Agenda |
Time to Power is a code phrase for the new competition for power and lack of interconnection approvals. As utilities are challenged by major storms + growth of the data center space + the growth of LD and HD EV, new and expanding commercial and industrial facilities cannot get the power they need. This adds uncertainty for their business and is helping to push them toward Microgrids.
Key Takeaways:
This session will provide a briefing on state legislative and regulatory activities in key western states, including discussion on recent advancements & opportunities to deliver greater community impact.
Complete decarbonization is not possible without battery storage at scale. Given the forecasts of more than 100 GWs of battery storage installations by 2030 to support the grid integration of unprecedented amount of renewable (solar and wind) generation, it is clear that batteries will play a big role in this transition. Likewise, U.S. microgrid installed capacity has reached more than 10 GWs and is forecasted to exceed $10B in investment by 2030. Battery storage and microgrids are in at an interesting juncture in time given the attractive cost curves related to batteries and microgrid components, delays in large scale transmission projects, more stringent power quality requirements (e.g. data centers, chip manufacturing), and other factors.
In light of these synergies and industry drivers, will battery storage and microgrids hit an inflection point and experience significant growth? Will microgrids, like batteries currently, provide grid functions? How will microgrid/battery services get monetized, and how is the business model evolving? This panel session will explore these and related questions during this in-depth discussion.
Erin Redding, Program Manager at BoxPower, leads the company's Design Studies Program, overseeing early-stage microgrid designs, feasibility assessments, and cost estimation. In this session, Erin will discuss the challenges posed by aging infrastructure, with over 60% of U.S. distribution lines past their life expectancy, and how Remote Grid Standalone Power Systems offer a cost-effective alternative to traditional grid upgrades, such as undergrounding, which can cost up to $5 million per mile.
Erin will highlight how remote grids serve as utility-owned distribution assets that improve energy reliability, resilience, and decarbonization in wildfire-prone and rural areas. She'll present case studies demonstrating the evolution of remote grids in various use cases, such as telecom and grid-connected microgrids, Additionally, Erin will share insights from feasibility studies, key indicators of success, and broader lessons learned from deploying remote grids at scale.
Key Takeaways:
My talk explores the future of our energy grid, focusing on scalable and easily deployable microgrids for resilience and outage management. I will discuss the role of microgrids in EV charging and Vehicle-to-Grid (V2G) scenarios, along with solar PV and energy storage strategies for decarbonizing the energy mix. By integrating Distributed Energy Resources (DERs), we can minimize energy costs and optimize hybrid renewable systems for public, municipal, commercial, and military deployments. DERs enable large-scale deployment through cost-effective, resilient, and flexible solutions, addressing fluctuating demand and building extra capacity.
Key Points:
This session explores the deployment of AI-based Optimization software and hardware at a Tier 4 diesel-based microgrid at a cold storage facility participating in ERCOT's Ancillary Services, Real-Time Energy Markets, and 4CP transmission cost avoidance programs. The microgrid, designed to meet stringent emission standards, provides resilient power and optimizes energy costs and market opportunities for the site. By leveraging advanced control systems, the facility offers ancillary services such as ECRS, contributing to grid stability.
Participation in real-time energy markets allows for strategic buying and selling of electricity via export, enhancing economic efficiency. Additionally, the microgrid dispatches in 4CP events, yielding substantial transmission cost savings. Attendees will gain insights into the technical, operational, and economic benefits realized, highlighting the opportunity for program co-optimization to increase the financial viability of grid-tied microgrids, especially in ERCOT.
Key Takeaways:
This session will examine solar-driven microgrids that cover Solar Microgrids that harness behind-the-meter (BTM) solar & storage assets and Community Microgrids that harness both front-of-meter (FOM) and BTM solar & storage assets. Solar Microgrids deliver an unparalleled trifecta of economic, environmental, and resilience benefits for facilities.
The session will provide an overview of the Microgrid Incentive Program (MIP) in California and highlights from the Clean Coalition's experience across a handful of actual MIP applications, and share insights into how Solar Microgrids can accommodate facility load growth, even in areas where the grid is fully constrained -- and the electricity utility is refusing to increase the service level. i.e., how Solar Microgrids provide BTM solar & storage assets that accommodate load growth without having to change the service level from the electricity utility. Ideas for positioning for future solar-driven microgrid opportunities will also be discussed.
This session explores the critical intersection of microgrids, public funding, and sustainability, highlighting their collective role in shaping a resilient and sustainable energy future in the United States. As climate change and extreme weather events increasingly challenge traditional energy infrastructure, microgrids have emerged as a key solution for enhancing grid resilience and promoting the integration of renewable energy sources. Public funding has been pivotal in driving the development and deployment of microgrids, particularly in regions prone to severe weather, where the need for reliable, localized energy systems is most acute.
We will examine how public funding initiatives, such as the U.S. Department of Energy's Grid Modernization Initiative and the Infrastructure Investment and Jobs Act, have facilitated the growth of microgrids across different regions. We will also discuss the role of public funding in the future of microgrid deployment in the U.S., considering various scenarios and options for moving forward.
As grid stressors, like extreme weather events, aging infrastructure, and increasing energy demand become more prevalent, large energy users are embracing the microgrid for energy security and autonomy. Microgrids can also deliver energy savings and new revenue streams through participation in Virtual Power Plants (VPPs). VPP participation not only improves the reliability of the grid, but also improves the economics of microgrid investments.
Key Takeaways:
Electricity is vital for modern economic development and quality of life; however, residents of rural or developing areas often lack, or have limited access to, electricity as a public utility. Consequently, communities must consider non-municipal sources for delivering electricity when municipal sources are either not available or are cost prohibitive. This session examines the impact of an electrification project in Wind River Reservation located in Fremont County, Wyoming, USA. The proposed project is the deployment of 1,000 decentralized mini grids to generate energy for residential, commercial, and industrial purposes that match the needs, opportunities, and resources available in the area. The study predicts that this will result in a 60% increase in land access for economic development and the creation of 575 jobs.
Wind River Reservation in the USA is rural and vast, comprising 3,466 square miles. The reservation is home to 25,581 people with an employment rate of 56.5%, a median household income of $58,266, and a poverty rate of 16.0%. Located in western Wyoming, the local economic opportunities include agricultural crop production, animal husbandry, oil and gas extraction, and tourist activities. Due to the rugged nature of the region, energy solutions must be capable of continuous operation despite periodic high winds, extreme cold, and high snowfall.
Reasons for the lack of access to electricity at Wind River Reservation include the vast area, the cost of infrastructure, and the capacity of the local workforce. At approximately $8,000-13,000 per post-erected power line, this option is cost-prohibitive for the community and this fact motivates the use of off-grid stand-alone systems. Mini-grid installations yield a significant socioeconomic impact through addressing energy sovereignty and economic opportunity. For many Native American tribes, solar power is a tool that allows tribal self-determination regarding energy acquisition and use, as well as employment and entrepreneurship opportunities for all individuals including those with minimal education.
There has been a growing focus on renewables, with increasing investments across all levels, locally and nationally. UCLA has also committed to lowering its emissions by 50% by 2030 and achieving net zero emissions by 2050. With increasing enrollment and the entrained rise in housing demand, UCLA's challenge to lower its carbon footprint and its overall emissions over the next decades requires creative solutions. Our project team is piloting a PV system integrated with Battery Energy Storage System (BESS) microgrid to support student dormitories and electric bus infrastructure at UCLA's recently acquired South Bay Campus.
Through strategic integration of solar and BESS, along with advanced data analytics and AI-based predictive load monitoring, we optimize generation and consumption to project significant progress towards net zero for the campus. With the project, we aim to facilitate continued work in green infrastructure and establish UCLA's South Bay Campus as a hub for research in renewable energy.
This session discusses a lab-size microgrid under development at California Polytechnic State University (Cal Poly), which can function like an actual microgrid and is suitable for an indoor laboratory. This microgrid will contain all the necessary components and will be tested under various contingencies and load patterns without actual PV cells, wind generators, fossil-fuel synchronous generators, and other necessary devices.
The system includes:
The system is currently functional, and a Tabuchi BMS power pack with battery storage is being integrated into the microgrid. The completed system will be a physical microgrid with all the essential devices, capable of analyzing various contingencies and load patterns, including peak load shaving, load shedding, and voltage/frequency control.
The advent of 5G technology promises transformative capabilities for microgrid systems, offering enhanced connectivity, reliability, and security for critical energy infrastructure. This session delves into the nuances of implementing 5G networks within microgrid environments, examining both public and private network solutions.
Through a structured analysis, attendees will gain insights into the strategic considerations necessary for effective deployment and operation of 5G-enabled microgrids. This session will provide an initial roadmap for energy sector stakeholders, enabling informed decision-making in the deployment of 5G technology to implement microgrid operations.