Metabolic burden, a major bottleneck in developing robust microbial cell factories, arises from the rewiring of host metabolism for bioproduction, leading to impaired growth and low yields.
This article addresses the central challenge in synthetic biology: the unpredictable performance of genetic circuits when transplanted between different microbial hosts.
This article provides a comprehensive analysis of contemporary strategies to enhance the robustness of microbial cell factories, a critical determinant for successful industrial-scale bioproduction.
The reconstruction of metabolic pathways in non-model organisms is a cornerstone of modern synthetic biology, enabling the development of novel microbial cell factories for drug discovery and biomanufacturing.
Host-agnostic genetic device engineering represents a paradigm shift in synthetic biology, moving beyond traditional model organisms to create genetic systems that function predictably across diverse microbial and mammalian hosts.
This article provides a comprehensive resource for researchers and drug development professionals on the strategic deletion of native biosynthetic gene clusters (BGCs) to create optimized heterologous production chassis.
This article explores dynamic metabolic control strategies that resolve the fundamental conflict between cell growth and product synthesis in engineered microbial systems.
This article explores the paradigm shift in synthetic biology from a narrow focus on traditional model organisms to a broad-host-range approach that treats the microbial chassis as a central, tunable...
This article provides a comprehensive overview of the application of CRISPR/Cas9 for genome reduction in industrial chassis strains, a key strategy in synthetic biology for enhancing microbial production hosts.
This comprehensive review explores transcription factor (TF) engineering as a powerful strategy to enhance microbial strain tolerance, a critical bottleneck in industrial biotechnology and bioprocessing.