How to Design ESS that Charges from Solar PV & Compare BESS Technologies | Storlytics Energy Storage

Introduction

This tutorial provides a comprehensive guide on designing energy storage systems (ESS) that charge from solar photovoltaic (PV) sources, utilizing the Storlytics Energy Storage software. It is especially relevant for developers and energy enthusiasts interested in lithium-ion and emerging battery technologies. The guide will cover the software's modules, key use cases, and practical applications to enhance your understanding of energy storage project design.

Step 1: Understanding the Storlytics Software

• Familiarize with the Software: Visit the Storlytics website and download the software.
• Explore Key Features:
  • Modeling Capabilities: Learn how to model grid-tied battery energy storage systems.
  • User-Friendly Interface: Navigate through the interface to design, size, and optimize energy storage projects.

Step 2: Utilizing the Battery Profile Creator (BPC)

• Access the BPC Module:
  • Open the Storlytics software and select the Battery Profile Creator.
• Create Battery Profiles:
  • Input parameters such as battery type, capacity, and performance metrics.
  • Use predefined templates for common battery technologies or create custom profiles.
• Review BPC Reports:
  • Analyze the output reports to understand battery performance and reliability.

Step 3: Leveraging the Battery System Modeler (BSM)

• Navigate to the BSM Module:
  • Select the Battery System Modeler within the Storlytics interface.
• Model System Configurations:
  • Define system parameters including inverter models, power flow, and battery losses.
• Generate BSM Reports:
  • Examine reports generated by the BSM to predict degradation curves and round trip efficiency.

Step 4: Exploring Use Cases

• Identify Key Applications:
  • Clipped Energy Storage: Learn how to optimize energy storage for scenarios where power generation exceeds demand.
  • Peak Load Shaving: Understand how to use energy storage systems to reduce peak demand charges.

Step 5: Case Study Analysis

• Review Real-World Applications:
  • Study the Enervenue case featuring nickel-hydrogen batteries.
  • Analyze how the software was used to model and evaluate this technology.

Step 6: Integrating with Renewable Energy Projects

• Importing Profiles:
  • Import user-defined and benchmark energy storage profiles.
• Performance Deduction:
  • Leverage the software's capabilities to deduce actual performance for planned grid-tied and renewable energy projects.

Conclusion

This tutorial outlined the essential steps to effectively use the Storlytics Energy Storage software for designing ESS that charge from solar PV. Key steps include understanding the software's capabilities, utilizing the BPC and BSM modules, exploring practical use cases, and analyzing case studies. By mastering these techniques, you can enhance your energy storage project design and optimize performance for various applications. For further exploration, consider downloading the software and experimenting with different battery technologies and configurations.