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Benefits, Challenges of Two Microgrid Case Studies (Summary of CEATI Report: Integration and Coordination of Energy Storage Within Microgrids—Part 2 of 3)

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Benefits, Challenges of Two Microgrid Case Studies (Summary of CEATI Report: Integration and Coordination of Energy Storage Within Microgrids—Part 2 of 3) Business & Technology Surveillance Microgrids with Energy Storage: Benefits, Challenges of Two Microgrid Case Studies (Summary of CEATI report: Integration and Coordination of Energy Storage within Microgrids—Part 2 of 3) By Alice Clamp SEPTEMBER 2020 Business & Technology Surveillance Microgrids with Energy Storage: Benefits, Challenges of Two Microgrid Case Studies (Summary of CEATI report: Integration and Coordination of Energy Storage within Microgrids—Part 2 of 3) By Alice Clamp SEPTEMBER 2020 SUBJECT MATTER EXPERT ON THIS TOPIC Dan Walsh Senior Power Supply & Generation Director [email protected] Jan Ahlen Director, Energy Solutions [email protected] This article is a product of the Generation, Environment, and Carbon Work Group ARTICLE SNAPSHOT WHAT HAS CHANGED IN THE INDUSTRY? Microgrids have the potential to help utilities and their customers by mitigating long-term outages from extreme weather events, providing grid services, and improving reliability. Improved performance and decreasing costs for distributed energy technologies have resulted in increased microgrid deployments, many of which are beginning to incorporate energy storage. WHAT IS THE IMPACT ON ELECTRIC COOPERATIVES? The processes and considerations for enabling resilient microgrids lack a list of best practices that can guide their practical implementation, particularly in reference to developing energy storage technologies. WHAT DO COOPERATIVES NEED TO KNOW/DO ABOUT IT? Rural electric cooperatives, as well as end-users and developers, need to understand how microgrids with energy storage are currently being used and how they may be most effectively used in the future. By learning how energy storage can be used in different microgrid applications, cooperatives can better plan current and future uses. They will also understand how communication between the battery management system and the power conversion system is critical in efficient operation of the battery, and in turn, overall microgrid operation. Cooperatives should also learn about best practices that can be applied to all microgrids that incorporate energy storage. Microgrids with Energy Storage: Benefits, Challenges of Two Microgrid Case Studies | 3 Introduction Task 3: Case Studies for Microgrids have the potential to help utilities Microgrids with Energy Storage and their customers by mitigating long-du- For this task, different microgrids with energy ration outages from extreme weather events, storage were analyzed in order to: providing grid services and improving reli- • Summarize how energy storage technol- ability. Improved performance and decreasing ogies had been implemented within each costs for distributed energy technologies have microgrid resulted in increased microgrid deployments, many of which are beginning to incorporate • Review the primary drivers and motiva- energy storage. tions for developing the microgrid and incorporating energy storage However, the processes and considerations for enabling resilient microgrids lack a list of best • Highlight key design and operational fea- practices that can guide their practical imple- tures, including energy storage integration mentation, particularly in reference to devel- • Review microgrid ownership structures oping energy storage technologies. and financing details This series of three Surveillance articles eval- • Summarize the project benefits, challenges uates how energy storage is currently being and potential best practices for incorporat- used in microgrids and develops best practices ing energy storage in each microgrid. for integrating energy storage technologies. CASE STUDY 1: UNIVERSITY OF The articles are based on a report—Integra- CALIFORNIA, SAN DIEGO tion and Coordination of Energy Storage within Background Microgrids—that is the result of a collaboration The University of California, San Diego (UCSD) between utilities, CEATI’s Strategic Options is a public research institution and campus for Integrating Emerging Technologies and community of more than 45,000 people. The Distribution Energy Interest Group, and ICF (a UCSD microgrid serves students, faculty and consulting and technology services firm). guests with resilient on-site power across 1,200 acres and 16 million square feet of building The work—and the findings—are divided into space, producing approximately 47 MW of four tasks: peak capacity on an annual basis. • Task 1: Research and analyze current energy storage and microgrid operational Project Drivers and Motivations structures There are several key factors that prompted the original formation of the UCSD microgrid, • Task 2: Conduct surveys of stakeholders as well as its many additions in recent years. involved in integrating energy storage The primary drivers and motivations for the systems with microgrids UCSD microgrid include: • Task 3: Develop case studies based on • Improving power quality and reliability stakeholder experiences with energy for all campus operations and, in turn, storage and microgrid integration increasing the survivability and safety of • Task 4: Identify best practices for the all critical operations integration and coordination of energy • Providing a means of self-sufficiency storage with microgrids. through on-site generation, and balancing The first article discussed Tasks 1 and 2. This campus energy supply and demand more efficiently by incorporating a variety of article, the second in the series, discusses two energy and storage resources of the four use cases from Task 3. The third article will discuss the other two use cases, • Providing time-based energy cost savings and provide best practices for implementing for the UCSD campus compared with grid energy storage within microgrids. power < PREVIOUS VIEW > FOR NRECA VOTING MEMBERS ONLY Microgrids with Energy Storage: Benefits, Challenges of Two Microgrid Case Studies | 4 • Reducing the overall greenhouse gas emis- to minimize the potential effects of power sions of the campus through renewable disruptions. energy integration and use of a biogas- • Resistive load bank on fuel cell: The fuel fueled fuel cell generator cell requires roughly eight hours to restart • Promoting campus research and collabora- if it goes offline. In the event of a power tion through the ongoing integration and outage, the resistive load bank helps the testing of new technologies. fuel cell restart quickly by apportioning electrical output from the fuel cell and Microgrid Equipment and Technologies allowing a quick transition once grid The UCSD microgrid currently produces 92% power is restored. of the entire campus’ energy needs, with the • Automatic substation control system: remaining 8% coming from the California An automatic substation control system Independent System Operator (ISO), delivered through a San Diego Gas and Electric sub- allows the campus cogeneration plant to station. The energy generation technologies, operate independently during an interrup- controls systems, and other resources included tion or loss of San Diego Gas and Electric in the microgrid—together with a simple grid-supplied power. schematic of the UCSD microgrid—are • Paralleling emergency automatic trans- shown in Appendix A. fer switches: If the campus experiences an interruption of power, the paralleling Microgrid Design and Operation automatic transfer switches enable select Key Operational Features campus emergency generators to work The UCSD microgrid is a complex and evolv- in parallel with either the utility grid or ing mix of resources and technologies that microgrid. provide a number of services to the UCSD Energy Storage Integration and campus. These resources and technologies have Deployment specific design features and characteristics that allow them to function within the microgrid. The energy storage systems that provide A number of key features for resources and the direct service to the campus microgrid are microgrid as a whole include: the thermal energy storage system and the advanced energy storage system (92.5 MW • Utility grid connection: The campus is battery). The most important function of these connected to the California ISO by a single systems is to control and constantly balance 69 kV substation. campus supply and demand. They act as a • Microgrid control: The Central Utilities shock-absorber to provide flexibility to the Plant control room manages the campus’ UCSD microgrid, allowing UCSD to charge evolving microgrid, with real-time energy the systems off-peak with onsite generation, monitoring that ensures that the energy and use the stored energy on-peak when systems work in tandem with the utility utility prices are the highest. grid and efficiently integrate all distributed energy resources. In addition to the battery storage system, the thermal energy storage system (39,000 • Bypass stacks at the cogeneration plant: ton-hours of chilled water) is cooled at night steam bypass stacks enable rapid starting during off-peak hours when electricity rates of the central utility plant turbines, if a are lower, providing arbitrage opportunities power interruption occurs. for UCSD and also minimizing the use of • PMU monitoring system: Phasor Mea- electric-driven chillers. These key functions surement Units (PMU) or synchrophasors of the storage systems are made possible with monitor the utility grid feed and notify the advanced control systems and microgrid the central utilities plant of potential platform. The energy storage systems are power interruptions, giving the campus also a key factor in demand response market
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