MITx: Principles of Synthetic Biology course Syllabus
Full curriculum breakdown — modules, lessons, estimated time, and outcomes.
Overview: This course provides a comprehensive introduction to synthetic biology, blending biology, engineering, and computational modeling. Over approximately 16 weeks, learners will progress through foundational concepts, genetic circuit design, modeling techniques, and experimental methods, culminating in a final synthetic biology project. The course requires 6–8 hours per week and is ideal for those seeking a systematic understanding of engineered biological systems.
Module 1: Introduction to Synthetic Biology
Estimated time: 10 hours
- Core concepts of synthetic biology and genetic engineering
- History and evolution of the field
- Key components of genetic circuits
- Real-world applications in biotechnology and medicine
Module 2: Genetic Circuits & Biological Design
Estimated time: 12 hours
- Gene regulation and protein interactions
- DNA components as circuit elements
- Design of synthetic gene networks
- Control of cellular behavior using genetic circuits
Module 3: Modeling & Simulation of Biological Systems
Estimated time: 12 hours
- Mathematical modeling of biological circuits
- Simulation of gene expression and cellular dynamics
- Analysis of system stability and performance
- Using computational tools to predict experimental outcomes
Module 4: Experimental Techniques in Synthetic Biology
Estimated time: 10 hours
- DNA assembly and cloning methods
- CRISPR and gene-editing technologies
- Testing engineered circuits in lab settings
- Interpreting experimental results and iterative design refinement
Module 5: Final Synthetic Biology Project
Estimated time: 14 hours
- Design a conceptual genetic circuit
- Model and simulate system behavior
- Evaluate real-world applications and ethical considerations
Prerequisites
- Basic understanding of molecular biology
- Familiarity with high school-level mathematics
- Some exposure to genetics or biochemistry recommended
What You'll Be Able to Do After
- Explain core principles of synthetic biology
- Design simple genetic circuits
- Use computational models to simulate biological systems
- Apply experimental techniques in synthetic biology
- Develop a complete synthetic biology project proposal