Engineering the next-generation synthetic cell factory driven by protein engineering

Area of Science:

• Synthetic biology
• Biotechnology
• Protein engineering

Background:

• Synthetic cell factories offer economic advantages for producing biofuels, chemicals, and pharmaceuticals.
• High-performance synthetic cell factories require precise regulation of cellular material and energy flux.
• Protein components like enzymes, biosensors, and transporters are crucial for synthetic cell factories.

Purpose of the Study:

• To review advancements in protein engineering for optimizing synthetic cell factories.
• To highlight protein engineering's role in enhancing enzyme activity, selectivity, and promiscuity.
• To discuss the application of protein engineering in improving transporters and biosensors for metabolic pathway regulation.

Main Methods:

• Review of recent literature on protein engineering applications in synthetic biology.
• Analysis of strategies for modifying protein sequences to achieve desired functions.
• Examination of case studies demonstrating protein engineering's impact on synthetic cell factory performance.

Main Results:

• Protein engineering can enhance enzyme activity, eliminate production bottlenecks, and steer metabolic pathways.
• Modifying enzyme selectivity and promiscuity opens new routes for product synthesis.
• Improved transporter efficiency and engineered biosensors accelerate evolutionary processes and optimize metabolic regulation.

Conclusions:

• Protein engineering is a powerful tool for advancing synthetic cell factory technology.
• Further research in protein engineering holds significant potential for future innovations in biotechnology.
• Addressing remaining challenges will unlock new opportunities for synthetic cell factories.