Background. L1s are one of the most successful autonomous mobile elements in primate genomes. These elements comprise as much as 17% of primate genomes with the majority of insertions occurring via target primed reverse transcription (TPRT). Twin priming, a variant of TPRT, can result in unusual DNA sequence architecture. These insertions appear to be inverted, truncated L1s flanked by target site duplications. Results. We report on loci with sequence architecture consistent with variants of the twin priming mechanism and introduce dual priming, a mechanism that could generate similar sequence characteristics. These insertions take the form of truncated L1s with hallmarks of classical TPRT insertions but having a poly(T) simple repeat at th...
LINE-1 elements (L1s) are a family of highly successful retrotransposons comprising ∼ 17% of the hum...
Mobile elements have created structural variation in the human genome through their de novo insertio...
Mobile DNAs have had a central role in shaping our genome. More than half of our DNA is comprised of...
Retrotransposons, a class of mobile elements, generate new copies in host genomes using RNA intermed...
The L1 Ta subfamily of long interspersed elements (LINEs) consists exclusively of human-specific L1 ...
Long INterspersed Elements (LINE-1s or L1s) are abundant non-LTR retrotransposons in mammalian genom...
AbstractRetrotransposons have shaped eukaryotic genomes for millions of years. To analyze the conseq...
Retrotransposons, specifically Alu and L1 elements, have been especially successful in their expansi...
AbstractThe Alu family is a highly successful group of non-LTR retrotransposons ubiquitously found i...
The long interspersed element-1 (LINE-1 or L1) and Alu elements are the most abundant mobile element...
The Alu family is a highly successful group of non-LTR retrotransposons ubiquitously found in primat...
Alu repeats contribute to genomic instability in primates via insertional and recombinational mutage...
AbstractLINE-1 (L1) retrotransposition continues to impact the human genome, yet little is known abo...
Accounting for continual evolution of deleterious L1 retrotransposon families, which can contain hun...
Gene duplication is one of the most important mechanisms for creating new genes and generating genom...
LINE-1 elements (L1s) are a family of highly successful retrotransposons comprising ∼ 17% of the hum...
Mobile elements have created structural variation in the human genome through their de novo insertio...
Mobile DNAs have had a central role in shaping our genome. More than half of our DNA is comprised of...
Retrotransposons, a class of mobile elements, generate new copies in host genomes using RNA intermed...
The L1 Ta subfamily of long interspersed elements (LINEs) consists exclusively of human-specific L1 ...
Long INterspersed Elements (LINE-1s or L1s) are abundant non-LTR retrotransposons in mammalian genom...
AbstractRetrotransposons have shaped eukaryotic genomes for millions of years. To analyze the conseq...
Retrotransposons, specifically Alu and L1 elements, have been especially successful in their expansi...
AbstractThe Alu family is a highly successful group of non-LTR retrotransposons ubiquitously found i...
The long interspersed element-1 (LINE-1 or L1) and Alu elements are the most abundant mobile element...
The Alu family is a highly successful group of non-LTR retrotransposons ubiquitously found in primat...
Alu repeats contribute to genomic instability in primates via insertional and recombinational mutage...
AbstractLINE-1 (L1) retrotransposition continues to impact the human genome, yet little is known abo...
Accounting for continual evolution of deleterious L1 retrotransposon families, which can contain hun...
Gene duplication is one of the most important mechanisms for creating new genes and generating genom...
LINE-1 elements (L1s) are a family of highly successful retrotransposons comprising ∼ 17% of the hum...
Mobile elements have created structural variation in the human genome through their de novo insertio...
Mobile DNAs have had a central role in shaping our genome. More than half of our DNA is comprised of...