Several human neurodegenerative diseases result from expansion of CTG/CAG or CGG/CCG triplet repeats. The finding that single-stranded CNG repeats form hairpin-like structures in vitro has led to the hypothesis that DNA secondary structure formation is an important component of the expansion mechanism. We show that single-stranded DNA loops containing 10 CTG/CAG or CGG/CCG repeats are inefficiently repaired during meiotic recombination in Saccharomyces cerevisiae. Comparisons of the repair of DNA loops with palindromic and nonpalindromic sequences suggest that this inefficient repair reflects the ability of these sequences to form hairpin structures in vivo
AbstractSeveral human hereditary neuromuscular and neurodegenerative diseases are caused by abnormal...
CAG/CTG repeat instability is associated with at least 14 neurological disorders, including Huntingt...
SummaryExpansions of simple DNA repeats cause numerous hereditary diseases in humans. We analyzed th...
Triplet repeat tracts occur throughout the human genome. Expansions of a (GAA)(n)/(TTC)(n) repeat tr...
AbstractSimple repetitive tracts of DNA are unstable in all organisms thus far examined. In the yeas...
The mechanisms of trinucleotide repeat expansions, underlying more than a dozen hereditary neurologi...
DNA repetitive sequences capable of adopting non-B DNA structures are a potent source of instability...
AbstractSimple repetitive tracts of DNA are unstable in all organisms thus far examined. In the yeas...
poster abstractSeveral human neurodegenerative disorders are caused by the expansion of trinucleotid...
A quantitative genetic assay was developed to monitor alterations in tract lengths of trinucleotide ...
International audienceTrinucleotide repeat expansions involving CTG/CAG triplets are responsible for...
Trinucleotide repeat expansions are responsible for more than two dozens severe neurological disorde...
DNA sequences capable of adopting non-canonical secondary structures have been associated with gross...
Trinucleotide repeat expansions are responsible for more than two dozens severe neurological disorde...
International audienceTrinucleotide repeat expansions are responsible for at least two dozen neurolo...
AbstractSeveral human hereditary neuromuscular and neurodegenerative diseases are caused by abnormal...
CAG/CTG repeat instability is associated with at least 14 neurological disorders, including Huntingt...
SummaryExpansions of simple DNA repeats cause numerous hereditary diseases in humans. We analyzed th...
Triplet repeat tracts occur throughout the human genome. Expansions of a (GAA)(n)/(TTC)(n) repeat tr...
AbstractSimple repetitive tracts of DNA are unstable in all organisms thus far examined. In the yeas...
The mechanisms of trinucleotide repeat expansions, underlying more than a dozen hereditary neurologi...
DNA repetitive sequences capable of adopting non-B DNA structures are a potent source of instability...
AbstractSimple repetitive tracts of DNA are unstable in all organisms thus far examined. In the yeas...
poster abstractSeveral human neurodegenerative disorders are caused by the expansion of trinucleotid...
A quantitative genetic assay was developed to monitor alterations in tract lengths of trinucleotide ...
International audienceTrinucleotide repeat expansions involving CTG/CAG triplets are responsible for...
Trinucleotide repeat expansions are responsible for more than two dozens severe neurological disorde...
DNA sequences capable of adopting non-canonical secondary structures have been associated with gross...
Trinucleotide repeat expansions are responsible for more than two dozens severe neurological disorde...
International audienceTrinucleotide repeat expansions are responsible for at least two dozen neurolo...
AbstractSeveral human hereditary neuromuscular and neurodegenerative diseases are caused by abnormal...
CAG/CTG repeat instability is associated with at least 14 neurological disorders, including Huntingt...
SummaryExpansions of simple DNA repeats cause numerous hereditary diseases in humans. We analyzed th...