Numerical Modeling of 1D Tubular Reactors for Chemical Engineers

Designing chemical reactors requires moving beyond simple analytical equations to handle real-world complexities. Simulating temperature and concentration profiles in a 1D tubular reactor is a fundamental skill for modern process engineering. This course guides you through the step-by-step process of formulating and solving the governing differential equations for steady-state reactors. You will gain the confidence to translate chemical kinetics and transport phenomena into robust numerical models. What you'll learn: - Understand the foundational mass and energy balances that govern 1D tubular reactors. - Formulate mathematical models for arbitrary, multi-reaction networks. - Apply numerical discretization and boundary value problem solvers to compute steady-state profiles. - Analyze how temperature and concentration profiles interact under non-isothermal conditions. - Implement clean, structured code using modern scientific computing principles to solve reactor equations. We start with the core chemical engineering principles and governing equations before diving into numerical discretization techniques. You will then progress to structuring and solving complex reaction networks through clear, step-by-step written explanations and practical code snippets. This course is designed for undergraduate chemical engineering students, junior process engineers, and researchers looking for a practical, text-based introduction to numerical reactor modeling. No advanced programming background is required. Start mastering the numerical tools essential for modern chemical reactor design today.