Chemical and Biological Reaction Engineering Fundamentals

Chemical and biological reaction engineering forms the backbone of modern industrial processes, from pharmaceutical synthesis to sustainable biofuel production. Understanding how reactions behave and how to design the vessels that contain them is essential for any aspiring engineer. This written course breaks down complex kinetic equations and reactor models into clear, manageable concepts that you can confidently apply to real-world scenarios. You will transition from grasping basic molecular collisions to designing efficient chemical and biological reactors. By studying structured examples and working through practical scenarios, you will develop the analytical skills required to predict reaction outcomes, optimize yields, and troubleshoot reactor performance. What you'll learn: - Understand fundamental chemical kinetics, rate laws, and reaction mechanisms - Design and analyze ideal reactors including batch, plug flow, and continuous stirred-tank systems - Apply mass and energy balances to non-isothermal reactor operations - Model biological reaction kinetics, enzyme pathways, and bioreactor systems - Evaluate modern reactor safety, green engineering principles, and basic transport limitations This course begins with foundational definitions, chemical thermodynamics, and kinetic theory before moving systematically into reactor design equations and biological system modeling. You will progress from basic single-reaction systems to complex multiple-reaction networks. This course is designed for beginners in chemical engineering, bioengineering, or applied chemistry who want a solid, structured introduction to reaction kinetics and reactor design. No advanced engineering background is required, though basic calculus and general chemistry are helpful. Start reading today to build a strong foundation in reaction engineering and master the math behind chemical and biological processes.