AI, DERs, and Distributed Intelligence: Powering the Smart Grid Future

AI, DERs, and Distributed Intelligence: Powering the Smart Grid Future

Electricity systems face a dual challenge: rising demand from electrification and rapid decarbonization mandates. At the same time, AI workloads themselves require more power, creating a tension between growth and efficiency. The grid is shifting from one-way delivery to a distributed, bidirectional network of resources. To manage that transition operators need real-time coordination, flexible markets, and policy that reflects the new technical reality.

The Grid’s Dual Challenge: Demand, Decarbonization, and AI

Utilities must balance higher peak loads, more intermittent generation, and stricter emissions targets while accommodating compute-intensive AI services. That creates pressure on capacity planning, transmission, and distribution operations. Traditional top-down control models struggle to respond quickly enough to local variability, making distributed solutions more attractive.

Distributed Intelligence: Redefining Grid Management

Distributed Intelligence means processing telemetry and making control decisions at the grid edge rather than relying solely on centralized systems. Edge controllers, fleet orchestration platforms, and AI models coordinate DERs like rooftop solar, EV chargers, and batteries to perform functions such as local voltage support, frequency response, and congestion relief. This reduces latency, improves fault tolerance, and allows resources to act autonomously within operator-set constraints.

Benefits and Policy Alignment for Energy Storage

When paired with AI, storage becomes an active market participant. Benefits include:

  • Improved reliability through fast frequency response and peak shaving
  • Revenue stacking via virtual power plants, demand response, and wholesale market participation
  • Operational efficiency from predictive dispatch and lifecycle-aware charging

Policy plays a pivotal role. FERC Order 2222 opened wholesale markets to aggregated DERs, but follow-up reforms are needed: interconnection reform, standardized telemetry, compensation for distributed services, cybersecurity and data privacy rules, and regulatory sandboxes to pilot new market products. Rate design and procurement rules must reward flexibility rather than just energy delivered.

Conclusion: Building a Resilient, AI-Powered Grid

Distributed Intelligence plus DERs, led by strategically managed storage, offers a pathway to resilient and decarbonized grids. Policymakers and utilities that align market rules, interoperability standards, and cyber protections will unlock the full value of AI-driven storage and distributed resources for operators and consumers alike.