Training Course on Energy Storage Systems in Design and Grid Integration
Training Course on Energy Storage Systems in Design and Grid Integration equips participants with the technical knowledge and practical tools to design, develop, and integrate a variety of energy storage technologies, including battery energy storage systems (BESS), thermal storage, flywheels, and hydrogen-based storage.
Course Overview
Training Course on Energy Storage Systems in Design and Grid Integration
Introduction
The rapid growth of renewable energy integration, smart grid technologies, and electric mobility has elevated the importance of Energy Storage Systems (ESS) in modern power systems. Training Course on Energy Storage Systems in Design and Grid Integration equips participants with the technical knowledge and practical tools to design, develop, and integrate a variety of energy storage technologies, including battery energy storage systems (BESS), thermal storage, flywheels, and hydrogen-based storage. The program emphasizes critical topics such as grid-scale energy storage, hybrid systems, and advanced control strategies, ensuring stable, reliable, and sustainable power delivery.
Through real-world case studies and global best practices, this course explores the application of ESS in frequency regulation, voltage support, load shifting, renewable firming, and black start capabilities. Participants will also learn how to evaluate system sizing, battery chemistries (e.g., Li-ion, flow batteries), lifecycle management, power electronics interfacing, and the impact of energy storage on decarbonization, resilience, and grid optimization. Ideal for energy engineers, utility planners, and project developers, this course offers a future-proof skillset aligned with emerging grid demands.
Course duration
10 Days
Course Objectives
1. Understand the key principles and functions of Energy Storage Systems (ESS)
2. Identify various ESS technologies and their applications
3. Evaluate the technical and economic feasibility of storage systems
4. Integrate ESS into renewable energy and grid systems
5. Design battery energy storage systems (BESS) for grid stability
6. Analyze storage applications in frequency and voltage regulation
7. Optimize storage sizing, operation, and dispatch strategies
8. Understand the role of ESS in microgrids and off-grid systems
9. Apply energy management systems (EMS) for storage control
10. Address safety, standards, and lifecycle concerns in ESS
11. Explore hybrid energy storage solutions and multi-use cases
12. Model ESS behavior using simulation tools and data analytics
13. Review case studies on successful grid-connected ESS projects
Organizational Benefits
1. Improved grid reliability and stability through ESS deployment
2. Enhanced renewable energy integration and firming capacity
3. Increased operational flexibility and load balancing
4. Reduced dependency on fossil fuels and peak generation
5. Greater return on investment for clean energy infrastructure
6. Efficient demand-side management and peak shaving
7. Strengthened resilience in backup and black start operations
8. Compliance with clean energy policies and carbon goals
9. Data-driven decision-making in ESS planning and operations
10. Competitive advantage through innovative energy strategies
Target Participants
· Electrical and Energy Engineers
· Utility Grid Operators and System Planners
· Renewable Energy Project Developers
· Smart Grid and ESS Consultants
· Energy Policy Makers and Regulators
· Power System Analysts
· Electrical Contractors and EPC Firms
· Battery Technology Specialists
· Microgrid Designers and Developers
· Environmental and Energy Sustainability Officers
Course Outline
Module 1: Introduction to Energy Storage Systems (ESS)
1. ESS classification and technologies
2. Role of ESS in modern grids
3. Trends in global ESS deployment
4. Benefits and challenges
5. Case Study: ESS adoption in California
Module 2: Battery Energy Storage Technologies
1. Li-ion batteries: types and specs
2. Lead-acid and flow batteries
3. Solid-state and emerging chemistries
4. Charging/discharging cycles
5. Case Study: Tesla Powerpack deployment
Module 3: Grid Integration of Energy Storage
1. Interconnection requirements
2. Power conversion systems (PCS)
3. Grid codes and regulatory frameworks
4. Impact on grid frequency and voltage
5. Case Study: Grid-tied ESS in Germany
Module 4: ESS Sizing and Configuration
1. Power vs. energy requirements
2. Load profiles and peak demand analysis
3. Sizing software and tools
4. Duration and depth of discharge
5. Case Study: Utility-scale BESS sizing in Australia
Module 5: Energy Management Systems (EMS)
1. EMS architecture and functions
2. Forecasting algorithms
3. ESS dispatch strategies
4. State of charge (SoC) and control
5. Case Study: EMS-enabled energy storage for peak shaving
Module 6: Renewable Integration with ESS
1. Solar + storage hybrid systems
2. Wind smoothing with ESS
3. Curtailment mitigation
4. Renewable firming
5. Case Study: Island microgrid with PV + BESS
Module 7: Power Electronics in Energy Storage
1.