Thermal Energy Storage Solutions Training Course
Introduction:
Thermal energy storage (TES) is a vital component of energy systems, enabling the storage and efficient use of thermal energy for later use, improving energy efficiency and sustainability. This 5-day course will provide participants with a comprehensive understanding of the principles, technologies, and applications of thermal energy storage systems, including sensible heat, latent heat, and thermochemical storage methods. The course will cover the design, operation, and maintenance of TES systems used in both industrial and residential settings, as well as the role of TES in renewable energy integration and grid balancing.
Objectives:
By the end of this course, participants will:
- Understand the fundamental principles of thermal energy storage and its role in energy systems.
- Learn about the different types of TES technologies: sensible heat, latent heat, and thermochemical storage.
- Gain insight into the design, operation, and optimization of TES systems.
- Explore the integration of TES with renewable energy sources like solar and wind.
- Learn about the applications of TES in various sectors: industrial, residential, and district heating.
- Understand the economic and environmental benefits of implementing TES systems.
Who Should Attend:
This course is ideal for professionals involved in energy management, renewable energy systems, and thermal energy engineering, including:
- Energy Engineers and Technicians
- HVAC Engineers and Specialists
- Renewable Energy Professionals
- Project Managers and Consultants in Energy Systems
- Designers and Developers of Thermal Storage Systems
- Environmental Engineers and Sustainability Experts
Course Outline:
Day 1: Introduction to Thermal Energy Storage
- Session 1: Overview of Thermal Energy Storage
- Definition, Importance, and Benefits of Thermal Energy Storage
- The Role of TES in Sustainable Energy Solutions
- Global Trends in TES: Integration with Renewable Energy and Grid Balancing
- Session 2: Basic Principles of Thermal Energy Storage
- Heat Transfer Mechanisms: Conduction, Convection, and Radiation
- Energy Storage Concepts: Sensible Heat, Latent Heat, and Thermochemical Storage
- The Role of Thermal Storage in Reducing Energy Waste and Managing Peak Demand
- Session 3: Types of Thermal Energy Storage
- Sensible Heat Storage: Water, Concrete, Rocks
- Latent Heat Storage: Phase Change Materials (PCMs)
- Thermochemical Storage: Chemical Reactions for Heat Storage
- Activity: Group Discussion – Exploring the Benefits and Challenges of Different TES Systems
Day 2: Sensible Heat Storage Systems
- Session 1: Sensible Heat Storage – Principles and Design
- Understanding Sensible Heat and Its Applications in TES
- Materials for Sensible Heat Storage: Water, Air, and Solid Media
- Thermal Energy Storage Tanks and Thermal Storage Media
- Session 2: Design and Optimization of Sensible Heat Storage Systems
- Key Design Considerations: Storage Capacity, Heat Loss, and Efficiency
- Thermal Storage Tank Design and Materials Selection
- Heat Transfer Enhancement Techniques: Fins, Heat Exchangers, and Insulation
- Session 3: Applications of Sensible Heat Storage
- Industrial Applications: High-Temperature TES for Process Heat
- District Heating and Cooling Systems
- Integration with Solar Thermal Power Plants
- Activity: Workshop – Designing a Sensible Heat Storage System for an Industrial Process
Day 3: Latent Heat Storage with Phase Change Materials (PCMs)
- Session 1: Introduction to Phase Change Materials (PCMs)
- What are Phase Change Materials? Phase Transition and Latent Heat Storage
- Types of PCMs: Organic, Inorganic, and Eutectic Materials
- Thermal and Physical Properties of PCMs: Melting Point, Heat of Fusion, Thermal Conductivity
- Session 2: PCM-Based Thermal Storage Systems
- Design and Integration of PCM Systems
- PCMs in Passive and Active Thermal Energy Storage Systems
- Heat Exchange Methods in PCM Systems: Encapsulation, Slurries, and Grains
- Session 3: Applications of PCM-Based TES
- Building and HVAC Applications: Thermal Management and Heat Regulation
- Renewable Energy Systems: Integrating PCMs with Solar and Wind Energy
- Low-Temperature and Refrigeration Applications
- Activity: Hands-on Exercise – Calculating the Thermal Storage Capacity of PCMs in a Building HVAC System
Day 4: Thermochemical Energy Storage
- Session 1: Fundamentals of Thermochemical Energy Storage
- Introduction to Thermochemical Reactions for Heat Storage
- Types of Thermochemical Storage Systems: Adsorption, Absorption, and Redox Reactions
- Key Components: Sorbents, Reactants, and Reaction Kinetics
- Session 2: Design and Operation of Thermochemical Systems
- System Design Considerations: Reaction Rates, Heat Release, and Efficiency
- Thermal Integration with Solar and Industrial Heat
- Challenges in Thermochemical Storage: Long-Term Stability and Reaction Control
- Session 3: Applications of Thermochemical TES
- Large-Scale Energy Storage for Industrial Use
- Storage for Grid Energy Balancing and Peak Shaving
- Thermal Energy Storage in High-Temperature Solar Power Plants
- Activity: Case Study – Exploring a Thermochemical TES Application in a Solar Thermal Power Plant
Day 5: TES System Integration, Sustainability, and Future Trends
- Session 1: Integration of TES with Renewable Energy Systems
- Role of TES in Solar Thermal and Concentrated Solar Power (CSP)
- Wind and Geothermal Energy Storage Integration
- Energy Storage for Grid Stability and Load Shifting
- Session 2: Economic and Environmental Benefits of TES
- Reducing Carbon Footprints: TES and Sustainable Energy Practices
- Economic Feasibility and Cost-Effectiveness of TES Solutions
- TES and Decarbonization of Industry and Buildings
- Session 3: Future Trends and Innovations in TES
- Next-Generation Materials for TES: Advanced PCMs, Hybrid Systems
- Digitalization and Smart TES Systems for Efficiency
- Research Directions and Emerging Technologies in TES
- Activity: Group Brainstorming – Innovative Solutions for the Future of Thermal Energy Storage
Course Delivery:
- Interactive Sessions: Detailed lectures and discussions on TES technologies and their applications.
- Practical Exercises: Hands-on activities that apply course concepts to real-world projects and systems.
- Case Studies: Examination of successful TES implementations in various sectors, including residential, industrial, and renewable energy applications.
- Workshops: Collaborative design exercises to enhance problem-solving and decision-making skills in TES systems.
- Expert Speakers and Guest Lectures: Insights from industry professionals and innovators in TES and energy storage technologies.