The global need for advanced energy storage solutions is growing rapidly, particularly in industries such as electric vehicles, consumer electronics, and renewable energy. Solid-state batteries (SSBs) are emerging as a breakthrough technology that promises higher energy densities, greater safety, and longer lifespans compared to conventional lithium-ion batteries.

The Solid-State Battery Technology course, offered by the British Academy for Training and Development, is designed to provide participants with a comprehensive understanding of the science, materials, and challenges associated with this innovative technology. Over six weeks, this course will cover the core principles, components, and future potential of solid-state batteries, preparing participants to explore their role in the future of energy storage.

Who Should Attend?

• Battery Technology Engineers and professionals looking to expand their knowledge of advanced battery technologies.
• Researchers and Scientists in energy storage, electrochemistry, and materials science.
• Product Developers working on next-generation batteries for electric vehicles, consumer electronics, and energy storage systems.
• Energy Policy Makers and professionals interested in the future of sustainable energy storage solutions.

Knowledge and Benefits:

After completing the program, participants will be able to master the following:

• The fundamental principles and mechanisms of solid-state battery technology.
• Evaluate the advantages, limitations, and challenges associated with solid-state batteries.
• Identify the latest trends, applications, and research directions in solid-state battery development.
• Gain insight into the future commercial potential and impact of solid-state batteries on industries like electric vehicles and renewable energy.

• Evolution of Battery Technologies
  • Traditional battery technologies (liquid-based) and their limitations.
  • The shift towards solid-state technologies.
  • Benefits and drivers behind the development of solid-state batteries.
• Fundamentals of Solid-State Battery Design
  • Core components: solid electrolytes, electrodes, and separators.
  • How solid-state batteries differ from lithium-ion batteries.
  • Basic operating principles of solid-state batteries.
• Key Benefits of Solid-State Batteries
  • Increased safety due to non-flammable solid electrolytes.
  • Higher energy density leading to improved performance.
  • Longer lifespan and better cycle stability.
• Types of Solid Electrolytes
  • Ceramic (oxide) electrolytes: Properties and challenges.
  • Sulfide-based electrolytes: Advantages and limitations.
  • Polymer electrolytes: Potential and current usage.
• Ionic Conductivity of Solid Electrolytes
  • The role of ionic conductivity in battery performance.
  • Factors influencing ionic conductivity (e.g., temperature, material composition).
  • How to enhance ionic conductivity in solid electrolytes.
• Challenges in Electrolyte Development
  • Issues with material stability and chemical reactivity.
  • Interfacial problems between solid electrolyte and electrodes.
  • Scaling up materials for mass production.
• Ionic Transport in Solid-State Batteries
  • The movement of ions through solid electrolytes during charge and discharge.
  • Comparison with ionic movement in liquid electrolytes.
  • Factors influencing ionic transport (e.g., electrolyte type and temperature).
• Charge and Discharge Cycles
  • Explanation of the electrochemical reactions in solid-state batteries.
  • How the battery’s energy is stored and released.
  • Impact of cycling on battery performance and efficiency.
• Performance Metrics for Solid-State Batteries
  • Key performance indicators: energy density, efficiency, and cycle life.
  • The role of temperature and other environmental factors in battery performance.
  • The potential for higher performance compared to traditional batteries.
• Challenges in Scaling Production
  • Difficulties in transitioning from laboratory-scale to commercial-scale manufacturing.
  • Material handling and fabrication complexity.
  • The high cost of materials and production processes.
• Manufacturing Techniques
  • Cold pressing, sintering, and sputtering techniques.
  • Thin-film deposition and solid-state electrolyte formation.
  • Methods for improving production efficiency and reducing costs.
• Testing and Quality Control
  • Importance of rigorous testing to ensure performance and safety.
  • Standard testing methods for solid-state batteries (e.g., capacity, cycle stability).
  • Quality control issues related to material consistency and manufacturing defects.
• Safety Improvements
  • Solid-state batteries reduce the risk of thermal runaway and fires.
  • Benefits of non-flammable solid electrolytes.
  • The role of solid-state batteries in improving device safety.
• Increased Energy Density and Efficiency
  • Solid-state batteries can store more energy in the same volume or weight.
  • How this leads to longer battery life in smaller devices.
  • The potential for lighter, more compact battery systems.
• Challenges to Commercialization
  • High production costs and material shortages.
  • Technical difficulties with solid-state electrolyte-electrode interfaces.
  • Market barriers and timeframes for mass adoption.
• Solid-State Batteries in Electric Vehicles (EVs)
  • Potential impact on the electric vehicle industry.
  • How solid-state batteries could increase driving range and charging speed.
  • Advantages in terms of safety, cost, and weight reduction for EVs.
• Applications in Consumer Electronics
  • The role of solid-state batteries in smartphones, laptops, and wearables.
  • The benefits of longer battery life and reduced charging times.
  • How solid-state batteries could change the consumer electronics market.
• Energy Storage for Renewable Energy Systems
  • Use of solid-state batteries for efficient energy storage from renewable sources (solar, wind).
  • Impact on grid storage and off-grid energy solutions.
  • The role of solid-state batteries in supporting sustainable energy solutions.