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人工无机生物杂交体:微生物和细胞与无机材料的功能组合。

Artificial inorganic biohybrids: The functional combination of microorganisms and cells with inorganic materials.

机构信息

Department for Functional Materials in Medicine and Dentistry, University of Würzburg, Germany.

Department for Functional Materials in Medicine and Dentistry, University of Würzburg, Germany.

出版信息

Acta Biomater. 2018 Jul 1;74:17-35. doi: 10.1016/j.actbio.2018.04.042. Epub 2018 Apr 24.

Abstract

UNLABELLED

Biohybrids can be defined as the functional combination of proteins, viable cells or microorganisms with non-biological materials. This article reviews recent findings on the encapsulation of microorganisms and eukaryotic cells in inorganic matrices such as silica gels or cements. The entrapment of biological entities into a support material is of great benefit for processing since the encapsulation matrix protects sensitive cells from shear forces, unfavourable pH changes, or cytotoxic solvents, avoids culture-washout, and simplifies the separation of formed products. After reflecting general aspects of such an immobilization as well as the chemistry of the inorganic matrices, we focused on manufacturing aspects and the application of such biohybrids in biotechnology, medicine as well as in environmental science and for civil engineering purpose.

STATEMENT OF SIGNIFICANCE

The encapsulation of living cells and microorganisms became an intensively studied and rapidly expanding research field with manifold applications in medicine, bio- and environmental technology, or civil engineering. Here, the use of silica or cements as encapsulation matrices have the advantage of a higher chemical and mechanical resistance towards harsh environmental conditions during processing compared to their polymeric counterparts. In this perspective, the article gives an overview about the inorganic material systems used for cell encapsulation, followed by reviewing the most important applications. The future may lay in a combination of the currently achieved biohybrid systems with additive manufacturing techniques. In a longer perspective, this would enable the direct printing of cell loaded bioreactor components.

摘要

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生物杂种可以被定义为蛋白质、活细胞或微生物与非生物材料的功能组合。本文综述了最近在将微生物和真核细胞包封在无机基质如硅胶或水泥中的发现。将生物实体包封在支撑材料中对于加工非常有益,因为包封基质保护敏感细胞免受剪切力、不利的 pH 值变化或细胞毒性溶剂的影响,避免了培养物冲洗,并简化了形成产物的分离。在反映了这种固定化的一般方面以及无机基质的化学之后,我们专注于制造方面以及这种生物杂种在生物技术、医学以及环境科学和土木工程中的应用。

意义的陈述

活细胞和微生物的包封已成为一个受到广泛研究且迅速发展的研究领域,在医学、生物和环境技术或土木工程中有多种应用。在这里,与聚合物相比,硅胶或水泥作为包封基质具有在加工过程中对恶劣环境条件具有更高的化学和机械抗性的优势。从这个角度来看,本文概述了用于细胞包封的无机材料系统,然后回顾了最重要的应用。未来可能在于将当前实现的生物杂种系统与增材制造技术相结合。从长远来看,这将能够直接打印细胞负载的生物反应器组件。

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