Delivery systems for bone morphogenetic proteins. A summary of experimental studies in primate models.

U Ripamonti
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Abstract

The characterization and molecular cloning of the family of the bone morphogenetic proteins (BMPs) have laid the foundation for the cellular and molecular analysis of bone development and regeneration. A carrier substratum is required, however, to optimize osteogenic activity initiated by BMPs bound to the surface of the carrier. Native and recombinant human (rh) BMPs induce local endochondral bone formation in conjunction with the insoluble collagenous bone matrix, the inactive residue obtained after dissociative extraction of the matrix with chaotropic agents. While the cellular and molecular biology of BMPs and related members is advancing at a furious pace, progress in the formulation and implementation of novel delivery systems has been slow. The creation of inorganic nonimmunogenic carriers with defined geometries capable of delivering BMPs in the absence of the collagenous matrix is a crucial goal for skeletal reconstructionists and molecular biologists alike. Significant advances in skeletal reconstruction may be expected when novel carrier substrata are implemented for delivery of optimal doses of now available recombinant human BMPs.

骨形态发生蛋白的输送系统。灵长类动物模型实验研究综述。
骨形态发生蛋白(BMPs)家族的表征和分子克隆为骨发育和再生的细胞和分子分析奠定了基础。然而,为了优化由与载体表面结合的bmp启动的成骨活性,需要载体基质。天然和重组人(rh) bmp与不溶性胶原骨基质结合诱导局部软骨内骨形成,不溶性胶原骨基质是用朝变性剂解离提取基质后获得的无活性残留物。虽然bmp及其相关成员的细胞和分子生物学正在飞速发展,但在新型给药系统的制定和实施方面进展缓慢。对于骨骼重建学家和分子生物学家来说,创造具有明确几何形状的无机非免疫原性载体,能够在缺乏胶原基质的情况下传递bmp,是一个至关重要的目标。当新的载体基质被用于递送最佳剂量的重组人bmp时,骨骼重建有望取得重大进展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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