Tew David
Cell & Gene Therapy, Medicines Research Center, GlaxoSmithKline Pharmaceuticals, Stevenage, SG1 2NY, U.K.
Emerg Top Life Sci. 2019 Nov 11;3(5):659-667. doi: 10.1042/ETLS20190086.
Through the application of the engineering paradigm of 'design-build-test-learn' allied to recent advances in DNA sequencing, bioinformatics and, critically, the falling cost of DNA synthesis, Synthetic Biology promises to make existing therapies more accessible and be at the centre of the development of new types of advanced therapies. As existing pharmaceutical companies integrate Synthetic Biology tools into their normal ways of working, existing products are being produced by cheaper and more sustainable methods. Vaccine design and production is becoming driven by the molecular design allied to rapidly scalable production methods to combat the threat of pandemics and the ability of pathogens to escape the immune system by mutation. Advanced therapies, such as chimeric antigen receptor T cell therapy, are able to capitalise on the tools of Synthetic Biology to design new proteins and molecular 'kill switches' as well as design scalable and effective vectors for cellular transduction. This review highlights how Synthetic Biology is having an impact across the various therapeutic modalities from existing products to new therapies.
通过应用“设计-构建-测试-学习”的工程范式,并结合DNA测序、生物信息学的最新进展,以及至关重要的DNA合成成本的下降,合成生物学有望使现有疗法更容易获得,并成为新型先进疗法开发的核心。随着现有制药公司将合成生物学工具融入其常规工作方式,现有产品正通过更廉价、更可持续的方法生产。疫苗设计和生产正受到分子设计的驱动,这些分子设计与快速可扩展的生产方法相结合,以应对大流行的威胁以及病原体通过突变逃避免疫系统的能力。先进疗法,如嵌合抗原受体T细胞疗法,能够利用合成生物学工具设计新的蛋白质和分子“杀伤开关”,以及设计用于细胞转导的可扩展且有效的载体。本综述强调了合成生物学如何在从现有产品到新疗法的各种治疗方式中产生影响。