Roadmap for CHE: Concepts I & II
Reference Textbooks
Material and Energy Balance
- Elementary Principles of Chemical Processes, 4th Edition – Richard M. Felder, Ronald W. Rousseau, Lisa G. Bullard
Thermodynamics
- Introduction to Chemical Engineering Thermodynamics (8th Edition) – J.M. Smith, Hendrick Van Ness, Michael Abbott, and Mark Swihart (primary)
- Fundamental of Chemical Engineering Thermodynamics – Themis Matsoukas
- Engineering and Chemical Thermodynamics, 2nd Edition – Milo D. Koretsky
Transport
- Transport Phenomena (revised 2nd Edition) – R. Bryon Bird, Warren E. Stewart, Edwin N. Lightfoot (primary)
- Fundamentals of Momentum, Heat and Mass Transfer (6th Edition) – James Welty, Gregory L. Rorrer, David G. Foster
- Munson, Young and Okiishi’s Fundamentals of Fluid Mechanics (8th Edition) – Philip Gerhart, Andrew Gerhart, John Hochstein
- Fox and McDonald’s Introduction to Fluid Mechanics (9th Edition) – Philip Pritchard, John Mitchel
- Fundamentals of Heat and Mass Transfer (8th Edition) – Theodore L. Bergman, Adrienne S. Lavine
Kinetics and Reactor Design
- Elements of Chemical Reaction Engineering (5th Edition) – H. Scott Fogler
Semester 1
Material and Energy Balances – Thermodynamics – Transport
| Material Balances | Energy Balances |
|---|---|
| Fundamental of Material Balances – Chapter 4 FRB | Energy and Energy Balances – Chapter 7 FRB |
| 4.2 – Conservation of Mass | 7.1 & 7.2 – Forms of Energy & 1st Law of Thermodynamics |
| 4.1 – Process Classification | 7.3 – Energy Balances on Closed Systems |
| 4.3 – Degrees of Freedom | 7.4 – Flow Work, Shaft Work and Specific Properties |
| 4.3 – Flowsheet Labeling and Basis Calculation (note, 4 lectures above fall under one “bullet” on the navigation panel) | 7.4 & 7.6 – Energy Balances on Open Systems at Steady State |
| 4.5 – Recycle and Bypass | 7.5 – Tables of Thermodynamics Data |
| 4.4 – Balances on Multiple Unit Processes | 7.7 – Mechanical Energy Balance |
| 4.6 – Chemical Reaction Stoichiometry | Energy Balances on Non-Reactive Processes – Chapter 8 FRB |
| 4.7 – Balances on Reactive Processes | 8.1 – Elements of Energy Balance Calculation |
| 4.7 – Independence and Different DOF Analysis (note, both 4.7 items fall under one “bullet” in navigation) | 8.2 & 8.3 – Changes in Pressure and Temperature |
| 4.8 – Combustion | 8.4 – Phase Change Operation |
| 4.6 – Chemical Equilibrium | 8.5 – Mixing and Solutions |
| 4.6 – Yield, Selectivity, and Conversion | Energy Balances on Reactive Processes – Chapter 9 FRB |
| Single Phase Systems and Volumetric Properties of Pure Fluid – Chapter 5 FRB & Chapter 3 SVAS | 9.1 – Heats of Reaction |
| 3.2 – PVT Behavior of Pure substance (Van Ness) | 9.2 – Measurement and Calculation of Heat of Reaction |
| 5.2 – Ideal Gases | 9.3 & 9.4 – Heats of Formation and Heats of Combustion |
| 5.3 – Equation of State for Non-Ideal gases | 9.5 – Energy Balances on Reactive Processes |
| 5.4 – Compressibility Factor Equation of State | |
| Multi-Phase Systems – Chapter 6 FRB | |
| 6.1 – Single Component Phase Equilibrium | |
| 6.2 – The Gibbs Phase Rule | |
| 6.3 – Gas-Liquid System: One Condensable Component | |
| 6.4 – Multi-Component Gas-Liquid Systems | |
| 6.5 – Calculation of Dew Point and Bubble Point Temperatures |
Semester 1, Continued
Course 1: Material and Energy Balances – Thermodynamics – Transport
| Thermodynamics | Transport |
|---|---|
| The Second Law of Thermodynamics – Chapter 5 SVAS | Momentum Transport |
| 5.1 – Statement of Second Law | Fluid Mechanics, Basics and Definitions – Chapter 1 & 2 BSL |
| 5.3 – Carnot Engine with Ideal-Gas-State Working Fluid | Introduction to Fluid Mechanics |
| 5.4 – Entropy | 1.1 – Newton’s Law of Viscosity |
| 5.6 – Entropy Balance for Open Systems | Differential Equations of Fluid Mechanics |
| 5.2 & 9.2 – Heat Engines, Heat Pumps, and Refrigeration | 2.1 – Shell Momentum Balance |
| Thermodynamic Properties of Fluids – Chapter 6 SVAS | (Example) 2.2 – Flow of Falling Film |
| 6.1 – Fundamental Property Relations | (Example) 2.3 – Flow Through a Circular Tube |
| 6.2 – Residual Properties | (Example) 2.4 – Flow Through an Annulus |
| 6.4 – Generalized Property Correlation for Gases | The Equations of Change for Isothermal Systems – Chapter 3 BSL |
| 6.5 – Two-Phase Systems | 3.1 – The Equation of Continuity |
| Application of Thermodynamics to Flow Processes – Chapter 7-8 SVAS | 3.2 – The Equation of Motion – Shell Momentum Balance |
| 7.1 – Nozzles, Throttling Process | 3.5 – Navier-Stokes Equation |
| 7.2 – Turbines (Expanders) | (Example) – Flow of a Falling Film |
| 7.3 – Compression Process – Compressors | (Example) – Flow Through a Circular Tube |
| 7.3 – Compression Process – Pumps | (Example) – Flow Through an Annulus |
| 8.1 – The Steam Power Plant – Rankine Cycle |
Semester 2
Thermodynamics – Transport – Kinetics and Reactor Design
| Transport | Thermodynamics |
|---|---|
| The Second Law of Thermodynamics – Chapter 5 SVAS | Momentum Transport |
| 5.1 – Statement of Second Law | Fluid Mechanics, Basics and Definitions – Chapter 1 & 2 BSL |
| 5.3 – Carnot Engine with Ideal-Gas-State Working Fluid | Introduction to Fluid Mechanics |
| 5.4 – Entropy | 1.1 – Newton’s Law of Viscosity |
| 5.6 – Entropy Balance for Open Systems | Differential Equations of Fluid Mechanics |
| 5.2 & 9.2 – Heat Engines, Heat Pumps, and Refrigeration | 2.1 – Shell Momentum Balance |
| Thermodynamic Properties of Fluids – Chapter 6 SVAS | (Example) 2.2 – Flow of Falling Film |
| 6.1 – Fundamental Property Relations | (Example) 2.3 – Flow Through a Circular Tube |
| 6.2 – Residual Properties | (Example) 2.4 – Flow Through an Annulus |
| 6.4 – Generalized Property Correlation for Gases | The Equations of Change for Isothermal Systems – Chapter 3 BSL |
| 6.5 – Two-Phase Systems | 3.1 – The Equation of Continuity |
| Application of Thermodynamics to Flow Processes – Chapter 7-8 SVAS | 3.2 – The Equation of Motion – Shell Momentum Balance |
| 7.1 – Nozzles, Throttling Process | 3.5 – Navier-Stokes Equation |
| 7.2 – Turbines (Expanders) | (Example) – Flow of a Falling Film |
| 7.3 – Compression Process – Compressors | (Example) – Flow Through a Circular Tube |
| 7.3 – Compression Process – Pumps | (Example) – Flow Through an Annulus |
| 8.1 – The Steam Power Plant – Rankine Cycle |
Semester 2, Continued
Course 2: Thermodynamics – Transport – Kinetics and Reactor Design
| Kinetics and Reactor Design | |
|---|---|
| The Second Law of Thermodynamics – Chapter 5 SVAS | Momentum Transport |
| 5.1 – Statement of Second Law | Fluid Mechanics, Basics and Definitions – Chapter 1 & 2 BSL |
| 5.3 – Carnot Engine with Ideal-Gas-State Working Fluid | Introduction to Fluid Mechanics |
| 5.4 – Entropy | 1.1 – Newton’s Law of Viscosity |
| 5.6 – Entropy Balance for Open Systems | Differential Equations of Fluid Mechanics |
| 5.2 & 9.2 – Heat Engines, Heat Pumps, and Refrigeration | 2.1 – Shell Momentum Balance |
| Thermodynamic Properties of Fluids – Chapter 6 SVAS | (Example) 2.2 – Flow of Falling Film |
| 6.1 – Fundamental Property Relations | (Example) 2.3 – Flow Through a Circular Tube |
| 6.2 – Residual Properties | (Example) 2.4 – Flow Through an Annulus |
| 6.4 – Generalized Property Correlation for Gases | The Equations of Change for Isothermal Systems – Chapter 3 BSL |
| 6.5 – Two-Phase Systems | 3.1 – The Equation of Continuity |
| Application of Thermodynamics to Flow Processes – Chapter 7-8 SVAS | 3.2 – The Equation of Motion – Shell Momentum Balance |
| 7.1 – Nozzles, Throttling Process | 3.5 – Navier-Stokes Equation |
| 7.2 – Turbines (Expanders) | (Example) – Flow of a Falling Film |
| 7.3 – Compression Process – Compressors | (Example) – Flow Through a Circular Tube |
| 7.3 – Compression Process – Pumps | (Example) – Flow Through an Annulus |
| 8.1 – The Steam Power Plant – Rankine Cycle |