MITx: Thermal-Fluids Engineering 1: Basics of Thermodynamics and Hydrostatics course Syllabus

Overview: This course provides a comprehensive introduction to the fundamental principles of thermal-fluid sciences, integrating thermodynamics, fluid mechanics, and heat transfer. Designed for engineering students, it emphasizes analytical problem-solving and real-world applications in aerospace, mechanical, and energy systems. The course spans approximately 16–21 weeks of part-time study, with weekly commitments averaging 6–8 hours, including lectures, problem sets, and project work.

Module 1: Foundations of Thermodynamics

Estimated time: 24–32 hours

• Concepts of energy, work, and heat transfer
• First law of thermodynamics and energy conservation
• Second law of thermodynamics and entropy
• Thermodynamic cycles in engines and power plants
• Energy balances in engineering systems

Module 2: Fluid Mechanics Fundamentals

Estimated time: 32–40 hours

• Fluid properties: density, viscosity, and pressure
• Conservation of mass and continuity equation
• Conservation of momentum and Navier-Stokes concepts
• Fluid flow in pipes and open channels
• Applications in aerodynamics and hydraulic systems

Module 3: Heat Transfer Principles

Estimated time: 32–40 hours

• Conduction, convection, and radiation mechanisms
• Thermal conductivity and heat flux analysis
• Energy losses and thermal resistance
• Heat transfer in engineering components

Module 4: Engineering Applications of Thermal Fluids

Estimated time: 24–32 hours

• Analysis of turbines, compressors, and pumps
• Thermal-fluid systems in mechanical and aerospace engineering
• System efficiency and performance evaluation
• Modeling and simulation of real-world engineering systems

Module 5: Final Engineering Analysis Project

Estimated time: 24–32 hours

• Selection and description of a thermal-fluid system
• Application of thermodynamic and fluid mechanics equations
• Interpretation of energy flows, fluid behavior, and system performance

Prerequisites

• College-level physics (mechanics and energy)
• Calculus I and familiarity with derivatives and integrals
• Basic knowledge of differential equations

What You'll Be Able to Do After

• Analyze thermodynamic processes and energy systems using the first and second laws
• Evaluate fluid behavior in motion using conservation laws
• Solve heat transfer problems involving conduction, convection, and radiation
• Apply engineering models to real-world systems like engines, turbines, and refrigeration units
• Demonstrate integrated understanding through a comprehensive engineering analysis project