Preparing your Path…
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Path Catalog
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7801 Paths · page 314 / 781
This advanced learning path guides senior chemical engineering students through the design of multicomponent distillation, azeotropic distillation, and membrane-based separation systems. It builds from fundamental thermodynamics and transport phenomena to rigorous design and integration, emphasizing the interconnections between these separation technologies.
This learning path equips senior chemical engineering students with the knowledge and skills to model and design complex reactor systems. It covers non-ideal flow, heterogeneous catalysis, and biochemical reactions, building from fundamental reaction kinetics and reactor design principles to advanced modeling techniques.
This advanced learning path equips senior chemical engineering students with the skills to evaluate process economics and perform optimization. It covers cost estimation, profitability analysis, and optimization methods, culminating in a capstone project integrating these concepts for process design.
This learning path equips junior chemical engineering students with practical skills for conducting experiments, from designing procedures and collecting data to analyzing results and writing professional reports. It covers essential safety, measurement, and statistical analysis concepts, culminating in a capstone project that integrates all skills.
This advanced learning path guides chemical engineering students through the unified principles of momentum, heat, and mass transport. It covers the foundational mathematics, the governing equations of change, boundary layer theory, and the analogies that link transport phenomena, culminating in a capstone integration.
A systematic learning path covering dynamic modeling, feedback control, PID controllers, and stability analysis for chemical processes. Designed for junior chemical engineering students with a foundation in material balances and differential equations.
This learning path provides a systematic foundation in chemical reaction engineering, covering reaction kinetics, ideal reactor models, and the design and analysis of batch, CSTR, and PFR systems. It emphasizes material balances and the application of rate laws to solve reaction engineering problems, including an introduction to catalysis.
This learning path guides junior chemical engineering students through the systematic design of separation processes for mixtures, covering distillation, absorption, adsorption, extraction, and membrane separation. It builds a strong foundation in thermodynamics and mass transfer, then applies these principles to design and evaluate separation systems.
This learning path systematically covers mass transfer phenomena essential for understanding separation processes. It starts with fluid mechanics fundamentals, progresses through diffusion and convection, and culminates in interphase mass transfer and analogies, providing a solid foundation for chemical engineering applications.
This learning path guides sophomore chemical engineering students through the fundamental mechanisms of heat transfer—conduction, convection, and radiation—and their applications in heat exchangers and insulation. It builds on thermodynamics and calculus to provide a systematic understanding essential for process design and analysis.