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Towards Precision Engineering of Canonical Polyketide Synthase Domains: Recent Advances and Future Prospects

机译:典范聚酮合酶域的精密工程:最新进展和未来展望。

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摘要

Modular polyketide synthases (mPKSs) build functionalized polymeric chains, some of which have become blockbuster therapeutics. Organized into repeating clusters (modules) of independently-folding domains, these assembly-line-like megasynthases can be engineered by introducing non-native components. However, poor introduction points and incompatible domain combinations can cause both unintended products and dramatically reduced activity. This limits the engineering and combinatorial potential of mPKSs, precluding access to further potential therapeutics. Different regions on a given mPKS domain determine how it interacts both with its substrate and with other domains. Within the assembly line, these interactions are crucial to the proper ordering of reactions and efficient polyketide construction. Achieving control over these domain functions, through precision engineering at key regions, would greatly expand our catalogue of accessible polyketide products. Canonical mPKS domains, given that they are among the most well-characterized, are excellent candidates for such fine-tuning. The current minireview summarizes recent advances in the mechanistic understanding and subsequent precision engineering of canonical mPKS domains, focusing largely on developments in the past year.
机译:模块化聚酮化合物合酶(mPKSs)建立功能化的聚合物链,其中一些已成为重磅炸弹疗法。这些组装线状的大合酶被组织成独立折叠域的重复簇(模块),可以通过引入非天然成分进行工程改造。但是,较差的引入点和不兼容的域组合会导致意外的产品和大大降低的活动。这限制了mPKS的工程和组合潜力,无法获得更多潜在的治疗方法。给定mPKS结构域上的不同区域决定了它与底物和其他结构域如何相互作用。在装配线中,这些相互作用对于正确安排反应顺序和有效的聚酮化合物构建至关重要。通过在关键区域进行精密工程来实现对这些域功能的控制,将大大扩展我们可及的聚酮化合物产品的目录。规范的mPKS域,因为它们是最典型的域,因此是进行此类微调的极佳候选者。当前的小型审查总结了规范mPKS域的机理理解和后续精确工程方面的最新进展,主要集中在过去一年的发展。

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