied. We had made comp...
Populations of the only two flowering plants native to the Antarctic have recently increased in numb...
Diverse families of satellite DNA (satDNA) were detected in heterochromatin regions of Deschampsia. ...
Deschampsia P. Beauv. is a cosmopolitan grass genus, which grows in cold and temperate regions, incl...
Plastid genome analysis of non-model organisms provides valuable information for basic research e.g....
Deschampsia antarctica is one of the two native vascular plants present in the Antarctic continent. ...
Deschampsia antactica E. Desv. is one of the only two native vascular plants of Antarctica, having a...
The genus Deschampsia P. Beauv (Poaceae) involves a group of widespread polymorphic species. Some of...
Unlike the Arctic flora, with many floweringplant species offering opportunities to study evolutiona...
Repetitive DNA is a rapidly evolving component of vascular plant genomes, which can account for geno...
Aim To determine patterns in diversity of a major Antarctic plant species, including relationships o...
Deschampsia antarctica Desv. (Poaceae) (2n = 26) is one of the two vascular plants adapted to the ha...
AbstractOnly two vascular plants, Deschampsia antarctica Desv. (Poaceae) and Colobanthus quitensis K...
Aim To determine patterns in diversity of a major Antarctic plant species, including relationships o...
The aim of this study was to analyze the variation among three polar species Deschampsia antarctica,...
Chloroplast and mitochondrial DNA sequences of Deschampsia antarctica were studied. We had made comp...
Populations of the only two flowering plants native to the Antarctic have recently increased in numb...
Diverse families of satellite DNA (satDNA) were detected in heterochromatin regions of Deschampsia. ...
Deschampsia P. Beauv. is a cosmopolitan grass genus, which grows in cold and temperate regions, incl...
Plastid genome analysis of non-model organisms provides valuable information for basic research e.g....