GM’s Surprising Pivot: From Automaker to Energy Infrastructure Innovator

In a bold move that underscores the fluidity of industry lines in today’s tech-driven economy, General Motors (GM) has entered the energy sector by repurposing electric vehicle (EV) batteries to power AI data centers. Partnering with Redwood Materials — an energy storage startup founded by Tesla cofounder JB Straubel — GM is challenging traditional notions of what a carmaker can be, positioning itself at the nexus of transportation electrification, grid sustainability, and artificial intelligence growth.

Rising Energy Demands Driven by Artificial Intelligence

The artificial intelligence (AI) boom has supercharged global demand for electricity. According to an April 2025 report by the International Energy Agency (IEA), data center electricity consumption could more than double worldwide by 2030, due in large part to the explosion of generative AI technologies, cloud computing, and machine learning applications. In the United States, data centers accounted for roughly 4% of total electricity consumption in 2024, a figure that’s projected to approach 8% by the end of the decade, according to the U.S. Department of Energy.

Power-hungry AI data centers typically require uninterrupted energy supplies. Any grid instability or blackouts can disrupt services and risk billions in lost productivity. As utilities scramble to keep up, energy storage solutions are becoming essential for both grid resilience and reliable AI operation.

Second-Life Batteries: Transforming Retired Assets into Power Solutions

GM’s innovative collaboration with Redwood Materials harnesses both new and used (second-life) EV battery packs, giving retired car batteries a productive afterlife as energy storage units. Unlike batteries discarded into landfills, repurposed packs serve as large-scale grid batteries, smoothing out fluctuating electricity supply, storing excess renewable energy, and meeting the surging needs of hyperscale data centers.

Redwood Materials has rapidly grown into a pivotal player in battery recycling and energy storage, recently launching its dedicated grid solutions division, Redwood Energy. Their Nevada-based facility now hosts the world’s largest second-life EV battery installation, powered mainly by GM EV batteries. This microgrid supports Crusoe, an emerging tech company specializing in sustainable, AI-focused data centers, offering scalable clean energy infrastructure that sidesteps the limitations of traditional fossil-fuel backup systems.

Why Automakers Are Turning to the Power Grid

The movement of GM and other automakers into energy storage highlights a growing trend: as the world electrifies transportation and supply chains face geopolitical pressures, companies are seeking to maximize the lifecycle value of every asset. By reimagining the role of their battery technology, GM can simultaneously tackle environmental stewardship, domestic manufacturing resilience, and the growing needs of the AI economy.

“The market for grid-scale batteries and backup power isn’t just expanding; it’s becoming essential infrastructure. Electricity demand is climbing, and it’s only going to accelerate. To meet that challenge, the US needs energy storage solutions that can be deployed quickly, economically, and made right here at home. GM batteries can play an integral role.”

– Kurt Kelty, Vice President of Battery, Propulsion, and Sustainability at GM

With the US government prioritizing domestic energy production and clean technology via incentives and legislative action, such as the Inflation Reduction Act, GM and Redwood’s initiative aligns well with federal and state sustainability goals.

A Model for Industrial Circularity and Resource Resilience

The reuse and recycling of EV batteries have become a critical frontier in the race for resource resilience. Lithium, nickel, cobalt, and other minerals used in battery chemistry are increasingly at the center of global trade disputes and price volatility. GM’s partnership with Redwood Materials ensures as much of this valuable material as possible is recovered and reused, keeping the domestic supply chain robust while reducing both electronic waste and the environmental impact of raw material mining.

Deploying second-life batteries for stationary storage offers several environmental and economic benefits:

• Reduced landfill waste: Batteries are shifted from landfills into productive service.
• Stabilization of electricity grids: Acting as grid-scale buffers to smooth peaks in energy demand.
• Lower carbon footprint: Advancing clean energy usage for critical infrastructure.
• Manufacturing stimulus: Supporting US battery innovation and job growth.

The Road Ahead: From EVs to AI Infrastructure

GM and Redwood have signaled that additional details on scaled deployments and new technology announcements are expected later in 2025, as the market for energy storage and AI infrastructure remains in the spotlight. This is just the latest move by an automotive giant to diversify revenue streams, manage supply chain risk, and capture new value from the transition to electrification, AI, and green energy.

Market analysts predict that the global battery energy storage system market will surpass $40 billion by 2030, as adoption accelerates across sectors like renewable energy, grid balancing, and technology infrastructure. For GM, this transformative partnership could boost both financial performance and industry influence, solidifying its identity as not only a vehicle manufacturer but as a key player in the energy transition and AI revolution.

Conclusion: An Unlikely Power Player in the AI Era

As the line between industries continues to blur, GM’s leap into AI energy storage epitomizes the kind of out-of-the-box innovation demanded by our rapidly changing world. By connecting the dots between EVs, sustainability, and AI, GM and Redwood Materials are charting a course that could define the next generation of American manufacturing and technology leadership.

The evolution from carmaker to energy provider represents not just a surprising corporate pivot, but a necessary step toward a resilient, sustainable, and AI-ready electric future.