Case Studies in Energy Systems : A Practical Approach to Energy System Design and Analysis.
Case Studies in Energy Systems: A Practical Approach to Energy System Design and Analysis demonstrates the application of both fundamental and advanced principles by providing a broad range of case studies, examples, and models.
| Main Author: | |
|---|---|
| Corporate Author: | |
| Format: | eBook |
| Language: | English |
| Published: |
Chantilly :
Elsevier,
2025.
|
| Edition: | 1st ed. |
| Subjects: | |
| Online Access: | Connect to the full text of this electronic book |
Table of Contents:
- Front Cover
- Case Studies in Energy Systems
- Case Studies in Energy Systems: A Practical Approach to Energy System Design and Analysis
- Copyright
- Contents
- Contributors
- 1
- Introduction
- 1. What is an energy resource?
- 2. Energy systems and the concept of primary energy
- 3. Energy demand and energy supply
- 4. Energy efficiency and renewable energy systems
- 5. Case study education: History, current applications and future perspectives
- References
- 2
- Transient heat transfer modelling in buildings based on the thermo-electric analogy
- 1. Introduction
- 2. Methodology
- 2.1 Lumped-capacitance approach
- 2.2 Example: Dynamic modelling of a thermal storage
- 3. Case study
- 3.1 Wall RC model
- 3.2 Simplified building lumped-RC model
- 3.2.1 Governing equation
- 3.2.2 Problem implementation
- 4. Conclusions
- References
- 3
- Modelling of thermodynamic cycles in Python
- 1. Introduction
- 2. Overview of CoolProp for property calculation in Python
- 2.1 Property calculation in Python
- 2.2 User-defined class for fluid state definition
- 2.3 Thermodynamic diagram plotting
- 3. Fundamentals of energy analysis of thermodynamic cycles in Python
- 3.1 Simple Rankine cycle overview
- 3.1.1 Python implementation
- 3.1.2 Isentropic efficiencies
- 4. Case studies
- 4.1 Case study 1: Reheated Rankine cycle
- 4.1.1 Optimal reheat pressure
- 4.2 Case study 2: Combined gas-vapour cycle
- 4.3 Case study 3: geothermal Organic Rankine cycle (ORC)
- 5. Conclusions
- References
- 4
- Preliminary design of a combined heat and power system for a beverage industry
- 1. Introduction
- 2. Case study description
- 3. Methodology
- 3.1 CHP thermodynamic modelling
- 3.2 Investment analysis
- 4. Python implementation
- 4.1 Data extraction and analysis of baseline scenario
- 4.2 Market prices
- 4.3 Air cycle class.
- 4.4 Water cycle class
- 4.5 New system class
- 4.6 Investment costs
- 4.7 Economic analysis
- 5. Results
- 5.1 Code execution
- 5.1.1 Plant data import
- 5.1.2 Air and water cycles calculation
- 5.1.3 CHP system calculation
- 5.1.4 Investment analysis
- 6. Conclusions
- References
- 5
- Modelling of a commercial refrigeration system in Python
- 1. Introduction
- 2. Why CO2?
- 2.1 CO2 as a refrigerant
- 3. CO2 transcritical booster system
- 3.1 Thermodynamic analysis
- 4. TESPy modelling framework
- 4.1 Model creation
- 4.1.1 Setting up your environment
- 4.1.2 Importing TESPy
- 4.1.3 Creating the network
- 4.1.4 Defining components
- 4.1.5 Connecting components
- 4.1.6 Setting parameters
- 4.1.7 Running the simulation
- 4.1.8 Analysing results
- 5. Case studies
- 5.1 Case study 1: CO2 booster system
- 5.1.1 Task 1
- 5.1.2 Task 2
- 5.1.3 Task 3
- 5.1.4 Task 4
- 5.2 Case study 2: Optimal gas cooler pressure
- 6. Conclusions
- References
- 6
- Optimal piping insulation layer based on economic, embodied energy and embodied carbon assessement
- 1. Introduction
- 2. Methodology
- 2.1 Case study description
- 2.2 Heat transfer modelling
- 2.3 Primary energy and carbon savings
- 2.4 Embodied energy and embodied carbon assessment
- 2.5 Investment analysis
- 3. Python implementation
- 3.1 Pipe data
- 3.2 Internal water flow
- 3.3 Insulation
- 3.4 External convection
- 3.5 Heating system
- 3.6 Pipe configuration
- 3.7 Economic data
- 3.8 Assessment
- 4. Results
- 4.1 Code execution
- 4.2 Parametric investigation
- 5. Conclusions
- References
- 7
- Design and optimization of fin-assisted cooling for power transformers
- 1. Case description
- 2. Problem analysis
- 3. Solution strategy
- 4. Discussion
- 5. Conclusions
- References.
- 8
- Design of a cooling system for an electronic component within a manufacturing process
- 1. Case description
- 2. Problem analysis
- 3. Solution strategy
- 4. Discussion
- 5. Conclusions
- References
- 9
- Thermo-economic assessment of an OCGT power plant: Pathways to renewable fuel integration
- 1. Case description
- 2. Problem analysis
- 3. Solution strategy
- 3.1 Thermodynamic analysis
- 3.2 Economic analysis
- 4. Discussion
- 5. Conclusions
- References
- 10
- Transient explicit model of buffer tank powered by flat-plate solar-thermal collector
- 1. Case description
- 1.1 General idea of heat storage
- 1.2 Heat storage in domestic hot water systems
- 2. Problem analysis
- 2.1 Solar collector system without separate solar medium circuit
- 2.2 Solar collector system with heat exchanger
- 2.3 Solar collector system with heat exchanger and auxiliary heat source
- 3. Solution strategy
- 3.1 Case 1: Tank with full mixing connected to flat thermal-solar collector
- 3.2 Case 2: System with a collector loop separated from the main system (filled with glycol solution), equipped with an externa ...
- 3.3 Case 3: System connected to solar collector and boiler
- 4. Discussion
- 4.1 Results
- Case 1
- 4.2 Results
- Case 2
- 4.3 Results
- Case 3
- 4.4 Results of cases 1-3 comparison
- 5. Conclusion
- Appendix 1-Detailed results of the simulations
- Appendix 2-Description of the calculation worksheet
- References
- 11
- Technical and financial analysis for the improvement of the energy efficiency of a pasteurizer for food processing
- 1. Case description
- 2. Problem analysis
- 3. Solution strategy
- 4. Discussion
- 5. Conclusion
- References
- 12
- Evaluating the viability of wind energy projects: A case-based approach
- 1. Case description
- 2. Problem analysis
- 3. Solution strategy
- 4. Discussion.
- 5. Conclusions
- References
- 13
- Decomposition of energy consumption. Fundamentals and applications
- 1. Case description
- 2. Problem analysis
- 3. Solution strategy
- 4. Discussion
- 5. Conclusions
- References
- Index
- Back Cover.