πŸ“š Energy Systems: A New Approach to Engineering Thermodynamics (2nd Ed.)

The Pedagogical Foundation for Modern Energy System Education

Description

Welcome to the Companion Website

This website complements Energy Systems: A New Approach to Engineering Thermodynamics (2nd Ed.), the foundational volume of a three-book series that revolutionizes energy systems education.

It explains how this book is part of a set of three books that allow you to start by learning about thermal energy systems and then conduct in-depth studies on two particularly important topics:

  • the behavior of these systems under off-design conditions,
  • and thermodynamic cycles coupled with nuclear reactors.

It also lists the various educational activities announced in the boxes of the different chapters of this book.


🌟 The Book That Changed Thermodynamics Education

For 25 years, we’ve pioneered a revolutionary approach to teaching thermodynamicsβ€”without overwhelming mathematics, using interactive simulations and real-world applications. This book is the gateway to understanding energy systems through:

βœ… Graphical Systemic Modeling: Build and analyze cycles visually with Thermoptim
βœ… Simplified Theory: Focus on physical concepts, equations introduced only when needed
βœ… Broad Coverage: From steam plants to fuel cells, from refrigeration to renewable energy
βœ… Progressive Learning: Two of the three pedagogical modes adapted to all levels


πŸ“• Order This Volume

Energy Systems: A New Approach to Engineering Thermodynamics is published by Routledge/ Taylor & Francis Group (2021).

πŸ›’ Order on the Publisher’s Website β†’

ISBN: 9781032007748


🎯 Why This Book Is Unique

This 2021 edition is the foundational volume that established a new paradigm in thermodynamics education:

What Makes It DifferentTraditional TextbooksOur Approach
Starting PointAbstract equations firstVisual system understanding first
Actual ExamplesSimplified cyclesReal-world cycles, no need to simplify
ComplexityMathematical formalism requiredSimplified presentation, math when needed
ScopeNarrow specializationComprehensive coverage of energy technologies
Target AudienceAdvanced engineering studentsTechnicians to engineers (all levels)
Learning ToolsTheoretical problemsInteractive Thermoptim simulations

Key Innovation: The CFRP approach (Components, Functions, Reference Processes) allows learners to understand thermodynamic systems qualitatively before tackling quantitative analysis.


πŸ‘₯ Who Is This Book For?

This edition serves the broadest possible audience:

  • πŸ”§ Technicians & Operators: Visual understanding of system operation (Mode 1 - Streamlined)
  • πŸŽ“ Undergraduate Students: Design and optimization fundamentals (Mode 2 - Progressive)
  • πŸ‘¨β€πŸ« Educators: Complete teaching framework with ready-to-use resources
  • πŸ’Ό Professionals in Continuing Education: Quick access to modern energy systems
  • 🌍 International Learners: Available in English and French

Not ready for advanced component modeling or nuclear cycles? This is your starting point.
Already familiar with basics? Explore Volume 1 or Volume 2 for deeper specialization.


πŸ“– Comprehensive Coverage of Energy Technologies

Unlike specialized textbooks, this edition covers the full spectrum of thermodynamic energy systems:

πŸ”₯ Power Generation

  • Steam power plants (Rankine or Hirn cycles, reheat, regeneration)
  • Gas turbines (Brayton cycles, regeneration, aircraft propulsion)
  • Internal combustion engines (reciprocating, Diesel, Otto)
  • Combined cycles
  • Cogeneration and CHP systems

❄️ Refrigeration & Air Conditioning

  • Vapor compression cycles
  • Absorption refrigeration (LiBr-Hβ‚‚O, NH3-Hβ‚‚O)
  • Heat pumps
  • Cryogenic cycles
  • Psychrometrics and HVAC design

🌱 Renewable & Innovative Energy

  • Solar thermodynamic systems
  • Geothermal and OTEC cycles
  • Biomass energy conversion
  • Stirling engines
  • Advanced gas turbine cycles (humid air, supercritical COβ‚‚)

⚑ Emerging Technologies

  • Fuel cells (SOFC, PEM)
  • Electrolyzers and hydrogen production
  • Desalination systems
  • Future nuclear reactor cycles (Gen IV)
  • Oxyfuel combustion

Total: 18 chapters covering over 40 different cycle types and applications.


πŸŽ“ Two Pedagogical Modes for Progressive Mastery

Our adaptive methodology ensures the book serves learners at the two first stages, the third one being fully addressed in the 2026 volumes.

Mode 1: Light

For: Technicians, operators, vocational training, MOOCs
Focus: Visual understanding, system operation, troubleshooting
Tools:

  • Diapason narrated slideshows
  • Guided explorations (step-by-step)
  • Drag-and-drop, gap-fill, categorization self-assessments
  • No entropy, no exergy β€” just practical thermodynamics

Outcome: Operate and diagnose energy systems confidently


Mode 2: Progressive

For: Undergraduate students, practicing engineers
Focus: Cycle design, performance optimization, comparative analysis
Tools:

  • Start with Mode 1 foundation
  • Introduction to entropy and exergy after mastering basics
  • Additional self-assessment exercises
  • Spiral learning (concepts revisited with increasing depth)
  • Exergy analysis and pinch method

Outcome: Design and optimize conventional energy systems


Mode 3: In-Depth (Introduced, completed in Volumes 1-2)

For: Graduate students, researchers, advanced practitioners
Focus: Innovation, theoretical validation, advanced simulations
Tools:

  • Complete equation sets
  • Advanced Thermoptim features (external class development)
  • Component sizing and off-design system behavior
  • Custom controller development

Outcome: Create novel cycles and push technological boundaries


For a deeper understanding of these topics, two notes expand on the pedagogical use of Thermoptim: the first elaborates on the new educational paradigm it enables, while the second addresses its theoretical foundations.


🎯 Interactive Learning Resources on This Website

Beyond the textbook, this companion website provides comprehensive interactive resources organized for easy access:

πŸ“‹ Suggested Activities

A complete guide to all learning materials, organized by activity type:

  • Key Issues β€” 20 essential concepts to master
  • Guided Explorations β€” 45+ step-by-step Thermoptim simulations
  • Worked Examples β€” 15+ real-world case studies with complete solutions
  • Self-Assessment β€” 70+ interactive exercises (drag-drop, gap-fill, categorization, quizzes)
  • Online Course 2022 β€” Structured learning pathway for Modes 1-2

Why visit this page?

  • Find activities organized by activity type
  • Access all digital resources in one convenient location
  • Follow recommended learning paths for different skill levels

πŸ”Ή Browse All Suggested Activities β€” Your interactive learning companion

“Think of this as your digital laboratory β€” everything you need to practice, explore, and master energy systems modeling is organized here.”


πŸ”§ Essential Digital Tools

Every chapter is supported by comprehensive digital resources:

Resource TypeDescriptionAccess
Thermoptim ModelsPre-built simulations of all major cyclesDownload
Guided Explorations45+ step-by-step tutorialsPortal
Diapason Sessions30+ narrated slideshows with audio guidancePortal
Self-Assessment70+ interactive exercisesPortal
Online Course 2022Complete Mode 1 + partial Mode 2Course

πŸ”— Your Path Through the Complete Series

This book is the pedagogical foundation. The 2026 volumes build upon it for specialized, advanced study:

πŸ”Ή πŸ“š Series Portal β€” All Three Volumes β€” Overview of the complete series, coverage table, and recommended learning paths

πŸ“˜ Energy Systems (2021) β€” THIS BOOK

  • Scope: Broad coverage of all energy technologies
  • Pedagogy: Simplified, accessible to all levels (Modes 1-2)
  • Depth: Introductory to intermediate
  • Goal: Understand the fundamentals of thermal energy conversion

β†’ Start here if: You’re new to thermodynamics OR need a comprehensive overview OR prefer simplified explanations


πŸ“— Volume 1: Advanced Modeling of Energy Components (2026)

  • Scope: Deep dive into component behavior and systemic analysis
  • Pedagogy: Technical, assumes foundational knowledge (Mode 3)
  • Depth: Advanced β€” off-design operation, performance maps, technological constraints
  • Goal: Master realistic component modeling

β†’ Continue here if: You’ve mastered the basics AND want to model real components accurately AND need off-design analysis

πŸ”Ή Visit Volume 1 Website


πŸ“• Volume 2: Nuclear Power Plant Thermodynamic Cycles (2026)

  • Scope: Specialized focus on nuclear thermodynamic cycles
  • Pedagogy: Advanced-level, assumes 2021 edition knowledge (Modes 2-3)
  • Depth: Highly specialized β€” PWR, BWR, SMR, Gen IV, supercritical COβ‚‚, cogeneration
  • Goal: Model and optimize complete nuclear plant cycles

β†’ Continue here if: You’re motivated by nuclear energy AND need detailed cycle analysis AND want real plant case studies

πŸ”Ή Visit Volume 2 Website


πŸ“₯ Getting Started

Essential Downloads

πŸ“§ Contact us


Β© Renaud Gicquel, 2021.2