Why Energy Storage Training Matters
Energy storage is now one of the main tools for keeping the power grid reliable. Solar and wind generation keeps growing, data center load is rising and system inertia is falling as conventional generators retire. Utilities, developers and large energy users are adding storage to firm renewable output, provide frequency response, defer grid upgrades and protect critical loads.
Many engineers come to storage from generation, transmission or facility backgrounds. Vendor presentations explain what a product can do but seldom explain how to size a system correctly, how degradation and augmentation affect lifetime cost, what interconnection standards require or how a project actually earns revenue. Mistakes made early in design and procurement can lock in poor performance and losses for 20 years.
This course focuses on the decisions that determine whether a storage project performs and pays back. Topics are taught through real project examples, not as isolated theory or product features.
Course Highlights
The course uses practical, example-based instruction drawn from real projects.
- Storage technologies compared, from lithium-ion to pumped hydro, flow batteries and long-duration storage
- BESS system design, sizing, degradation and augmentation
- Grid interconnection under IEEE 1547, IEEE 2800 and UL 1741
- Grid services, project development, procurement and storage economics
Learning Outcomes
By the end of this course, you will be able to:
- Explain how energy storage supports grid stability, frequency control and renewable energy integration
- Compare mechanical, thermal, hydrogen and electrochemical storage technologies, including long-duration energy storage
- Lay out a BESS from battery blocks and inverters through the step-up transformer to the point of interconnection
- Size a BESS for MW, MWh and reactive power, accounting for losses, auxiliary load, degradation and augmentation
- Apply IEEE 1547-2018, IEEE 2800-2022 and UL 1741 interconnection requirements
- Match storage applications to grid services and market revenue streams
- Manage the project lifecycle, including siting, permitting, procurement, EPC contracts, warranties and service agreements
- Evaluate project economics using CAPEX, OPEX, levelized cost of storage and revenue stacking
The focus is on understanding how storage projects succeed or fail, so you can make sound engineering and investment decisions instead of relying on vendor claims.
Course Approach
The course takes a practical, vendor-neutral approach. Examples come from utility-scale battery plants, solar plus storage projects, commercial and industrial systems and microgrids across North America and other major markets.
Each topic is tied to a project decision: choosing a technology, configuring the system, sizing power and energy, meeting interconnection requirements, structuring procurement and building the business case. Two case studies take you through sizing and augmentation planning for a real utility-scale project.
The course also explains how energy management systems, SCADA, interconnection studies and financial models fit into the project workflow from concept to end of life.
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