Google and Tesla are backing a new industry coalition arguing that the electrical grid is being run for rare peaks and wasting value the rest of the time. The group, called Utilize, brings together tech buyers and energy sellers to push regulators toward policies that use existing wires and generation far more efficiently.
Alongside Google and Tesla, the founding lineup includes data center developer Verrus, HVAC maker Carrier, virtual power plant operator Renew Home, distributed energy financier Sparkfund, and smart panel startup Span. Their shared pitch is blunt: the capacity is already there, and software-driven coordination—batteries, flexible loads, and aggregated resources—can unlock it.
A Coalition Challenging Peak Planning
The coalition’s core critique is aimed at peak-centric planning. U.S. grids are built to survive a handful of extreme hours each year, leaving significant headroom idling most of the time. Analyses by the U.S. Energy Information Administration and utility consultants routinely show system load factors hovering around 50% to 60% in many regions, meaning half the system’s capacity goes underused during typical hours.
That mismatch is expensive. Studies from The Brattle Group and state regulators have found that a utility’s top 100 hours can drive a disproportionate share of annual capacity costs. Utilize’s argument is that modern controls—rather than more concrete and combustion—can shave those peaks, fill valleys, and defer costly new buildouts.
Real-World Proof From Batteries And Demand
Evidence is mounting. Texas has leaned on a fast-growing fleet of grid batteries to cover evening ramps and weather-driven volatility, with ERCOT frequently reporting batteries stepping in for multiple gigawatts during tight conditions. California’s grid operator similarly credits storage and demand response with stabilizing summer peaks that a decade ago would have triggered rolling outages.
These resources are not theoretical backups; they are operating assets. Utility filings show lithium-ion plants now dispatch daily, shifting solar oversupply at midday to evening peaks. Meanwhile, demand response programs compensate homes and businesses for briefly dialing down usage—avoiding the need to fire up seldom-used peaker plants that run only a few dozen hours per year at high cost.
Big Tech As Flexible Load On The Modern Grid
What makes Utilize notable is the marriage of supply and demand interests. On the “sell” side, Tesla markets Megapack batteries and grid software that bid storage into energy markets. Span’s smart panels let homeowners prioritize circuits in real time, turning appliances into grid assets. Carrier’s networked heat pumps can pre-heat or pre-cool, shifting load without sacrificing comfort.
On the “buy” side, Google and Verrus represent a wave of hyperscale data centers with enormous, time-shiftable computing tasks. Google has piloted carbon-aware computing that schedules non-urgent workloads for hours with abundant renewables, and it aims to run on 24/7 carbon-free energy by 2030. The International Energy Agency warns data center demand could roughly double in key markets this decade; if flexed intelligently, that growth can support the grid rather than strain it.
Virtual Power Plants Move Into Policy And Markets
Virtual power plants—software aggregations of rooftop solar, batteries, EVs, and smart devices—are the coalition’s connective tissue. The Department of Energy’s “Pathways to Commercial Liftoff” report projects VPPs could unlock on the order of 80–160 GW of flexible capacity by 2030, cutting peak costs and improving reliability. That is the scale regulators have traditionally sought from conventional plants, now achievable with distributed assets and code.
Policy is catching up, if unevenly. FERC Order 2222 requires wholesale markets to open up to aggregated distributed resources, though implementation varies across regions. Utilize cites a recent legislative win in Virginia requiring utilities to quantify and disclose grid utilization—sunlight that could make underuse harder to ignore and non-wires alternatives easier to justify.
What It Would Take To Scale Flexible Grid Capacity
The coalition is pushing for clear price signals and streamlined rules. That includes time-varying and real-time rates, faster interconnection for storage and VPPs, pay-for-performance demand response, and telemetry standards so devices can prove their value to system operators. Performance-based regulation can reward utilities for cutting peak costs and emissions, not just for building more hardware.
Reliability remains the north star. NERC continues to warn about resource adequacy during extreme weather and changing load patterns. Advocates counter that geographically diverse storage and flexible loads can respond faster than thermal peakers and provide crucial frequency support—if markets and tariffs let them participate on equal footing.
Why The Timing Matters For Smarter Use Of The Existing Grid
Electrification is accelerating, from heat pumps to EVs to AI data centers. EIA expects U.S. grid-scale battery capacity to roughly double in the near term, and utilities are incorporating flexibility into resource plans at unprecedented levels. The question is whether policy will move quickly enough to make better use of the grid we already paid for.
Utilize’s bet is that a coalition spanning device makers, aggregators, and the world’s biggest power users can change that momentum. If it succeeds, the grid gets cheaper, cleaner, and more reliable without a massive overbuild. If it fails, customers will keep paying for peaks—while the rest of the system sits idle.
