Fringe boundaries coincide with Notch-dependent patterning centres in mammals and alter Notch-dependent development in Drosophila

被引:0
|
作者
Brenda Cohen
Arash Bashirullah
Lina Dagnino
Christine Campbell
William W. Fisher
Ching Ching Leow
Elisabeth Whiting
David Ryan
Dawn Zinyk
Gabrielle Boulianne
Chi-chung Hui
Brenda Gallic
Robert A. Phillips
Howard D. Lipshitz
Sean E. Egan
机构
[1] The Hospital for Sick Children,Division of Immunology and Cancer Research
[2] The Hospital for Sick Children,Division of Endocrinology
[3] California Institute of Technology,Division of Biology
[4] University of Toronto,Department of Molecular and Medical Genetics
[5] The Hospital for Sick Children,Program in Developmental Biology
[6] The Hospital for Sick Children,Division of Neurology
[7] The University of Toronto,Department of Physiology
[8] The Hospital for Sick Children,Division of Immunology and Cancer Research
来源
Nature Genetics | 1997年 / 16卷
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摘要
In both vertebrate and invertebrate development, cells are often programmed to adopt fates distinct from their neighbors. Genetic analyses in Drosophila melanogaster have highlighted the importance of cell surface and secreted proteins in these cell fate decisions. Homologues of these proteins have been identified and shown to play similar roles in vertebrate development1–5. Fringe, a novel signalling protein, has been shown to induce wing margin formation in Drosophila6. Fringe shares significant sequence homology and predicted secondary structure similarity with bacterial glycosyltransferases7. Thus, fringe may control wing development by altering glycosylation of cell surface and/or secreted molecules. Recently, two fringe genes were isolated from Xenopus laevis8. We report here the cloning and characterization of three murine fringe genes (lunatic fringe, manic fringe and radical fringe). We find in several tissues that fringe expression boundaries coincide with Notch-dependent patterning centres and with Notch-ligand expression boundaries. Ectopic expression of murine manic fringe or radical fringe in Drosophila results in phenotypes that resemble those seen in Notch mutants.
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页码:283 / 288
页数:5
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