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牛和人内皮细胞在胶原微球上的生长及其被反刍动物立克次氏体(Cowdria ruminantium)感染:细胞和疫苗生产的前景

Bovine and human endothelial cell growth on collagen microspheres and their infection with the rickettsia Cowdria ruminantium: prospects for cells and vaccine production.

作者信息

Totté P, Blankaert D, Marique T, Kirkpatrick C, Van Vooren J P, Wérenne J

机构信息

Animal Cell Biotechnology, Faculty of Sciences, Université Libre de Bruxelles, Belgique.

出版信息

Rev Elev Med Vet Pays Trop. 1993;46(1-2):153-6.

PMID:8134625
Abstract

We successfully cultivated the rickettsia Cowdria ruminantium, in bovine endothelial cell lines (Bovine Umbilical Endothelial Cells/BUEC and Bovine microvasculature Cells/BMC) and also in primary endothelial cells of bovine origin (Bovine Aorta Endothelial cells/BAEC) and more surprisingly in cells of human origin--Human Umbilical Vein Endothelial Cells/HUVEC--and Human Endothelial Cells from the Microvasculature/HEMEC. This first evidence of the pathogenicity of this bovine rickettsia in the human cell system gene-rates new interest as regards its possible relevance for human health. It provides also further possibilities for the attenuation of Cowdria ruminantium isolates, and therefore brings new prospects for vaccine preparation. In vaccine production, mass cell culture is essential. Our results indicate that endothelial cells attach efficiently on collagen microspheres. As BAEC cells grow well on them in a batch mode, and if the process could be optimized for the different cell types (using appropriate adhesion and growth factors) our observations offer interesting prospects for the future development of a Cowdria ruminantium vaccine production in the fluidized-bed reactor VERAX System one, which provides easy control of growth conditions.

摘要

我们成功地在牛内皮细胞系(牛脐静脉内皮细胞/BUEC和牛微血管细胞/BMC)、原代牛源内皮细胞(牛主动脉内皮细胞/BAEC)中培养了反刍兽考德里氏体,更令人惊讶的是,还在人源细胞——人脐静脉内皮细胞/HUVEC以及人微血管内皮细胞/HEMEC中培养成功。这种牛立克次氏体在人类细胞系统中的致病性的首个证据引发了对其与人类健康可能相关性的新关注。这也为反刍兽考德里氏体分离株的减毒提供了更多可能性,从而为疫苗制备带来了新前景。在疫苗生产中,大规模细胞培养至关重要。我们的结果表明,内皮细胞能有效地附着在胶原微球上。由于BAEC细胞能在其上以分批模式良好生长,并且如果该过程能针对不同细胞类型进行优化(使用适当的黏附因子和生长因子),我们的观察结果为在流化床反应器VERAX系统中生产反刍兽考德里氏体疫苗的未来发展提供了有趣的前景,该系统能轻松控制生长条件。

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