Biocompatibility of materials and its relevance to drug delivery and tissue engineering

T. Chandy
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引用次数: 7

Abstract

Abstract All materials intended for application in humans as biomaterials, medical devices, or prostheses undergo tissue responses when implanted into living tissue. Similarly, when blood contacts a biomaterial surface, a variety of blood components interfere with the surface leading to thrombosis or complement activation. This chapter first describes fundamental aspects of tissue/blood responses to materials, which are commonly described as the tissue/blood response continuum. These actions involve fundamental aspects of tissue responses including injury, inflammatory and wound healing responses, foreign body reactions, and fibrous encapsulation of the biomaterial, medical device, or prosthesis. The second part of this chapter describes the biocompatibility of materials being used in medical device and prostheses to suit their applications. The review includes an emphasis on the biocompatibility of biomaterials being used in drug delivery and micro- and nanospheres for cancer drug delivery and tissue engineering applications. This also summarizes the use of scaffolds in the dual role of structural support for cell growth and vehicle for controlled release of tissue inductive factors or DNA encoding for these factors. The confluence of molecular and cell biology, materials science, and engineering provides the tools to create controllable microenvironments that mimic natural developmental processes and direct tissue formation for experimental and therapeutic applications and for improving the biointegration of implants. This ends with the recent approaches toward combination therapy devices such as stent modifications with surface engineering and site-specific drug delivery.
材料的生物相容性及其与药物传递和组织工程的相关性
所有用于人体的材料,如生物材料、医疗器械或假体,在植入活体组织时都会发生组织反应。同样,当血液接触生物材料表面时,各种血液成分会干扰表面,导致血栓形成或补体激活。本章首先描述组织/血液对物质反应的基本方面,这些反应通常被描述为组织/血液反应连续体。这些作用涉及组织反应的基本方面,包括损伤、炎症和伤口愈合反应、异物反应和生物材料、医疗器械或假体的纤维包封。本章的第二部分描述了用于医疗器械和假体的材料的生物相容性,以适应其应用。本文综述了生物材料的生物相容性,以及用于癌症药物传递和组织工程的微纳米球。这也总结了支架在细胞生长的结构支持和控制释放组织诱导因子或编码这些因子的DNA的载体中的双重作用。分子和细胞生物学、材料科学和工程学的融合为创造可控的微环境提供了工具,这些微环境可以模拟自然发育过程,指导组织形成,用于实验和治疗应用,并改善植入物的生物整合。这结束于最近的联合治疗设备的方法,如支架修改与表面工程和特定部位的药物输送。
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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