Course Description
Advanced study of concepts in thermodynamics and fluid dynamics applied to thermofluid systems, including gas turbines, compressors, wind turbines, and rocket nozzles. Design analysis of pumps, fans, and wind turbines. Introduction to high-speed compressible flow, shock wave physics, and propulsion devices.
Additional Requirements for Graduate Students:
Graduate students must complete all requirements of undergraduate
students plus the following two requirements: (1) A short research
paper that will survey the journal literature and current issues
surrounding the design of advanced fluid systems (jet engines,
pumps, compressors, etc.). (2) The design of a laboratory
experiment that can be used in future offerings of this course.
Athena Title
Advanced Thermal Fluid Systems
Prerequisite
ENGR 3160 or ENGR 3160E
Undergraduate Pre or Corequisite
ENGR 3150 or ENGR 3150E
Semester Course Offered
Offered every year.
Grading System
A - F (Traditional)
Course Objectives
Upon successful completion of this course, the student will be able to: a) Understand the mathematical equations connecting thermodynamic property changes. b) Combine the fundamentals of engineering thermodynamics, fluid mechanics, and heat transfer in the analysis of power-generation devices. c) Explain and analyze the fluid dynamics principles of propulsion system components (nozzles, diffusers, rocket engines). d) Explain and analyze ideal wind turbine theory and the operation of actual wind turbines using projections of average wind speed and power requirements. e) Conduct local analysis on optimal wind turbine size, rotational speed, and blade type. f) Understand and apply fluid principles in the design of fluid power system equipment, such as pumps and fans. g) Explain the relationship and fundamental analysis principles of isentropic compressible flow. h) Understand how shock waves are formed, fundamental shock wave relationships, and applications to propulsion systems.
Topical Outline
• Review of basic thermodynamics and fluid dynamics principles. • Turbomachinery fluid mechanics principles and applications. • Design of turbines, compressors, pump, and fan systems, including impellers and blade design. • Ideal wind turbine theory and practical applications. • Compressibility and shock wave theory and applications to supersonic nozzles.
Syllabus