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Energy
Energy Storage Technologies
1. Fundamentals of Energy Storage
2. Mechanical Energy Storage
3. Electrochemical Energy Storage (Batteries)
4. Chemical Energy Storage
5. Thermal Energy Storage (TES)
6. Electrical Energy Storage
7. Applications and System Integration
8. Economics, Policy, and Environmental Impact
9. Future Trends and Emerging Technologies
Thermal Energy Storage (TES)
Sensible Heat Storage
Principles of Storing Heat via Temperature Change
Heat Capacity of Materials
Specific Heat Capacity
Thermal Mass Concepts
Temperature Range Considerations
Operating Temperature Windows
Material Stability Limits
Storage Media
Water Tanks
Stratified Storage Systems
Insulation Requirements
Corrosion Prevention
Molten Salts
Salt Composition Selection
Temperature Ranges
Corrosion Management
Packed-Bed Rock/Ceramics
Material Selection
Heat Transfer Characteristics
System Design
Concrete
Thermal Properties
Structural Integration
Cost Advantages
System Design and Insulation
Heat Exchanger Design
Insulation Materials and Methods
Thermal Losses Minimization
Applications in Concentrated Solar Power (CSP)
Solar Field Integration
Power Block Operation
Dispatch Flexibility
Applications in District Heating and Cooling
Seasonal Storage Systems
Load Balancing
System Integration
Latent Heat Storage
Principles of Phase Change Materials (PCMs)
Melting and Solidification Processes
Latent Heat of Fusion
Phase Change Temperature
Heat Transfer Mechanisms
Types of PCMs
Organic PCMs
Paraffins
Alkane Compounds
Temperature Ranges
Stability Characteristics
Fatty Acids
Natural and Synthetic Options
Thermal Properties
Corrosion Considerations
Inorganic PCMs
Salt Hydrates
Crystallization Behavior
Supercooling Issues
Nucleating Agents
Metallics
High-Temperature Applications
Thermal Conductivity
Containment Requirements
Eutectics
Binary and Ternary Mixtures
Sharp Melting Points
Property Optimization
Advantages and Challenges
High Energy Density
Compact Storage Systems
Isothermal Operation
Thermal Cycling Stability
Degradation Mechanisms
Long-Term Performance
Cost and Material Compatibility
Container Materials
Heat Transfer Enhancement
Thermochemical Energy Storage
Principles of Reversible Chemical Reactions
Endothermic and Exothermic Reactions
Energy Storage and Release
Reaction Kinetics
Equilibrium Considerations
Adsorption and Absorption Systems
Zeolites
Porous Structure
Water Adsorption Capacity
Regeneration Requirements
Silica Gels
Adsorption Isotherms
Thermal Regeneration
System Design
Salt Hydrates
Hydration/Dehydration Reactions
Heat Storage Capacity
Reaction Control
System Design and Integration
Reactor Design
Heat and Mass Transfer
Process Control Systems
Advantages
Long-Duration Storage
Indefinite Storage Potential
No Thermal Losses
Low Thermal Loss
Chemical Stability
Ambient Storage
High Energy Density
Compact System Design
High Storage Capacity
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4. Chemical Energy Storage
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6. Electrical Energy Storage