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Path Catalog
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7801 Paths · page 313 / 781
This advanced learning path guides senior and graduate chemical engineering students through the core principles and practices of pharmaceutical manufacturing. It covers drug synthesis, reaction engineering, separation and purification, formulation, packaging, and quality control, emphasizing the integration of these areas in a regulated environment.
This learning path provides an advanced understanding of petroleum refining, covering the fundamental chemistry of crude oil, key separation processes, conversion technologies, and product treatment and blending. Designed for senior chemical engineering students, it integrates principles of separation processes and reaction engineering to explain the operation and design of refinery units.
This learning path equips graduate chemical engineering students with the skills to apply Computational Fluid Dynamics (CFD) to analyze and design chemical process equipment. It covers essential fluid mechanics and computational methods, progressing through geometry preparation, meshing, turbulence modeling, multiphase flow, and validation against experimental data. The path emphasizes practical application and critical evaluation of CFD results.
This learning path equips senior and graduate chemical engineering students with the numerical methods and computational tools needed to solve realistic chemical engineering problems. It covers mathematical foundations, numerical techniques for integration and differential equations, and introduces computational fluid dynamics (CFD) with hands-on MATLAB/Python implementation.
This graduate-level learning path systematically covers the fundamentals of adsorption, catalyst characterization, and heterogeneous catalysis, integrating principles from reaction engineering and surface chemistry. It progresses from foundational concepts to advanced applications, ensuring a coherent understanding of catalytic processes.
A graduate-level learning path for chemical engineers focusing on rigorous mathematical modeling of transport processes. It covers conservation equations, turbulence, and complex fluids, building from foundational mathematics and thermodynamics through advanced modeling techniques.
This graduate-level path develops the theoretical foundations and practical skills needed to model the thermodynamic behavior of chemical systems, including pure fluids and mixtures. It covers classical thermodynamics, equations of state, activity coefficient models, and electrolyte thermodynamics, emphasizing the connections between molecular interactions and macroscopic properties.
This learning path bridges chemical engineering fundamentals with biological process design, covering enzyme kinetics, cell culture, bioreactor design, mass transfer, and bioseparations. It prepares senior students for a career in biochemical engineering by integrating reaction engineering and transport phenomena with biological systems.
This learning path covers the fundamental chemistry and reaction engineering of polymer synthesis, including step-growth and chain-growth mechanisms, kinetics, and reactor design, followed by polymer characterization and processing techniques. It is designed for senior chemical engineering students aiming to build career skills in polymer engineering.
This learning path guides senior chemical engineering students through the fundamentals of process simulation using Aspen Plus, covering property methods, unit operation models, flowsheet construction, and sensitivity analysis for process optimization. It bridges theoretical chemical engineering principles with practical simulation skills.