Executive Overview
As the global transition toward vehicle electrification accelerates at a breakneck pace, a secondary crisis is quietly unfolding in the shadows of the clean energy revolution. Last year alone, the world deployed 1.2 terawatt-hours of electric vehicle (EV) battery capacity, according to data from the International Energy Agency (IEA). While EVs continue to dominate global battery deployment, stationary energy storage has emerged as the fastest-growing power technology on the planet.
Yet, this rapid growth comes with a heavy environmental footprint. Producing raw lithium-ion batteries is a deeply resource-intensive endeavor, requiring the mining and processing of critical minerals, complex manufacturing chains, and extensive transoceanic shipping. Furthermore, when an EV reaches the end of its useful automotive life, as much as 80% of its original battery capacity remains viable.
Historically, these retired packs face a grim logistical reality: recycling is an expensive, energy-heavy undertaking, and the vast majority of global recycling capacity is concentrated in China. Consequently, North American battery materials must frequently be shipped back across the Pacific just to be stripped of their residual metals—a supply chain vulnerability that has recently caught the attention of geopolitical policymakers.
Enter Moment Energy, a pioneering clean-tech startup that is transforming this looming waste stream into a strategic asset. By giving retired EV batteries a "second life" as commercial and industrial-grade energy storage systems, Moment is bridging the critical gap between initial automotive use and eventual recycling. Armed with proprietary artificial intelligence (AI), safety certifications from independent evaluator UL, and newly opened production hubs in Canada and the United States, Moment is positioning itself at the vanguard of the circular economy.
Despite operating as a relatively small player in a market flooded with inexpensive new imports from Asia, the company’s recent scaling milestones—highlighted by the opening of its Vancouver "Megafactory 1" and ongoing expansion into Texas—signal that second-life batteries are moving from an experimental garage concept to a commercial force to be reckoned with.
Detailed Chronology: From a Vancouver Garage to Megafactory Scaling
The origins of Moment Energy are rooted in crisis and opportunism. In 2018, two destructive tornadoes tore through parts of Ottawa, Ontario, taking critical infrastructure, hospitals, and cellular towers offline. For the company’s future CEO, the disaster provided a baptism by fire, marking his first encounter with a full-scale, prolonged power outage.
That vulnerability planted a seed. Observing the fragility of regional grid networks during extreme weather events, a tight-knit foursome of innovators sensed an urgent market opportunity. They recognized that while grid reliability was declining, thousands of retired electric vehicles were quietly idling on the horizon, their batteries still packed with immense energetic potential.
In 2019—coincidentally the exact year the International Energy Agency projected that global battery storage capacity would balloon 40 times by 2040—the team began disassembling Nissan Leaf batteries in a makeshift garage in British Columbia. Their objective was simple yet ambitious: repackage these discarded automotive packs to deliver robust, reliable backup power systems for residential and commercial spaces.
Moment Energy officially launched as a formal enterprise that same year, catching the wave of an accelerating global energy storage boom. In the years that followed, the company methodically refined its engineering processes. Instead of jumping straight to market, Moment focused heavily on safety, compliance, and validation. It secured vital safety certifications from independent evaluator UL—a rare and critical distinction in the second-life battery sector, and one that financiers and insurers heavily rely on to determine whether a stationary energy storage system is a secure, insurable investment.
The geopolitical landscape soon shifted in Moment’s favor. Ongoing trade tensions and tariffs between the United States and China acted as an accidental shot in the arm for domestic clean-tech firms. Because nearly all primary battery manufacturing is rooted in China, batteries imported into the US face steep and uncertain tariffs. In contrast, Moment’s manufacturing model allows its repurposed batteries to be categorized as domestic products in both Canada and the United States.
Capitalizing on this momentum, the company achieved a major milestone in June by cutting the ribbon on Megafactory 1 in Vancouver. Designed to repurpose one gigawatt-hour of battery capacity per year by 2030, it stands today as the world’s largest dedicated facility for repurposing EV batteries. Remarkably, the advanced facility was brought online in a mere six weeks. Supported by funding from the US Department of Energy and a war chest of roughly $100 million raised from high-profile investors—including Amazon and Liberty Mutual—Moment is now putting the finishing touches on an even larger manufacturing hub in Texas.
Supporting Context & Metrics: The Scale of the Battery Transition
To fully understand Moment Energy’s disruptive potential, one must examine the staggering macroeconomic indicators governing the modern energy and automotive landscapes.
The Numbers Driving the Market
- 1.2 Terawatt-Hours: The global deployment of EV battery capacity achieved last year, illustrating the sheer volume of electrochemical energy circulating on roads worldwide.
- Fastest-Growing Technology: Stationary battery storage has officially outpaced other forms of power infrastructure development, becoming the fastest-growing power technology globally.
- 1 Million Batteries by 2030: According to projections by the IEA, more than one million EV batteries worldwide will reach the end of their automotive lives by the turn of the decade.
- Two Gigawatt-Hours Annually: Moment Energy estimates that its circular business model could successfully reroute more than two gigawatt-hours of aging batteries away from landfills and overseas recycling facilities every single year.
The environmental logic underpinning this model is airtight. Producing new batteries requires carbon-intensive mining operations. When an EV is decommissioned after a decade or more on the road, its battery typically retains roughly 80% of its initial capacity—too degraded for the high-performance demands of an electric vehicle, but more than sufficient for stationary grid support, peak shaving, and emergency backup power.
A comprehensive 2030 analysis published in scientific literature underscores that repurposing batteries before sending them to final recycling drastically reduces global warming potential, minimizes resource depletion, and curtails adverse human health impacts.
Furthermore, trade policy has increasingly intersected with environmental circularity. In August, the US administration enacted targeted blocks on certain battery waste exports in an aggressive bid to retain critical mineral supplies domestically and stem the outflow of materials heading to Chinese recycling plants. For companies like Moment, which source used packs from roughly 20 major automakers—including household names like Nissan and Mercedes-Benz—this regulatory shift reinforces the strategic value of localized, secondary-market supply chains.
Official Statements and Industry Insights
The ascent of second-life energy storage has forced traditional energy players and corporate giants to rethink how they manage power consumption. As booming data center demand—driven largely by artificial intelligence and cloud computing expansions—strains local power grids, tech companies are desperately searching for innovative ways to secure reliable power supplies without exacerbating carbon emissions.
Industry analysts note that Moment Energy’s proprietary technology plays a transformative role in how these batteries are processed. When a used battery pack arrives at a Moment facility, it does not simply get bolted into a new housing. Instead, the company initiates a rigorous diagnostic protocol:
"Moment screens each cell for health and safety, plugging metrics into proprietary AI models that quantify its remaining life, and recycles any cells that are not up to snuff. The rest are linked together and repackaged in 20- or 40-foot-long steel containers."
These engineered systems are purposefully designed to extend a battery’s useful operational life by an additional 10 to 30 years.
However, industry executives are quick to acknowledge the hurdles that remain. Moment currently represents a very small fraction of the overarching energy-storage market. To date, the company has deployed 11 commercial systems, initially targeting off-grid homes before pivoting upward to grid-connected hospitals, airports, and heavy commercial and industrial facilities. These entities require supplemental power supplies to avoid costly grid infrastructure upgrades—particularly as they install high-draw power sinks like commercial EV charging stations.
The economics of the market also present distinct challenges. Moment states that its integrated second-life systems currently cost under $90 per kilowatt-hour. Yet, the broader battery market is hyper-competitive; average global costs for new stationary energy storage batteries dipped to historic lows of around $70 per kilowatt-hour. Even when factoring in complex international shipping costs and punitive trade tariffs, newly manufactured batteries from Asia can occasionally undercut repurposed models on sheer upfront price.
Future Outlook: Scaling the Second-Life Frontier
As Moment Energy looks toward the future, its trajectory will be defined by its ability to secure a consistent, high-volume stream of retiring EV batteries and streamline its automated testing and repackaging pipelines.
The opening of Megafactory 1 in Vancouver and the imminent completion of the Texas facility represent monumental leaps forward. Yet, even when operating in tandem, these two state-of-the-art hubs will only be capable of processing a fraction of the total battery volume retiring from North American roadways over the next decade.
To fully realize its ambitious climate and commercial potential, the startup must maintain its early market momentum, navigate shifting geopolitical trade winds, and dramatically scale its operational footprint. If it succeeds, Moment Energy will not only solve a monumental waste management puzzle for the automotive industry—it will fundamentally redefine how clean energy is stored, distributed, and sustained for generations to come.
