Rebecca A. Fuldner
Human Genome Sciences
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Featured researches published by Rebecca A. Fuldner.
Neuroreport | 1995
Jordi Pérez-Tur; Susanne Froelich; Guy Prihar; Richard Crook; Matt Baker; Karen Duff; Michelle Wragg; Frances Busfield; Corinne Lendon; Robert F. Clark; Penelope Roques; Rebecca A. Fuldner; Janet A. Johnston; Richard F. Cowburn; Charlotte Forsell; Karin Axelman; Henry Houlden; Eric Karran; Gareth W. Roberts; Mark D. Adams; John Hardy; Alison Goate; Lars Lannfelt; Mike Hutton
A series of mutations has been reported in the presenilin-1 (PS-1) gene which cause early onset Alzheimers disease (AD). The mutations reported to date have encoded missense mutations which alter residues conserved between PS-1 and the presenilin-2 (PS-2) gene. We have recently determined the intron/exon structure of the PS-1 gene and this information has been used to identify a mutation in the splice acceptor site for exon 9 in a family with early onset AD. Amplification of cDNA from lymphoblasts of affected individuals revealed that the effect of the mutation was to cause splicing out of exon 9, however it does not change the open reading frame of the mRNA. The importance of this observation is discussed.
Neuroreport | 1996
Mike Hutton; Frances Busfield; Michelle Wragg; Richard Crook; Jordi Pérez-Tur; Robert F. Clark; Guy Prihar; Helen M. Phillips; Kristal Wright; Matt Baker; Corinne Lendon; Karen Duff; Alonso Martinez; Henry Houlden; Andy Nichols; Eric Karran; Gareth W. Roberts; Penelope Roques; J. Craig Venter; Mark D. Adams; Robin T. Cline; Cheryl Phillips; Rebecca A. Fuldner; John Hardy; Alison Goate
The presenilin 1 gene has recently been identified as the locus on chromosome 14 which is responsible for a large proportion of early onset, autosomal dominantly inherited Alzheimers disease (AD). We have elucidated the intron/exon structure of the gene and designed intronic primers to enable direct sequencing of the entire coding region (10 exons) of the presenilin gene in a large number of families. This strategy has enabled us to find a further two novel mutations in the gene. We discuss the distribution of mutations and the proportions of autosomal dominant AD with a mean age of onset below 60 years caused by mutations in this gene.
Neuroreport | 1996
Guy Prihar; Rebecca A. Fuldner; Jordi Pérez-Tur; Sarah Lincoln; Karen Duff; Richard Crook; John Hardy; Cheryl A. Philips; Craig Venter; Christopher Talbot; Robert F. Clark; Alison Goate; Jinhe Li; Huntington Potter; Eric Karran; Gareth W. Roberts; Mike Hutton; Mark D. Adams
Missense mutations in the presenilin-1 (PS-1) and presenilin-2 (PS-2) genes have been shown to be causes of autosomal dominant Alzheimers disease (the AD3 and AD4 loci, respectively). Alternative splicing has previously been reported in the PS-1 gene. In this study, elucidation of intron/exon boundary sequences revealed that PS-2 is encoded by 10 coding exons. In addition, PS-2 cDNA cloning and RT-PCR using RNA from a variety of normal tissues revealed the presence of alternatively spliced products. These products included species with in frame omissions of exon 8 and simultaneous omissions of exons 3 and 4.
Cold Spring Harbor Symposia on Quantitative Biology | 1996
Robert F. Clark; Mike Hutton; Christopher Talbot; Michelle Wragg; Corinne Lendon; Fran Busfield; Steve S.W. Han; Jordi Pérez-Tur; Mark D. Adams; Rebecca A. Fuldner; George Roberts; Eric Karran; John Hardy; Alison Goate
Approximately 75% of AD patients have an onset of the disease after the age of 60 years, and 60% of AD patients have no family history of the disease. Some cases of EOAD are clearly inherited in an autosomal-dominant manner. The beta APP gene on chromosome 21, the PS-1 gene on chromosome 14, and the PS-2 gene on chromosome 1 have all been characterized as genes in which mutations lead to familial EOAD. For LOAD, the work on ApoE indicates that the epsilon 4 allele is a risk factor for developing AD. However, 35-50% of all AD patients do not have an epsilon 4 allele. Other loci contributing to LOAD remain to be mapped and characterized. As in other complex disorders, these additional loci may involve genetic interactions with the known AD loci. Identification of all susceptibility loci for AD is a major goal in resolving the pathogenesis of AD.
Archive | 1994
Paul S. Meissner; Rebecca A. Fuldner; Mark D. Adams
Archive | 1995
William A. Haseltine; Steven M. Ruben; Ying-Fei Wei; Mark D. Adams; Robert D. Fleischmann; Claire M. Fraser; Rebecca A. Fuldner; Ewen F. Kirkness; Craig A. Rosen
Nature | 1995
Mark D. Adams; Anthony R. Kerlavage; R. D. Flieschmann; Rebecca A. Fuldner; Norman H. Lee; Ewen F. Kirkness; Keith G. Weinstock; Jeannine D. Gocayne; Owen White; Granger Sutton; Judith A. Blake; Rhonda C. Brandon; M.-S. Chiu; Rebecca A. Clayton; Robin T. Cline; Matthew D. Cotton; Julie Earle-Hughes; Laurence D. Fine; Leah M. Fitzgerald; William W. Fitzhugh; J. L. Fritchman; N. S. M. Geoghagen; Anna Glodek; C. L. Gnehm; C. Venter
Archive | 1994
Paul S. Meissner; Rebecca A. Fuldner; Mark D. Adams
Archive | 1995
Yi Li; Rebecca A. Fuldner
Archive | 1996
Paul S. Meissner; Rebecca A. Fuldner; Ying Fei-Wei; Mark D. Adams