Abstract:To address the fragmented knowledge, lagging case updates, and disconnect between theory and practice in the Metabolic Engineering course for undergraduates, we established a teaching reform model centered on research-integrated pedagogy. By translating the latest research outputs into instructional resources, the model constructs a progressive sequence from phenotype perception to mechanism elucidation and regulatory optimization. Instruction is organized around key themes such as pathway reconstruction and dynamic regulation, and is extended beyond the classroom through laboratory practices, participation in innovation projects, and academic competitions. In parallel, a multidimensional assessment framework combining formative and summative components is designed, quantifying knowledge mastery, data interpretation, design capability, and practical operation. Through coordinated endeavor in content updating, localization of case studies, and engineering-oriented training, the model alleviates textbook latency and the theory-practice divide and strengthens students’ systems analysis and engineering design abilities, providing a replicable implementation pathway for the continuous optimization and dissemination of biotechnology courses.