[Thermodynamics Core] ├── 1. Basic Concepts (Systems, Properties, Cycles) ├── 2. Pure Substances & Phase Diagrams (Steam Tables) ├── 3. First Law of Thermodynamics (Energy Conservation) ├── 4. Second Law of Thermodynamics (Entropy & Exergy) ├── 5. Power & Refrigeration Cycles (Otto, Diesel, Rankine) └── 6. Psychrometrics & Combustion (HVAC, Gas Mixtures) 1. Thermodynamic Systems and Substance Properties
The 406-page manual is divided into 14 chapters, structured to follow a standard engineering curriculum:
): Proving whether a hypothetical process is reversible, irreversible, or outright impossible.
: If you get stuck, look at the next step in the solution. Note exactly what concept or algebraic trick you missed.
Exposure to 2000 distinct problems ensures you will never encounter a surprise question format on the FE, PE, or university exams. Core Pillars of Mechanical Engineering Thermodynamics
Steady-flow energy equation (SFEE) applied to nozzles, diffusers, turbines, compressors, throttling valves, and heat exchangers.
: Evaluating internal combustion engines (Otto and Diesel cycles) and gas turbines (Brayton cycle).
Mastering Thermodynamics: Why "2000 Solved Problems" Is Your Ultimate Engineering Survival Guide
This constitutes the core application area for mechanical engineers: Rankine cycle (steam power plants).
If you’re struggling with a specific concept—like entropy generation or Rankine cycles—you can drill down into 50+ problems specifically on that topic until it clicks. Key Topics You’ll Conquer A deep dive into this problem set typically covers:
: Calculating thermal efficiency ( ) and Coefficient of Performance ( ) limits using the Carnot Cycle. Entropy Balance : Quantifying entropy generation ( Sgencap S sub gen end-sub
Understanding how to move heat against its natural direction from a cold space to a warm space.
Your path to finding properties depends entirely on the fluid type: Use , or ideal gas tables.