Biochemical Engineering Fundamentals: Michaelis-Menten Kinetics

Biochemical engineering bridges the gap between biology and process engineering, yet mastering the mathematical models of biological reactions can feel daunting. This text-based course breaks down complex enzymatic reactions into clear, manageable principles, giving you the tools to analyze and solve kinetic problems with confidence. You will start with core biological concepts before moving into rigorous mathematical formulations. By working through structured explanations and guided problem sets, you will gain a practical understanding of how enzymes behave under varying conditions and how to model their behavior. What you will learn: Understand foundational biochemical concepts and enzyme-substrate interaction mechanics. Derive and apply the Michaelis-Menten rate equation from first principles. Analyze reaction velocity, maximum velocity, and the Michaelis constant. Determine kinetic parameters using modern linear and non-linear estimation methods. Evaluate enzyme inhibition types and their mathematical representations. Apply kinetic models to practical bioreactor design and process scale-up scenarios. This course begins with essential definitions of enzymes and catalysts, progresses through the derivation of rate expressions, and concludes with practical analytical problems. It is designed for undergraduate students, chemical engineers transitioning to biotechnology, and self-directed learners with a basic background in general chemistry. Step into the world of bioprocess modeling and start solving kinetic equations today.