D. W. Cooper
Macquarie University
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Featured researches published by D. W. Cooper.
The Lancet | 2001
James M. Roberts; D. W. Cooper
After more than a century of intensive research, pre-eclampsia and eclampsia remain an enigmatic set of conditions. Aberration of the interaction between placental and maternal tissue is probably the primary cause, but the exact nature of the differences from normal pregnancy remain elusive. In this review attempts to understand the sequence of physiological changes have concentrated on vascular endothelium and oxidative stress issues. There are genetic components to susceptibility, but the relative contributions of maternal and fetal genotypes are still unclear. Whole-genome mapping could ultimately define the causative genes.
British Journal of Obstetrics and Gynaecology | 1995
K. E. Humphrey; Harrison Ga; D. W. Cooper; Alan N. Wilton; Shaun P. Brennecke; Brian J. Trudinger
Objective To investigate a HLA‐G deletion polymorphism in pre‐eclamptic pedigrees and the general population.
The Lancet | 1990
A.N. Wilton; D. W. Cooper; P. Marshall; Shaun P. Brennecke; Sm Bishop
To test the possibility that maternally expressed susceptibility genes for pre-eclampsia/eclampsia are closely linked to the HLA region on chromosome 6 of the human genome, members of ten pedigrees with multiple cases of these disorders were typed for HLA DR beta restriction fragment length polymorphisms by means of TaqI digests. The data were analysed by the LIPED program to calculate lod scores, by several programs to detect potential heterogeneity of recombination fraction between pedigrees, and by the affected-sibling and the affected-pedigree-member methods. The results exclude close linkage. If the putative susceptibility genes lie on chromosome 6 they must lie at least 5 centiMorgans, and probably more, from the HLA DR beta loci. No indication of linkage at higher recombination fractions was found. The main maternally expressed genes affecting susceptibility to pre-eclampsia are not in the HLA region.
Human Biology | 2004
E. Fitzpatrick; Harald H H Göring; H Liu; Anthony J. Borg; S. Forrest; D. W. Cooper; Shaun P. Brennecke; Eric K. Moses
Genome scans in Icelandic, Australian and New Zealand, and Finnish families have localized putative susceptibility loci for preeclampsia/eclampsia to chromosome 2. The locus mapped in the Australian and New Zealand study (designated PREG1) was thought to be the same locus as that identified in the Icelandic study. In both these studies, two distinct quantitative trait locus (QTL) regions were evident on chromosome 2. Here, we describe our fine mapping of the PREG1 locus and a genetic analysis of two positional candidate genes. Twenty-five additional microsatellite markers were genotyped within the 74-cM linkage region defined by the combined Icelandic and Australian and New Zealand genome scans. The overall position and shape of the localization evidence obtained using nonparametric multipoint analysis did not change from that seen previously in our 10-cM resolution genome scan; two peaks were displayed, one on chromosome 2p at marker D2S388 (107.46 cM) and the other on chromosome 2q at 151.5 cM at marker D2S2313. Using the robust two-point linkage analysis implemented in the Analyze program, all 25 markers gave positive LOD scores with significant evidence of linkage being seen at marker D2S2313 (151.5 cM), achieving a LOD score of 3.37 under a strict diagnostic model. Suggestive evidence of linkage was seen at marker D2S388 (107.46 cM) with a LOD score of 2.22 under the general diagnostic model. Two candidate genes beneath the peak on chromosome 2p were selected for further analysis using public single nucleotide polymorphisms (SNPs) within these genes. Maximum LOD scores were obtained for an SNP in TACR1 (LOD = 3.5) and for an SNP in TCF7L1 (LOD = 3.33), both achieving genome-wide significance. However, no evidence of association was seen with any of the markers tested. These data strongly support the presence of a susceptibility gene on chromosome 2p11–12 and substantiate the possibility of a second locus on chromosome 2q23.
British Journal of Obstetrics and Gynaecology | 1981
A. Sutherland; D. W. Cooper; P. W. Howie; W. A. Liston; Ian MacGillivray
American Journal of Human Genetics | 1997
Harrison Ga; K. E. Humphrey; Jones N; Badenhop R; Guanglan Guo; Elakis G; Kaye Ja; Turner Rj; Madonna Grehan; Alan N. Wilton; Shaun P. Brennecke; D. W. Cooper
Tissue Antigens | 1992
J. A. Donald; K. Rudman; D. W. Cooper; K. W. Baumgart; R. J. Garsla; P. A. Gatenby; K. A. Rickard
Tissue Antigens | 1991
A.N. Wilton; W. Barendse; J. A. Donald; P. Marshall; B. Trudinger; Eileen D. M. Gallery; Shaun P. Brennecke; D. W. Cooper
The Lancet | 1994
Reynir Arngrimsson; JamesMichael Connor; ReynirT Geirsson; Shaun P. Brennecke; D. W. Cooper
The Lancet | 1990
AlanN. Wilton; D. W. Cooper; Charles Hoff