Industry Overview

Virtual Power Plant (VPP) was valued at $2.1 billion in 2025 and is projected to reach $15.7 billion by 2035, growing at a CAGR of 22.4% during the forecast period (2026–2035). The global VPP market is expanding at a fast pace owing to the integration of renewable energy, declining cost of energy storage, advancements in digital technologies, regulatory support & policy incentives and economic and environmental sustainability. A VPP is an aggregation of distributed energy resources (DERs) that are owned by individuals, companies, or organizations DERs leveraged in VPPs range in size and complexity from solar arrays and battery energy storage systems to smart thermostats.

Recent Expansions and Targets in the VPP Market

• According to the Department of Energy the US currently operates 30–60?GW of virtual power plant (VPP) capacity on the grid using commercially available technology. The country aims to expand this capacity to 80–160?GW by 2030. This growth is expected to save $10?billion annually by reducing generation buildout, deferring infrastructure investments, and limiting the operation of costly peaker plants.

• In June 2025, Tesla announced plans to expand its virtual power plant (VPP) business in Japan by providing free energy storage batteries to companies. The company will remotely manage these batteries to help balance energy supply and demand across the grid, supporting Japan’s renewable energy integration and grid stability efforts.

Market Dynamics

Government Incentives Driving VPP Market Expansion

Governments across the globle are actively accelerating VPP adoption by offering financial incentives that encourage households and businesses to connect their batteries to VPP networks. By reducing upfront battery costs and rewarding grid participation, the policy framework is creating a scalable distributed energy ecosystem. For instance, in June 2025, the NSW and Australian Governments announced an increase in incentives for households and small businesses to install solar batteries and join Virtual Power Plants connect them to Virtual Power Plants, offering up to $5,000 in total upfront support for a typical 11.5 kWh system. The Commonwealth’s $2.3 billion Cheaper Home Batteries Program reduced battery costs by about 30%, while NSW provided up to $1,500 for VPP participation from 1 July 2025. A 27 kWh battery ($30,000) received about $10,000 in federal discounts plus NSW’s VPP incentive. The scheme reduced grid demand, lowered energy bills, and supported NSW’s Net Zero transition.

AI-Enabled Energy Storage Strengthens VPP Market Value

VPP models are increasingly combining energy storage with AI-based control systems. These technologies enable faster grid response and smarter participation in electricity markets. Operational results show that AI-driven aggregation can enhance system performance and improve project economics. For instance, in April 2025, an energy storage facility located in an industrial park in Dongguan, Guangdong, responded to a frequency regulation instruction by deploying an AI-based control system. The system determined a 10 MW power allocation within 0.5 seconds, reducing the charge–discharge switching response time to approximately 20 seconds significantly faster than conventional thermal power units.

Furthermore, a distributed energy storage cluster in Shandong, operating under a “cloud energy storage” aggregation model, generated more than 1.2 million yuan in combined capacity compensation and peak–valley price arbitrage within one month. This revenue performance reduced the estimated investment payback period from seven years to approximately four years. These developments illustrate the combined impact of AI-enabled dispatch and evolving electricity market mechanisms on the operational and financial performance of energy storage systems in China.

Market Segmentation

• Based on the type, the market is segmented into Supply-side VPPs, Demand-side VPPs and Hybrid VPPs.
• Based on the component, the market is segmented into hardware, software and services.
• Based on the source / energy assets, the market is segmented into renewable generation, energy storage and cogeneration / CHP.
• Based on the end-user, the market is segmented into residential, commercial, industrial and utility.

Expanding Role of Demand?Side Virtual Power Plants Worldwide

In the global VPP market, demand?side VPPs continue to hold the largest share in type segment. Over recent years, demand-side grid support has advanced considerably with the rise of distributed energy resources and advanced technologies. Smart meters, IoT devices, and AI-driven platforms now allow real-time monitoring and control of electricity consumption. Instead of acting as passive users, households and businesses can actively adjust their demand, helping stabilize the grid while earning financial rewards.

By leveraging distributed energy resources and advanced technologies, demand?side VPPs allow consumers to actively participate in grid operations. Recent data from leading aggregators highlights the growing scale and impact of demand-side VPPs globally. For instance, CPower, a VPP aggregator, reported that from January to September 2025, its customers provided 38?GWh of grid load relief, representing a 137% increase compared to the same period in 2024 this shows “customer flexibility” (demand?side) is a scalable resource to modernize the grid. Similarly, EnergyHub, which manages distributed energy resources (DERs) and demand?side VPPs, handled over 2,000?MW of dispatchable flexibility across approximately 70 utilities in 2024. The company manages more than 1.5?million devices, demonstrating the extensive customer reach and scalability of demand?side VPPs in modern energy systems. These developments underscore the significant role of demand?side VPPs in the global energy landscape, contributing to grid reliability and the efficient integration of distributed resources.

Regional Outlook

The global virtual power plant market is further divided by region, including North America (the US and Canada), Europe (the UK, Germany, France, Italy, Spain, Russia, and the Rest of Europe), Asia-Pacific (India, China, Japan, South Korea, Australia and New Zealand, ASEAN Countries, and the Rest of Asia-Pacific), and the Rest of the World (the Middle East & Africa, and Latin America).  

North America Holds a Leading Position in the Global Virtual Power Plant Market

The growth of VPPs in North America is driven by the rapid expansion of Distributed Energy Resources (DERs), falling battery costs, rising EV adoption, and strong incentives such as the IRA. Utilities are increasingly leveraging customer-sited assets and expanding demand response and storage programs to meet peak demand and improve grid flexibility.

Growth and Impact of Virtual Power Plants in the US

• Virtual Power Plants (VPPs) across the US are scaling rapidly as utilities tap into customer-sited assets to meet rising peak demand and improve grid flexibility. States are now expanding demand response and distributed storage programs, driving significant year-over-year growth in available VPP capacity. For instance, California’s Demand-Side Grid Support Program has enrolled over 750 megawatts (MW) of customer-sited storage, a 500 MW increase from January to October 2025.

• California has 25% of all utility VPPs, 41% of VPPs with energy storage, and 61% with electric vehicles (EVs).

• In the US, utilities have procured about 74% of all VPPs, while the remaining share has been acquired by wholesale market participants, community choice aggregators (CCAs), and energy retailers.

• The US Department of Energy estimates that increasing consumer spending on EVs, rooftop solar, batteries, smart thermostats, and water heaters will create the potential for 80 to 160 gigawatts of VPP capacity across the country by 2030. That would be enough to meet 10 to 20% of the US peak grid needs and save utility customers roughly $10 billion in annual costs.

Share of VPPs by Customer Type, 2023

Source:  National Renewable Energy Laboratory

Note: Market refers to wholesale electricity market participants who procure VPP capacity directly to operate in energy markets.

Europe Remains a Key Player in the Global VPP Market

Europe holds a significant share of the VPP market driven by the growing renewable energy integration, government policies & incentives and the adoption of smart grid technologies for real-time energy management, and the integration of electric vehicle charging infrastructure.

• Europe hosts some of the largest virtual power plants, aggregating thousands of distributed energy resources to provide substantial grid capacity. These VPPs can deliver power equivalent to multiple large-scale thermal power plants, supporting major cities and enhancing grid reliability. For instance, Statkraft operates one of the largest VPP in Europe: more than 10 GW installed capacity from over 1,000 power generators are equivalent to 10 thermal power plants and could power a major city.

• The European VPP market is advancing with smart grid technologies for real-time energy management. New solutions offer fast data streaming, instant alerts, and flexible control of distributed energy resources to enhance grid stability. For instance, in October 2025, Enphase Energy announced expanded support for virtual power plants (VPPs) across Europe. Enphase products now enable advanced energy market steering smart grid features like one-minute data streaming, instant alerts for VPP events and system maintenance, and home solar curtailment to support grid constraints.

• Energy providers in Europe are starting to explore integrating electric vehicle charging infrastructure into virtual power plants. High-power DC chargers provide grid support and frequency regulation while maintaining the charging experience for EV drivers. For instance, in September 2025, FLEXECHARGE, in partnership with Recharge, launched the first-ever VPP using public high-power DC charging stations. The system allows ultra-fast chargers to provide grid flexibility and frequency regulation without affecting EV drivers.

Market Players Outlook

The major companies operating in the global virtual power plant market include Enel X S.r.l., Next Kraftwerke GmbH, Sonnen, Inc., Statkraft AS and Tesla, Inc., among others. Market players are leveraging partnerships, collaborations, mergers, and acquisition strategies for business expansion and innovative product development to maintain their market positioning.

Recent Developments

• In July 2025, AGL has bought 100% of South Australia’s social housing VPP from Tesla, giving it access to a growing network of residential solar and battery systems. The agreement includes 25 MW of solar and 7,000 Tesla Powerwall systems totaling 37 MW at social and community housing sites.

• In May 2025, NRG Energy Inc. and LS Power Equity Advisors, LLC announced that they have entered into a definitive agreement under which NRG will acquire a portfolio of natural gas generation facilities and a commercial and industrial virtual power plant (C&I VPP) platform from LS Power (the “Portfolio”) in a cash and common stock transaction valued at approximately $12.0 billion enterprise value.

• In August 2024, Budderfly announced that it has acquired a grid-edge distributed energy resource management system (DERMS) from Sunverge Energy. Using Sunverge’s technology, Budderfly can aggregate distributed energy resources (DERS) across its sites, positioning it to create virtual power plants (VPPs) capable of providing flexibility to the grid, increasing resiliency for customers and growing new revenue streams.

The Report Covers

• Market value data analysis of 2026 and forecast to 2035.
• Annualized market revenues ($ million) for each market segment.
• Country-wise analysis of major geographical regions.
• Key companies operating in the global virtual power plant market. Based on the availability of data, information related to new products and relevant news is also available in the report.
• Analysis of business strategies by identifying the key market segments positioned for strong growth in the future.
• Analysis of market-entry and market expansion strategies.
• Competitive strategies by identifying ‘who-stands-where’ in the market.