Resources
📘 Chapter 1: Foundations of Systemic and Component-Oriented Modeling
Complementary Resources and Guided Explorations
⚠️ Important Notes About These Resources
The materials linked below complement the content of Chapter 1 in Advanced Modeling of Thermodynamic Energy Components and Systems. While some examples or interfaces may differ slightly from the book, they remain fully aligned with its concepts and methodologies.
- Diapason sessions may include older Thermoptim screenshots or updated terminology to reflect current Anglo-Saxon usage. These differences are minor and do not affect comprehension.
- Guided explorations are accessible online but require the Thermoptim browser for full interactivity. Download the Thermoptim Browser here to access the complete features. Note that the Thermoptim Console contains direct links to the Thermoptim files used in the guided explorations.
📌 1.1.1 Physical Phenomena in Gas Turbines
Key Concepts Covered:
- Aerodynamics and thermodynamics of gas flow in turbines.
- Blade interactions, efficiency maps, and off-design behavior.
- Combustion processes and heat transfer limitations.
Complementary Resources:
📄 Thematic Page: Gas Turbines
This page provides a detailed overview of the physical phenomena occurring in gas turbines, including real-world examples and technological constraints. Access the Thematic Page →
🎧 Diapason Session: Example of a Gas Turbine Cycle
This audio-guided session explores a specific case study of a gas turbine cycle, complementing Section 1.1.1 of the book. Note: Some screenshots may reflect older versions of Thermoptim, but the concepts remain valid. Listen to the Diapason Session →
📌 1.1.2 Energy Technologies: Component Assemblies
Key Concepts Covered:
- Methodologies for modeling simple and complex energy systems.
- Systemic integration of components (turbines, compressors, heat exchangers).
- Functional and exergy structures for performance analysis.
Complementary Resources:
📖 Methodological Guide: Modeling Simple and Complex Systems
This guide offers a step-by-step approach to assembling components into coherent energy systems, aligning with the systemic framework introduced in the book. Read the Guide →
📝 General Methodological Approach
A comprehensive overview of the systemic and component-oriented modeling process, including practical tips for using Thermoptim effectively. Explore the Methodology →
📌 1.2.1 Use of the Thermoptim Software
Key Concepts Covered:
- Introduction to the Thermoptim environment and its modeling logic.
- Creating and analyzing thermodynamic cycles using the software.
- Practical tips for navigating the interface and tools.
Complementary Resources:
💻 General Presentation of Thermoptim
This page introduces the core features of Thermoptim, including how to assemble components, run simulations, and interpret results. Learn About Thermoptim →
📌 1.3 Thermoptim Primitive Types
Key Concepts Covered:
- Understanding primitive types in Thermoptim (basic building blocks for modeling).
- How to use these primitives to construct complex systems.
- Examples of component interactions and their thermodynamic implications.
Complementary Resources:
🎧 Diapason Session: Introduction to Thermoptim (S07En_init)
This guided audio session helps you discover Thermoptim’s interface and primitive types, using a step-by-step exploration (DecouvThopt7pm4). Note: For full interactivity, download and install Thermoptim. [Start the Diapason Session →](link_to_Diapason_S07En_init)
🖥️ Guided Exploration: Discovering Thermoptim
This interactive exploration lets you experiment with Thermoptim’s primitive types and basic modeling techniques. [Access the Exploration →](link_to_DecouvThopt7pm4)
📩 Need Help or Further Clarification?
If you have questions about these resources or need assistance using Thermoptim, feel free to contact us.
Renaud Gicquel – Bridging theory and practice in energy systems education.