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Home Blog AI for Utilities: When Keeping the Lights on is Your Responsibility, Adoption Looks Different

AI for Utilities: When Keeping the Lights on is Your Responsibility, Adoption Looks Different

AI for Utilities: When Keeping the Lights on is Your Responsibility, Adoption Looks Different

Artificial intelligence (AI) is being adopted across industries at an unprecedented pace, and the electric utility sector is no exception. Faced with rising energy demand, aging infrastructure, and an increasingly complex grid, utilities are turning to AI to innovate and modernize operations. However, adoption of this technology—as with various digital innovation waves preceding it—fundamentally looks different in this sector. For a utility, reliability, affordability and customer satisfaction are not just business priorities, but are critical to ensuring public safety and meeting regulatory requirements.

The stakes and expectations are high when keeping the lights on and electricity flowing is your responsibility, and this heavily influences how utilities approach technology transitions. From early innings of industrial digitization, to cloud infrastructure and now the current AI era, utilities adopt technologies with a heightened focus on operational resilience and long-term system performance. Unlike many sectors where experimentation can move quickly, utilities operate critical infrastructure where reliability and continuity are imperative.

These fundamentals demand a more disciplined approach to technology adoption and integration. Digital tools must prove they can operate reliably inside complex, highly regulated environments before they scale broadly. The same dynamic is true for AI tools—the opportunity for AI to improve efficiency, reliability and safety across utility operations is clear, but the barriers to adoption are equally important to consider for technology partners working with or selling to utility customers.

Utilities Face Unprecedented Pressure to Innovate to Meet Rising Energy Demand

It is no surprise that utilities are under increasing pressure to innovate and modernize infrastructure to meet today’s market. For the first time in decades, electricity demand is rising, driven by data centers, electrification, and industrial growth. Since 2020, U.S. electricity consumption has grown roughly 1.7% annually, compared to just 0.1% during the previous decade, marking the strongest sustained growth period since the early 2000s.To meet this demand, the industry is investing at a historic pace: utilities have announced roughly $1.4 trillion in planned capital over the next five years, nearly double the rate of the previous decade.

At the same time, utilities are managing this growth against increasingly complex operating conditions. Much of the U.S. grid infrastructure is between 30 and 80 years old, and a significant portion of transmission lines and transformers are already beyond the point where failure rates begin to rise. The workforce responsible for maintaining these systems is also aging, creating growing experience and labor gaps across the sector. Meanwhile, weather-related outages have increased more than 60% over the past decade, adding additional strain to systems that were not originally designed for this level of volatility.

Amid these factors, utilities are turning to digital solutions—and, increasingly, AI—to accelerate and modernize their operations without sacrificing the reliable service that defines their success.

Use Cases Gaining Traction Today

AI is already being applied across a range of operational areas where it aligns closely with utilities’ existing priorities around reliability, visibility, and system performance. One of the clearest examples is infrastructure inspection. Utilities are responsible for monitoring enormous networks of physical assets, including poles, transformers, substations, and generation facilities.

Historically, inspections were manual and resource-intensive. Today, AI-powered computer vision allows utilities to process drone and satellite imagery at much greater scale, helping teams identify damaged or deteriorating equipment more proactively. We’ve seen firsthand how these tools have improved visibility across large and complex asset networks while also making inspection workflows more efficient for the utility.

AI is also becoming more important in grid operations. As the grid evolves from a more centralized system toward one that includes distributed resources like solar, batteries, and EV charging infrastructure, operating conditions are becoming more fluid. AI models are helping utilities better understand changing grid conditions in real time and maintain system balance, while forecasting technology can improve demand forecasting, generation planning, and pricing analysis as utilities navigate a more dynamic energy environment.

Customer engagement is evolving as well. The growth of smart meter deployment has created much more granular visibility into household-level energy usage. Utilities are beginning to use AI to help customers better manage consumption, shift demand patterns, and reduce energy costs.

Two Paths to AI Adoption

Despite the broad opportunities for AI integration, emerging tools face a few challenges when selling into energy customers. Given utilities’ obligations of reliability, security, and operational continuity, they often prioritize vendors with established track records and deep operational expertise.

Plus, procurement and onboarding processes are intentionally rigorous: Utilities have established requirements like SOC 2 compliance, NERC CIP standards, and extensive security and operational reviews to ensure these new technologies can operate reliably within critical environments.

That creates two primary paths for AI companies entering the sector. The first is delivering capabilities that existing vendors cannot easily replicate. When there is a clear and differentiated operational advantage, utilities are willing to engage with newer providers. The second, and often more scalable, path is partnering into existing utility ecosystems through established industry players. Companies like GE Vernova and Schneider Electric have longstanding relationships across the utility sector and deep integration within operational environments. For many emerging AI companies, working through those channels can accelerate adoption by building on existing trust and infrastructure.

That model will likely continue as AI adoption expands across the sector. Utilities are actively evaluating and deploying new technologies, but trust, operational validation, and long-term reliability will remain central to how these systems scale.

Laying the Foundation for Scale

While momentum around AI adoption is accelerating, scaling these systems across utility operations still requires foundational work in several areas. One of the biggest focus areas is data infrastructure. Utilities have access to enormous amounts of operational and asset data, much of which is valuable for AI applications. At the same time, many legacy systems were not originally designed for modern AI workflows, meaning data often needs to be standardized and made more accessible before it can be leveraged at scale. Data readiness continues to be one of the most important enablers of broader AI adoption.

Governance is also evolving as adoption proliferates. Utilities are building new policy frameworks around AI use, data security, vendor management, and operational controls to establish guardrails to allow these tools to scale sustainably. In many cases, systems tied to critical infrastructure stay isolated or air-gapped to help maintain visibility and resilience, as automation becomes a bigger part of daily operations.

Organizational structures are also shifting. AI initiatives today are typically led by CIOs, CTOs, digital transformation teams, or innovation leaders. As adoption matures, utilities are likely to develop more specialized roles and operating models purpose-built for AI solutions at scale.

A Different Adoption Playbook

For utility leaders, the path forward is centered around disciplined execution rather than rapid experimentation. The first priority is enablement: investing in data infrastructure, establishing clear AI governance policies, and preparing the workforce through training and operational change management. In our conversations with utilities, that foundational work consistently emerges as one of the most important prerequisites for scaling AI effectively. Without it, even the most advanced tools will struggle to deliver long-term value.

The second priority is focusing on high-impact operational use cases. The most successful deployments tend to be tied directly to core utility challenges, whether around grid operations, asset visibility, forecasting, or customer engagement, rather than broad AI adoption initiatives without clear operational objectives.

Utilities are also increasingly leveraging broader vendor and partner ecosystems as part of their AI strategies. Building large internal AI teams is not always the most efficient path, particularly given the growing ecosystem of specialized providers already developing purpose-built capabilities for the sector. From our perspective, some of the most interesting progress in the market is happening where utilities, technology companies, and established industry partners are collaborating to solve very specific operational problems.

At the same time, adoption will likely continue following a measured, phased approach. In critical infrastructure environments, deployments need to be validated and integrated deliberately before scaling more broadly. That operating model may look different from adoption curves in other industries, but it is also one of the reasons AI adoption in utilities is likely to be more durable over the long term. Utilities are integrating these technologies in ways designed to strengthen reliability and operational resilience across the grid.

Tyler Lancaster is a partner and co-head of Ventures at Energize Capital, where he leads investment activity and portfolio management, focusing primarily on the intersection of software with the physical world.