Lecture

Introduction to Chemical Engineering IX

Professor Channing Robertson elaborates on the chemical reactions taking place within a glucose isomerase plant. This module covers:

  • The science behind isomerization.
  • Factors influencing reaction rates.
  • Applications of glucose isomerase in industry.

Course Lectures
  • The course begins with an introductory lecture by Professor Channing Robertson, who provides an overview of chemical engineering, its significance, and the course structure.

  • This module, delivered by the head TA, explores the complexities of modern oil refineries. Students will learn about:

    • The refining process of crude oil.
    • Mechanisms involved in oil processing.
    • Technological advancements in the industry.
  • In this module, Professor Channing Robertson discusses measurement units critical to chemical engineering. Key topics include:

    • Different measurement systems.
    • Unit conversions and their importance.
    • Real-world applications of measurement in chemical processes.
  • Professor Channing Robertson presents key concepts of mass conservation and balancing equations. This module emphasizes:

    • The significance of mass conservation in process design.
    • Practical examples of balancing chemical equations.
    • Applications in various chemical engineering processes.
  • In this module, Professor Channing Robertson discusses the design and function of an apheresis machine, including:

    • The principles of apheresis.
    • Applications in medical settings.
    • The engineering challenges involved in design.
  • The head TA provides an overview of the apheresis machine, detailing its operational principles and significance in healthcare. Key points include:

    • How apheresis is performed.
    • The role of technology in enhancing efficiency.
    • Case studies of apheresis applications in medicine.
  • This case study module focuses on the production of high fructose corn syrup. The head TA discusses:

    • The chemical processes involved.
    • Challenges faced in production.
    • Impacts on the food industry.
  • In this module, Professor Channing Robertson discusses the development and design of a glucose isomerase plant. Key topics include:

    • Methods of glucose isomerization.
    • Plant design considerations.
    • The economic impact of production efficiency.
  • Professor Channing Robertson elaborates on the chemical reactions taking place within a glucose isomerase plant. This module covers:

    • The science behind isomerization.
    • Factors influencing reaction rates.
    • Applications of glucose isomerase in industry.
  • In this module, Professor Channing Robertson discusses energy conservation principles relevant to high fructose corn syrup production. Key points include:

    • Energy efficiency practices.
    • The role of energy conservation in chemical processes.
    • Case studies showcasing successful energy management.
  • Professor Channing Robertson continues the discussion on energy conservation, delving deeper into heat exchanger design. This module emphasizes:

    • The importance of heat exchangers in chemical engineering.
    • Design considerations for efficiency.
    • Real-world applications in industry.
  • In this module, Professor Channing Robertson addresses conduction and convection principles related to heat exchangers, focusing on:

    • Theoretical concepts of heat transfer.
    • Practical design strategies.
    • Applications of heat exchangers in various industries.
  • Professor Channing Robertson discusses scaling and dimensionless analysis in this module, highlighting:

    • The importance of scaling in chemical engineering.
    • Examples of dimensionless numbers.
    • Applications in modeling and simulation.
  • Continuing the discussion on scaling, Professor Channing Robertson touches on pharmacokinetics problems, covering:

    • Modeling drug delivery systems.
    • Scaling effects on pharmacokinetics.
    • Real-world implications in drug design.
  • In this module, Professor Channing Robertson uses a virtual human body model to explain pharmacokinetics. Key topics include:

    • The processes of drug absorption and distribution.
    • Modeling drug behavior in the body.
    • Applications in pharmaceutical engineering.
  • The head TA discusses constructing pharmacokinetics models using a virtual human "tank" model. This module covers:

    • Fundamental principles of pharmacokinetics.
    • Model construction techniques.
    • Implications for drug delivery systems.
  • Professor Channing Robertson discusses biomedical engineering principles, focusing on the kidney's functions and anatomy. Key topics include:

    • The role of kidneys in the human body.
    • Understanding nephron structure and function.
    • The importance of kidney health.
  • This module continues the discussion on kidney functions, with a focus on the single nephron glomeruli filtration rate (SNGFR). Topics covered include:

    • How SNGFR is measured and its significance.
    • Implications for kidney function assessment.
    • Research advancements in nephrology.
  • Professor Channing Robertson discusses kidney dialysis machines and their operation in this module, emphasizing:

    • The principles behind dialysis.
    • Types of dialysis machines.
    • The role of dialysis in treating kidney failure.
  • In the final module, Professor Channing Robertson discusses the interactions between chemical engineering and environmental concerns. Key points include:

    • The impact of chemical processes on the environment.
    • Strategies for sustainable engineering practices.
    • Case studies illustrating successful environmental initiatives.