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.
This article provides a comprehensive analysis of advanced strategies for engineering microbial robustness to enhance the efficiency and scalability of industrial fermentation, with a specific focus on pharmaceutical applications.
This article provides a comprehensive guide to Global Transcription Machinery Engineering (gTME), a powerful directed evolution technique for reprogramming cellular physiology and improving industrial microbial strains.
The rediscovery of natural products as a critical source of new therapeutics has been greatly advanced by the development of engineered Streptomyces hosts for heterologous expression.
This article explores the paradigm shift in metabolic engineering toward host-aware computational models.
This article explores the engineering of microbial chassis as sustainable platforms for chemical production, targeting researchers and scientists in drug development and biotechnology.
This article provides a systematic framework for selecting optimal microbial hosts in systems metabolic engineering, addressing critical needs for researchers and drug development professionals.
Genome-scale metabolic models (GEMs) provide a powerful computational framework for predicting host-microbe metabolic interactions, offering transformative potential for therapeutic development.
This article explores the paradigm shift from traditional model microbial cell factories to non-model organisms, which offer a treasure trove of unique metabolic capabilities for sustainable biomanufacturing.
This article provides a systematic framework for researchers and drug development professionals to select optimal host organisms for the heterologous expression of natural products.