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Engineering
Electrical Engineering
Battery Technology
1. Introduction to Battery Technology
2. Fundamental Components of a Battery Cell
3. Key Performance Characteristics and Metrics
4. Classification of Batteries
5. Lithium-ion Battery Technology in Depth
6. Battery Pack and System Engineering
7. Battery Lifecycle Management
8. Emerging and Future Battery Technologies
9. Applications of Battery Technology
Emerging and Future Battery Technologies
Solid-State Batteries
Advantages over Liquid Electrolytes
Safety Improvements
Energy Density Potential
Temperature Stability
Solid Electrolyte Types
Sulfide Electrolytes
High Ionic Conductivity
Processing Challenges
Oxide Electrolytes
Chemical Stability
Interface Issues
Polymer Electrolytes
Flexibility
Conductivity Limitations
Technical Challenges
Interface Stability
Manufacturing Scalability
Cost Considerations
Advanced Lithium-ion Chemistries
High-Nickel Cathodes
Performance Benefits
Safety Trade-offs
Thermal Stability Issues
Silicon-Dominant Anodes
Capacity Advantages
Volume Expansion Problems
Cycle Life Challenges
Beyond Lithium-ion Technologies
Lithium-Sulfur Batteries
High Theoretical Capacity
Polysulfide Shuttle Problem
Electrolyte Requirements
Lithium-Air Batteries
Oxygen Reduction Mechanism
Rechargeability Challenges
Electrolyte Stability
Metal-Air Batteries
Zinc-Air Systems
Aluminum-Air Systems
Iron-Air Systems
Sodium-ion Batteries
Abundance of Sodium
Similar Chemistry to Lithium-ion
Performance Limitations
Multivalent Ion Batteries
Magnesium-ion Systems
Calcium-ion Systems
Aluminum-ion Systems
Flow Batteries
Redox Flow Principles
Vanadium Redox Flow
Organic Flow Batteries
Scalability Advantages
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7. Battery Lifecycle Management
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9. Applications of Battery Technology