Everyday Electric Buys Smartcar to Launch 6 GW Home VPP

Renew Home has rebranded as Everyday Electric and bought connected-vehicle platform Smartcar, launching a whole-home residential virtual power plant that the company says now coordinates more than 6 GW of flexible capacity. The move, announced on 6 October 2026, sets up a direct test of whether household devices can serve demand that US utilities currently plan to meet with gas.

A virtual power plant (VPP) is software that links thousands of home devices, such as thermostats, batteries and electric vehicles, so a utility can dial their electricity use down or draw power from them when the grid is under strain.

The timing matters. Planned US gas capacity through 2030 has climbed 44% in eight months, from 41.8 GW in December 2025 to 60.4 GW, driven largely by data centre demand.

What did Everyday Electric actually launch, and what is still undisclosed?

The announcement bundles three moves into one strategy:

• The rebrand: Renew Home, which describes itself as the largest residential VPP operator in the US, is now Everyday Electric.
• Whole-home scope: The new “Everyday VPP” extends beyond smart thermostats to coordinate HVAC systems, EVs, chargers, storage and solar through manufacturer partnerships.
• The Smartcar deal: The acquisition brings vehicle connectivity in-house, which gives the company direct control over managed charging in utility programmes.

The base is already large. The company manages more than 8 million smart thermostats. In a late 2024 interview, CEO Ben Brown said company data shows those thermostat owners are over three times as likely as the general public to buy an EV, which makes Smartcar a logical next step.

The commercial hook is the pricing model. Utilities pay for delivered performance, with no platform or marketing fees, and the company measures results using advanced metering infrastructure (AMI), meaning the smart meters that record household usage at short intervals. Brown has set a goal of $5 billion in customer savings over five years.

The CEO’s case According to Ben Brown, utilities and grid operators increasingly treat modern VPPs as high-quality capacity that avoids the single-point-of-failure risk of a centralised power station.

What the company has not disclosed

The price and terms of the Smartcar acquisition remain undisclosed. So does a named list of utility partners.

Both gaps matter. Pay-for-performance shifts delivery risk from the utility onto Everyday Electric, so you cannot independently test the 6 GW claim, or the economics behind it, until those contracts become visible.

How big is 6 GW next to 60 GW of planned gas?

On paper, the numbers look comparable. Everyday Electric’s 6 GW is roughly a tenth of the gas pipeline, and its June partnership with Tesla and Sunrun targets nearly 17 GW across HVAC and home batteries.

The Department of Energy’s (DOE) 2023 estimate sets the ceiling case: up to 160 GW of VPPs by 2030, saving about $10 billion a year. No updated federal estimate has been published since. Rewiring America separately estimates more than 100 GW of grid capacity could be freed by 2029.

The gas surge Planned gas capacity rose 44% in eight months, according to Environment America and Frontier Group.

Then the comparison starts to wobble. The 60.4 GW gas figure likely reflects nameplate capacity, the maximum a plant is rated to produce. VPP capacity is flexible, non-firm and often derated by grid planners, meaning they count it at less than its stated size.

Even the demand forecasts disagree: Rewiring America cites more than 100 GW by 2030, while a Boston Globe report citing the same group gives 60-100 GW by the early 2030s. For you, the takeaway is that a megawatt-for-megawatt reading overstates how directly VPPs can replace gas.

The gas build-out is being justified largely by AI data center energy demand, and the scale of that load, not the supply response, is the variable that determines whether VPPs or new plants look like the better answer.

Who is arguing VPPs can displace new gas, and where is the evidence thin?

The case for displacement

The strongest commercial evidence comes from Google and Voltus, which signed a three-year, 100 MW VPP deal in PJM, the grid operator covering much of the US East and Midwest. It aggregates batteries, thermostats, solar, EVs and backup generators instead of building new plants.

Aggregated VPP platforms are also emerging outside the US, with a Lithuanian startup recently wiring together batteries, solar and wind assets to bid into European markets, suggesting the model is being tested well beyond American utilities.

PG&E, Rewiring America and Google are also backing a utility-led VPP in California. Rewiring America wants data centre operators to fund home upgrades, while Environment America warns that long-lived gas plants risk locking in emissions.

Speed is the core argument. VPPs use devices already in homes, avoiding the multi-year permitting, interconnection queues and procurement that gas faces, and one portfolio can earn capacity, energy and grid services revenue. Device adoption helps: 46% of new residential solar systems included storage in Q2 2026, up from 41% a year earlier, per the American Clean Power Association.

Where the evidence is thin

Yet Google’s 100 MW is small against gigawatt claims. The main risks:

• Measurement: Weak baselines can overstate delivered capacity.
• Extreme events: Customers may override controls during multi-day heatwaves or cold snaps.
• Definitional inflation: Theoretical HVAC cuts can be counted at face value.
• Utility incentives: Regulation rewards utilities for building rate-based assets such as gas plants.

No 2024-2026 performance data was found for Sunrun CalReady, Tesla, Octopus or Base Power programmes, and current gas turbine cost and lead-time data was also unavailable. For now, VPPs look most credible as a complement for peak demand, and proven delivery in an extreme event is the milestone that would shift that view.

What should energy investors watch as AI load growth tests both models?

Whether gas lock-in or VPP scaling looks smarter depends on how durable load growth proves. Rewiring America and Environment America treat it as long-term, while some pre-2024 commentary attributed part of the tightness to interest-rate and supply-chain cycles.

Whether load growth proves durable matters because AI-driven infrastructure strain affects grid planning, generation procurement and transmission investment at once, which is why the lock-in versus flexibility debate carries such high stakes.

The Smartcar deal cuts both ways. Vertical integration strengthens capability, but it also concentrates control of a category of household devices in fewer hands.

Brown’s framing Ben Brown has cast the choice as one between a high-carbon, high-cost future and resources that lower costs for all ratepayers.

The signals that matter most, in priority order:

1. Named utility contracts from Everyday Electric.
2. Tested versus merely contracted capacity.
3. Smartcar deal terms.
4. Any post-2023 federal VPP estimate.

Parks Associates expects annual smart thermostat sales of 8.1 million units by 2030, so the device base should keep growing. Contracts and verified delivery data will tell you whether that base becomes a durable business or remains a rebrand.

What the launch settles, and what it leaves open

Everyday Electric now has scale and a performance-based commercial model. Whether it can substitute for 60.4 GW of planned gas depends on proof of firm delivery, and the distinction that matters most is contracted, tested capacity versus theoretical potential.

The next utility disclosures will show which side of that line the 6 GW claim sits on.

This article is for informational purposes only and should not be considered financial advice. Investors should conduct their own research and consult with financial professionals before making investment decisions. Forward-looking statements are speculative and subject to change based on market developments and company performance.