The distribution in the human genome of the largest family of mobile elements, the Alu sequences, has been investigated for the past 30 years, and the vast majority of Alu sequences were shown to have the highest density in GC-rich isochores. Ten years ago, it was discovered, however, that the small ''youngest'' (most recently transposed) Alu families had a strikingly different distribution compared with the ''old'' families. This raised the question as to how this change took place in evolution. We solved what was considered to be a ''mystery'' by 1) revisiting our previous results on the integration and stability of retroviral sequences, and 2) assessing the densities of acceptor sites TTTT/AA in isochore families. We could conclude 1) th...
The currently-accepted dogma when analysing human Alu transposable elements is that ‘young’ Alu elem...
Identifying features shaping the architecture of sequence variations is important for understanding ...
Alu elements comprise \u3e10% of the human genome. We have used a computational biology approach to ...
Alu elements represent the largest family of human mobile elements in copy number. A controversial i...
Motivation: Transposon-derived Alu repeats are exclusively associated with primate genomes. They hav...
The first draft of the human genome has revealed enormous variability in the global distribution of ...
Alu elements are not distributed homogeneously throughout the human genome: old elements are prefere...
A statistical analysis of a set of genomic human Alu elements is based on a published alignment and ...
Alu elements are the most successful SINEs (Short INterspersed Elements) in primate genomes and have...
The distribution of Alu and L1 retroelements in the human genome changes with their age. Active retr...
The HS subfamily of Alu sequences is comprised of a group of nearly identical members. Individual su...
The primate Alu interspersed repeats can be subdivided into classes on the basis of shared nucleotid...
Remnants of more than 3 million transposable elements, primarily retroelements, comprise nearly half...
© The Author(s) 2015. The goal of the 1000 Genomes Consortium is to characterize human genome struct...
SummaryThe human genome contains approximately one million Alu repetitive elements comprising 10% of...
The currently-accepted dogma when analysing human Alu transposable elements is that ‘young’ Alu elem...
Identifying features shaping the architecture of sequence variations is important for understanding ...
Alu elements comprise \u3e10% of the human genome. We have used a computational biology approach to ...
Alu elements represent the largest family of human mobile elements in copy number. A controversial i...
Motivation: Transposon-derived Alu repeats are exclusively associated with primate genomes. They hav...
The first draft of the human genome has revealed enormous variability in the global distribution of ...
Alu elements are not distributed homogeneously throughout the human genome: old elements are prefere...
A statistical analysis of a set of genomic human Alu elements is based on a published alignment and ...
Alu elements are the most successful SINEs (Short INterspersed Elements) in primate genomes and have...
The distribution of Alu and L1 retroelements in the human genome changes with their age. Active retr...
The HS subfamily of Alu sequences is comprised of a group of nearly identical members. Individual su...
The primate Alu interspersed repeats can be subdivided into classes on the basis of shared nucleotid...
Remnants of more than 3 million transposable elements, primarily retroelements, comprise nearly half...
© The Author(s) 2015. The goal of the 1000 Genomes Consortium is to characterize human genome struct...
SummaryThe human genome contains approximately one million Alu repetitive elements comprising 10% of...
The currently-accepted dogma when analysing human Alu transposable elements is that ‘young’ Alu elem...
Identifying features shaping the architecture of sequence variations is important for understanding ...
Alu elements comprise \u3e10% of the human genome. We have used a computational biology approach to ...