Malcı Koray, Li Ivy S, Kisseroudis Natasha, Ellis Tom
Department of Bioengineering, Imperial College London, London SW7 2AZ, U.K.
Imperial College Centre for Synthetic Biology, Imperial College London, London SW7 2AZ, U.K.
ACS Synth Biol. 2024 Dec 20;13(12):3857-3875. doi: 10.1021/acssynbio.4c00615. Epub 2024 Nov 7.
The fusion of synthetic biology and materials science offers exciting opportunities to produce sustainable materials that can perform programmed biological functions such as sensing and responding or enhance material properties through biological means. Bacterial cellulose (BC) is a unique material for this challenge due to its high-performance material properties and ease of production from culturable microbes. Research in the past decade has focused on expanding the benefits and applications of BC through many approaches. Here, we explore how the current landscape of BC-based biomaterials is being shaped by progress in synthetic biology. As well as discussing how it can aid production of more BC and BC with tailored material properties, we place special emphasis on the potential of using BC for engineered living materials (ELMs); materials of a biological nature designed to carry out specific tasks. We also explore the role of 3D bioprinting being used for BC-based ELMs and highlight specific opportunities that this can bring. As synthetic biology continues to advance, it will drive further innovation in BC-based materials and ELMs, enabling many new applications that can help address problems in the modern world, in both biomedicine and many other application fields.
合成生物学与材料科学的融合为生产可持续材料提供了令人兴奋的机遇,这些材料能够执行诸如传感和响应等程序化生物功能,或者通过生物学手段增强材料性能。细菌纤维素(BC)因其高性能的材料特性以及易于从可培养微生物中生产出来,成为应对这一挑战的独特材料。过去十年的研究致力于通过多种方法拓展BC的优势和应用。在此,我们探讨合成生物学的进展如何塑造当前基于BC的生物材料格局。除了讨论其如何有助于生产更多BC以及具有定制材料特性的BC外,我们特别强调将BC用于工程化活材料(ELM)的潜力;ELM是具有生物学性质、旨在执行特定任务的材料。我们还探讨了3D生物打印在基于BC的ELM中的作用,并突出其带来的特定机遇。随着合成生物学不断发展,它将推动基于BC的材料和ELM的进一步创新,催生许多新应用,有助于解决现代世界在生物医学和许多其他应用领域的问题。