This module, led by the head TA, delves into the intricacies of modern oil refineries. The lecture covers the essential processes involved in refining crude oil, explaining the mechanisms and technologies that facilitate this critical industry.
This module serves as an introduction to the field of chemical engineering, where Professor Channing Robertson presents a comprehensive overview of the course. Attendees will explore the historical context, current trends, and future directions of the discipline.
This module, led by the head TA, delves into the intricacies of modern oil refineries. The lecture covers the essential processes involved in refining crude oil, explaining the mechanisms and technologies that facilitate this critical industry.
In this session, Professor Channing Robertson discusses units and measurement systems used in chemical engineering. Understanding various units is crucial for accurate data interpretation and effective communication within the field.
Professor Channing Robertson introduces the principles of balancing chemical equations and the conservation of mass. These concepts are fundamental to designing processes in chemical engineering, ensuring that all inputs and outputs are accounted for.
This module focuses on the design and function of apheresis machines, which are crucial in medical applications such as blood donation and treatment. Professor Channing Robertson explains the engineering principles that underlie this technology.
The head TA provides an overview of the apheresis machine, detailing its operational aspects and applications in the medical field. This session builds on the previous module by reinforcing understanding through practical insights.
This case study presented by the head TA examines the process of making high fructose corn syrup. Students will gain insight into the industrial methods used and the chemical reactions involved, providing a practical application of chemical engineering principles.
Professor Channing Robertson discusses the development and design of a glucose isomerase plant, which is essential for producing high fructose corn syrup. This module highlights the engineering challenges and solutions encountered during the plant's design.
In this module, Professor Channing Robertson delves into the chemical reactions involved in the operation of a glucose isomerase plant. A solid understanding of these reactions is vital for optimizing production processes.
This module highlights energy conservation within high fructose corn syrup production processes. Professor Channing Robertson discusses various strategies employed to reduce energy consumption while maintaining efficiency and sustainability.
Professor Channing Robertson continues the discussion on energy conservation, focusing specifically on the design of heat exchangers. Heat exchangers play a critical role in many chemical processes, and their design can significantly impact energy efficiency.
This module delves into the principles of conduction and convection as they relate to heat exchangers. Professor Channing Robertson explains the theoretical foundations and practical considerations for designing effective heat exchangers.
In this session, Professor Channing Robertson discusses scaling and its importance in chemical engineering. The module emphasizes dimensionless analysis and its applications in various engineering contexts, providing a deeper understanding of the subject.
Continuing the discussion on scaling, Professor Channing Robertson addresses a pharmacokinetics problem. This module connects chemical engineering principles with real-world applications in biomedical engineering, enhancing students' understanding of the subject.
In this engaging module, Professor Channing Robertson uses a virtual human body model to explain pharmacokinetics. Students will learn about drug delivery systems and the dynamics of drug interactions within the body.
The head TA leads a discussion on constructing a pharmacokinetics model using a virtual human "tank" model. This hands-on approach allows students to apply theoretical concepts to practical scenarios in drug delivery.
Professor Channing Robertson discusses biomedical engineering principles, focusing on the anatomy and functions of the kidney. This module connects chemical engineering concepts with biological systems, enhancing interdisciplinary understanding.
This module focuses on the single nephron glomeruli filtration rate (SNGFR) and its significance in kidney function. Professor Channing Robertson explains how this parameter affects overall kidney performance and health.
In this informative session, Professor Channing Robertson discusses kidney dialysis machines and clinics. Students will learn about the engineering principles behind these systems and their vital role in patient care.
Professor Channing Robertson concludes the course by discussing the interactions between chemical engineering and environmental concerns. This module emphasizes the importance of sustainability and responsible engineering practices in modern society.