
In this lecture:
Why are battery systems important?
What the course covers and does not cover
Instructor background
Why batteries are important for renewable energy sources like solar and wind.
Covers the differences between battery installations that are in front of the meter and those that are behind the meter.
An overview of energy markets and how they related to battery systems.
Provides a suggested approach to architecture for battery systems that bid into energy markets. This lesson is aimed at software engineers, so if you don't want to get into the software weeds, feel free to skip it.
Note: This assignment uses technical terms used in the software industry. If you need to understand those terms, the following lecture provides a glossary.
Explains battery systems that run behind the meter.
A suggested approach to architecture for battery systems that run behind the meter. This lesson is aimed at software engineers, so if you don't want to get into the software weeds, feel free to skip it.
Note: This assignment uses technical terms used in the software industry. If you need to understand those terms, the following assignment provides a glossary.
Covers how simulators are important in developing battery systems, and how they’re related to this series of courses.
This comprehensive introduction course provides clean energy professionals with essential knowledge for developing and implementing energy management (EMS) software solutions for utility-scale battery systems. Students will learn the critical differences between front-of-meter and behind-the-meter systems, understand energy market operations and bidding strategies, and explore proven software architectures for battery management systems. By course completion, students will have a solid understanding of how software controls battery operations, enables market participation, and maximizes economic value in utility-scale deployments.
Ideal for managers, project managers, and software engineers, this overview will provide context to the field of software for utility-scale battery systems. Architecture lessons can be skipped if you don't want to get into the software engineering "weeds".
This course does not cover BESS software that interacts directly with hardware, but rather the higher level software the determines when batteries should charge, discharge, and send bids into the energy markets.
The course includes a demonstration of using AI to create a battery simulator that you can use with your battery system software.
The course covers:
The need for software for battery systems
In front of the meter and behind the meter systems
Energy markets
Architecture for energy market bidding
Behind the meter systems
Architecture for behind the meter systems
Using Simulators
Using AI