Advanced Course in Solid-State Battery Technology |Smart

Overview

Why Attend

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, 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.

Course Objectives

By the end of the course, participants will be able to:

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.

Course Outline

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.

Schedule & Fees

2026 Schedule & Fees

22 - 26 Nov, 2026

English

Per participant USD 2,900

22 - 26 Nov, 2026

Arabic

Per participant USD 2,900

13 - 17 Dec, 2026

English

Per participant USD 2,900

13 - 17 Dec, 2026

Arabic

Per participant USD 2,900

2027 Schedule & Fees

21 - 25 Feb, 2027

English

Per participant USD 2,900

21 - 25 Feb, 2027

Arabic

Per participant USD 2,900

14 - 18 Mar, 2027

English

Per participant USD 2,900

14 - 18 Mar, 2027

Arabic

Per participant USD 2,900

23 - 27 May, 2027

English

Per participant USD 2,900

23 - 27 May, 2027

Arabic

Per participant USD 2,900

13 - 17 Jun, 2027

English

Per participant USD 2,900

13 - 17 Jun, 2027

Arabic

Per participant USD 2,900

22 - 26 Aug, 2027

English

Per participant USD 2,900

22 - 26 Aug, 2027

Arabic

Per participant USD 2,900

12 - 16 Sep, 2027

English

Per participant USD 2,900

12 - 16 Sep, 2027

Arabic

Per participant USD 2,900

21 - 25 Nov, 2027

English

Per participant USD 2,900

21 - 25 Nov, 2027

Arabic

Per participant USD 2,900

12 - 16 Dec, 2027

English

Per participant USD 2,900

12 - 16 Dec, 2027

Arabic

Per participant USD 2,900