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Human Molecular Genetics Advance Access published online on February 5, 2004

Human Molecular Genetics, doi:10.1093/hmg/ddh073
© 2004 by Oxford University Press
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©2004 Oxford University Press

Article

Implications of human genome architecture for rearrangement based disorders: the genomic basis of disease

Christine J. Shaw 1 and James R. Lupski 2*

1 Department of Molecular and Human Genetics, One Baylor Plaza, Room 604B, Houston, Texas, 77030
2 Department of Molecular and Human Genetics, One Baylor Plaza, Room 604B, Houston, Texas, 77030; Department of Pediatrics, Baylor College of Medicine, One Baylor Plaza, Room 604B, Houston, Texas, 77030; Texas Children's Hospital, One Baylor Plaza, Room 604B, Houston, Texas, 77030

* To whom correspondence should be addressed. E-mail: jlupski{at}bcm.tmc.edu.


   Abstract

The term "genomic disorder" refers to a disease that is caused by an alteration of the genome that results in complete loss, gain, or disruption of the structural integrity of a dosage sensitive gene(s). In most of the common chromosome deletion/duplication syndromes, the rearranged genomic segments are flanked by large (usually>10kb), highly homologous low copy repeat (LCR) structures that can act as recombination substrates. Recombination between non-allelic LCR copies, also known as non-allelic homologous recombination (NAHR), can result in deletion or duplication of the intervening segment. Recent findings suggest that other chromosomal rearrangements, including reciprocal, Robertsonian, and jumping translocations, inversions, isochromosomes and small marker chromosomes, may also involve susceptibility to rearrangement related to genome structure or architecture. In several cases, LCRs, AT-rich palindromes and pericentromeric repeats are located at such rearrangement breakpoints. Analysis of the products of recombination at the junctions of the rearrangements reveals both homologous recombination and non-homologous end joining (NHEJ) as causative mechanisms. Thus, a more global concept of genomic disorders emerges in which susceptibility to rearrangements occurs due to underlying complex genomic architecture. Interestingly, this architecture plays a role not only in disease etiology, but also in primate genome evolution. In this review, we discuss recent advances regarding general mechanisms for the various rearrangements of our genome, and potential models for rearrangements with non-homologous breakpoint regions.


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