电力市场视角:在电力脱碳背景下支持一个可靠且可支付的电网(英).docx
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Electricity Market Visions TO SUPPORT A RELIABLE AND AFFORDABLE ELECTRIC GRID UNDER ELECTRICITY DECARBONIZATION March 2025 ES ENERGY SYSTEMS INTEGRATION GROUP ES ENERGY SYSTEMS INTEGRATION GROUP About ESIG The Energy Systems Integration Group is a nonprofit educational organization whose mission is to chart the future of grid transformation and energy systems integration. ESIG does this by serving as a trusted and objective convener of the engineering and technical community, providing information, education, and peer-to-peer networking to support energy systems integration and operations. More information is available at https://www.esig.energy. ESIG’s Publications Available Online This report is available at https://www.esig.energy/market- evolution-report/. All ESIG publications can be found at https://www.esig.energy/reports-briefs. Get in Touch To learn more about the topics discussed in this report or for more information about the Energy Systems Integration Group, please send an email to info@esig.energy. © 2025 Energy Systems Integration Group ENERGY SYSTEMS INTEGRATION GROUP xii ELECTRICITY MARKET VISIONS Electricity Market Visions to Support a Reliable and Affordable Electric Grid Under Electricity Decarbonization A Report by the Energy Systems Integration Group’s Electricity Markets Under 100% Clean Electricity Task Force Writing Team Erik Ela, Energy Systems Integration Group, EPRI Robin Hytowitz, Task Force Chair Ryan Schoppe, EPRI Rob Gramlich, Grid Strategies Kelli Joseph, University of Pennsylvania Jacob Mays, Cornell University Debra Lew, Energy Systems Integration Group Task Force Members Manoj Kumar Agrawal, Grid Controller of India Limited Mohit Agrawal, NextEra Energy Farhad Billimoria, Aurora Energy Research Frank Berring, SMA America Aaron Burdick, Energy and Environmental Economics (E3) Scott Burger, Form Energy Conleigh Byers, Harvard University Juan Pablo Carvallo, Lawrence Berkeley National Laboratory Yonghong Chen, National Renewable Energy Laboratory Patrick Danner, New York Power Authority William D’haeseleer, KU Leuven Research and Development Joshua Dillon, Pine Gate Renewables Mark Drummond, Independent Electricity System Operator Pengwei Du, Electric Reliability Council of Texas Will Frazier, encoord Bethany Frew, National Renewable Energy Laboratory Michael Goggin, Grid Strategies Jim Gonzalez, Southwest Power Pool Jessica Greenberg, Enel Green Power Karl Hausker, World Resources Institute Samantha Hoffman, TransAlta Hannele Holttinen, Recognis Oy Jon Jensen, Western Electricity Coordinating Council Vijitha Kandamkumarath, Grid Controller of India Limited Lynn Kiesling, Northwestern University Bheshaj Krishnappa, Solar Energy Industries Association Daniele Lerede, Open Energy Transition Todd Levin, Argonne National Laboratory Eli Massey, Midcontinent Independent System Operator Jacob Mays, Cornell University Mariano Mezzatesta, Bonneville Power Administration Michael Milligan, Milligan Grid Solutions, Inc. David Mindham, EDP Renewables Zachary Ming, Energy and Environmental Economics (E3) Francisco Muñoz, Generadoras de Chile Pramila Nirbhavane, New York Independent System Operator Kazuhiko Ogimoto, University of Tokyo Arne Olson, Energy and Environmental Economics (E3) Glenda Oskar, U.S. Department of Energy Karen Palmer, Resources for the Future Michele Pastor, Enernex Cody Phillips, ConnectGen Kevin Porter, Exeter Associates Pramod Kumar Prajapati, Grid Controller of India Limited Molly Robertson, Resources for the Future Hammad Saleem, Independent Electricity System Operator Michael Schowalter, Fresh Energy Brian Sergi, National Renewable Energy Laboratory Paul Sotkiewicz, E-Cubed Policy Associates Sylvie Spewak, California Independent System Operator Elina Spyrou, Imperial College London Gord Stephen, National Renewable Energy Laboratory Muthu Subramanian, Independent System Operator for New England Michael Tita, Federal Energy Regulatory Commission Karin Wadsack, National Renewable Energy Laboratory This report was developed based upon funding from the Alliance for Sustainable Energy, LLC, Managing and Operating Contractor for the National Renewable Energy Laboratory for the U.S. Department of Energy. Suggested Citation Energy Systems Integration Group. 2025. Electricity Market Visions to Support a Reliable and Affordable Electric Grid Under Electricity Decarbonization. Reston, VA. https://www.esig.energy/ market-evolution-report/. Disclaimer This report was produced by a task force made up of diverse members with diverse viewpoints and levels of participation. Specific statements may not necessarily represent a consensus among all participants or the views of participants’ employers. Contents vii Executive Summary 1 Introduction 2 Electricity Markets Under Deep Decarbonization: Literature Review and Task Force Workshops 2 Four Key Principles for Electricity Markets’ Objectives, Today and in the Future 3 A Shared View of a Beneficial Design of Future Electricity Markets 5 Assumptions About and Characteristics of 100% Clean Electricity Systems and Their Implications 5 The Resource Mix: Pathways to Meet 100% Clean Electricity 10 Transmission and Other Infrastructure 12 Reliability on a System with High Levels of Weather-Dependent, Variable, Uncertain, and Inverter-Based Resources 13 Wholesale Energy Prices and Price Formation with Zero-Fuel-Cost Resources 14 Incorporating Clean Energy Policies as an Externality Within the Wholesale Markets 15 A Vision for Market Design and Market Structure in Future Systems with 100% Clean Electricity 15 The Vision 17 The Continuation of Present Market Structures 20 The Continuation of Short-Term Energy and Grid Services Spot Markets 29 Hybrid Market Approaches to Ensuring Resource Adequacy, Risk Mitigation, and Investment Certainty 33 Markets Should Not Subsidize Clean Electricity Resources but Can Facilitate Outside Policy Instruments That Provide Incentives and Subsidies to Clean Electricity Resources 34 Summary of Possible Future Market Designs Including Alternative Proposals 35 Possible Next Steps for Realization of the Market Design Vision 35 Potential Actions 36 Identifying Metrics to Evaluate Future Market Designs 38 Looking Forward 38 Summary of the Market Design Vision 40 Evolution, Not Revolution 40 A Need for Global Collaboration 41 References P H OTO S Cover: © iStockphoto/Galeanu Mihai p. vii: © iStockphoto/Nigel Harris p. x: © iStockphoto/zhengzaishuru p. 1: © iStockphoto/UniqueMotionGraphics p. 2: © iStockphoto/Vadim_Key p. 4: © iStockphoto/KE ZHUANG p. 5: © iStockphoto/Antonio Correa d’Almeida p. 6: © iStockphoto/KE ZHUANG p. 8: © iStockphoto/Stilo_studio p. 10: © iStockphoto/Urban78 p. 12: © iStockphoto/vovashevchuk p. 13: © iStockphoto/Laurence Dutton p. 15: © iStockphoto/KE ZHUANG p. 17: © iStockphoto/Galeanu Mihai p. 20: © iStockphoto/Thales Antonio p. 28: © iStockphoto/PhonlamaiPhoto p. 30: © iStockphoto/gremlin p. 32: © iStockphoto/MonaMakela p. 35: © iStockphoto/damircudic p. 37: © iStockphoto/NicoElNino A s the electricity grid continues to evolve and the mix of electricity suppliers moves toward one where there are clean, emissions-free suppliers, opportunities and challenges arise. With these changes, organized electricity markets can play a key role in the future in achieving a system that maintains the goals of affordability and reliability and fosters further innova- tion. The Energy Systems Integration Group convened the Electricity Markets Under 100% Clean Electricity Task Force to evaluate the potential design of electricity The electricity market can achieve many goals, but it cannot do everything. In some cases the incentives that are built into the market design can be changed by designers or regulators based on what the challenges are and where solutions are needed. We focus on four key principles for what a market needs to do today and in the future (Figure ES-2, p. ix): (1) to enable innovation such that market designs are not fixed to the current set of technologies but rather show the right signals to improve upon the existing technology when cost- effective, (2) to incentivize investment decisions (entry Executive Summary Organized electricity markets can play a key role in the future in achieving a system that maintains the goals of affordability and reliability and fosters further innovation. markets under a system in which all electricity is supplied from clean, zero-emitting supply resources. Task force participants included experts from inde- pendent system operators and regional transmission organizations, expert practitioners, developers, and other key stakeholder groups. The primary goal was to determine what kind of design will be beneficial to society while also considering future structures, institutions, and policies. It was a collaborative effort to describe a coherent vision of how a future electricity market can provide efficient signals such that meeting electricity demand with all zero-emitting clean energy resources leads to a reliable and affordable system that is fair and equitable. This report presents a collective vision regarding particular goals and core fundamentals as well as highlights areas still under active debate. Figure ES-1 (p. viii) shows six key categories that need consideration for future markets. and exit) when they are needed to meet reliability needs and maximize efficiency, (3) to allow for hedging from suppliers and consumers alike when uncertainty or vari- ability can increase risk, and (4) to provide an incentive for the existing participants in the market to operate in a way to maximize efficiency and to contribute to reliability. FIG URE E S- 1 Categories of Change for Future Market Design Vision Transmission and other infrastructure Incentives and policies to achieve the necessary cost-effective infrastructure Demand participation Promoting demand-side support through prices and grid signals Price formation In the short term, how prices are formed and align with operational decisions Electricity Market Components Operational reliability services Incentives for resources to provide the short-term operational grid services Clean energy incentives How to incentivize the efficient transition to clean energy resources Resource adequacy and investment Efficient entry and exit that leads to an adequate supply system Several categories were discussed as part of the workshops and task force discussion that need consideration when sharing the future market design vision. These included price formation, clean energy incentives, resource adequacy and investment, operational reliability services, demand participation, and transmission and other infrastructure. Source: Energy Systems Integration Group. All four principles were kept in mind for any future market design proposal and were leveraged throughout the report. Keeping all four principles in mind for any future market design proposal is key and leveraged throughout the report. To develop the future market design vision, several assumptions were made about the power system and its associated characteristics. No time frame or specific mix was laid out, as regions will vary in this regard. But it was assumed that this future system would contain substantial amounts of variable renewable energy such as wind and solar, with a substantial amount of energy storage resources. It may be likely that these technologies are built primarily at the transmission scale, where large- scale transmission expansion and innovative transmission technologies allow for delivery of their energy to load centers. But the technologies could also have a greater presence on the distribution network as distributed energy resources, thereby potentially lessening the transmission need. It was also assumed that a reasonable amount of capacity that is zero-emitting but also with firm and long-duration availability would be present to maintain reliability during critical time periods. The FIG URE E S-2 Four Key Principles That Markets Aim to Accomplish Innovate Invest Hedge Operate Is there a means for new technologies to enter and compete? If a new resource or capital project is efficient and competitive, is there an incentive for an investor to install? If efficiency causes uncertainty, can participants hedge against it? Is there incentive to operate the facility in the most efficient and reliable manner possible? Successful markets must incentivize innovation, investment in capital, hedging against risk, and behavior to operate in ways that lead to reliable and economically efficient outcomes. Source: Energy Systems Integration Group. amount of this type of resource will depend in part on how much of the demand is responsive to prices and grid needs. Certain challenges exist in today’s systems but are amplified on a system with this make-up of resources. This system leads to challenges to reliability and resource adequacy, and affects the distribution of the resulting wholesale prices. Depending on the system’s make-up, there could be additional challenges of building sufficient infrastructure or meeting the control and visibility necessary for reliability. It is also confronted with the lack of direct competitive clean energy incentives within the market to naturally bring clean energy resources to the mix. Given these assumptions and challenges, the task force looked at market designs that could enable an affordable and reliable system as society transitions to that future. The report shares details of future electricity markets dis- cussed by the task force. It considers the many proposals and reviews in the literature and provides a shared—but not consensus—vision of future markets with a focus on the six components in Figure ES-1. The fundamentals of the future market vision described in the report generally were agreed on by many task force participants, although alternative paths were also proposed and supported by the group. For example, some participants recommended substantial coordination between policymakers and grid planners as a way to achieve resource adequacy with a feasible resource mix and infrastructure investments in place. Elements of the Market Design Vision While market structure—the make-up of the market and the responsibilities of different entities— is important, the task force primarily focused on the market design for its vision. The following展开阅读全文
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电力市场视角:在电力脱碳背景下支持一个可靠且可支付的电网(英).docx



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