Can the power grid manage itself?

Electricity distribution is getting a makeover. Sensors, automated controls, local energy, and connected batteries could help grids respond faster—and give communities a more active role in keeping the lights on.

Mobilized News | October 24, 2026

A tree damages a power line. Sensors detect the fault. Automated switches isolate the affected section and restore service to other customers through an available connection.

Crews still repair the damage. Automation helps contain the disruption while they work.

On suitably equipped networks, versions of this sequence already happen. The U.S. Department of Energy documented these capabilities in its 2016 review of distribution automation. [1]

The big idea: The grid’s makeover is already underway. Its next phase involves coordinating many more devices that can generate, store, and adjust their use of electricity.

Why this matters: More renewable generation, batteries, electric vehicles, and electricity demand create a growing need for flexible coordination. Berkeley Lab identifies these changes as drivers of virtual power plants and other approaches to balancing supply and demand. [2]

What is getting a makeover?

Much of the traditional distribution system was designed to carry electricity from the wider grid toward customers. It already uses protective equipment and automation.

Now, homes, businesses, and communities can also host solar panels, storage, charging equipment, and controllable appliances. Managing them together requires more information, communications, and coordination. Autonomous energy systems research addresses that challenge. [3]

Here, “self-regulating” means automatic operational control within defined limits. Utilities, engineers, and public regulators remain responsible for the system.

Three different capabilities are coming together

1. Finding faults and restoring healthy sections

Fault Location, Isolation, and Service Restoration—usually called FLISR—uses monitoring, communications, and switching to contain a fault and restore service where conditions permit. It needs suitable connections and available capacity. It cannot repair a broken pole. [1]

2. Coordinating supply, storage, and flexible demand

A virtual power plant brings smaller resources together so they can provide a coordinated grid service. These can include batteries, local generation, and equipment whose electricity use can shift in time. [2]

An illustrative example: participating households allow some charging to move away from a busy evening period while batteries help meet demand. The useful outcome depends on program rules, equipment, and customer needs.

3. Keeping a local area operating during a wider outage

A properly designed microgrid can disconnect from the larger grid and operate independently using its own resources and controls. Its endurance depends on available generation, stored energy, fuel where applicable, and demand. [4]

A virtual power plant does not automatically provide this capability. Backup operation requires the appropriate electrical design and equipment. [4]

Who is already working on it?

Orlando: limiting the spread of an outage

Orlando Utilities Commission introduced a FLISR pilot in Rosemont in 2019. In its 2022 account, OUC described automatic network reconfiguration and faster fault location to help crews find damaged lines.

The utility also emphasized the training, maintenance, and skilled personnel needed to operate the technology. [5]

The lesson: useful automation depends on people who understand the network.

Colorado: testing local coordination

At Basalt Vista, researchers from the National Laboratory of the Rockies and utility Holy Cross Energy have demonstrated autonomous control of distributed energy resources and storage.

The laboratory describes small real-world demonstrations alongside its broader research. These are steps toward wider deployment, rather than evidence that entire regional grids already run autonomously. [3]

Vermont: households become part of the resource

Green Mountain Power offers home battery programs in which customers share access to stored energy during peak demand. Its Bring Your Own Device program lets participants choose eligible batteries and the amount of storage capacity they commit.

This connects a household resource with a wider grid need through a defined customer agreement. [6]

Maryland: updating the rules around the technology

In May 2026, the Maryland Public Service Commission issued directives to advance virtual power plants and grid modernization. Its work includes customer-data access, coordination of distributed resources, and metering and communications.

The commission acknowledged that implementation would not necessarily deliver immediate bill relief. [7]

The lesson: the makeover includes public rules, data arrangements, and utility practices.

What should people gain?

Mobilized’s public-interest test is practical:

• More dependable service: Measure the frequency and duration of outages.
• Useful flexibility: Respect household comfort, schedules, and essential equipment.
• Fair compensation: Explain payments, commitments, and battery-backup reserves clearly.
• Privacy: Collect only necessary data and control access to it.
• Broader participation: Include renters and households unable to buy batteries or solar panels.
• Accountability: Publish costs, performance, and who is responsible when systems fail.

These are proposed standards for judging deployment. Benefits will depend on local conditions and program design.

Smarter controls still need strong infrastructure

The makeover still needs sound physical infrastructure, maintenance, reliable communications, cybersecurity, and trained operators. Human oversight must include tested operating limits and procedures for equipment or communications failures. DOE’s distribution-automation review identifies workforce expertise, systems integration, cybersecurity, and interoperability as essential deployment issues. [1]

What comes next?

The next phase is likely to involve closer coordination among utility systems, local controllers, buildings, batteries, and vehicles. Research is testing how these resources can work together at larger scales. [3]

For communities, a useful starting point is to identify the problems that matter most: repeated neighborhood outages, vulnerable facilities, overloaded equipment, or expensive demand peaks.

Then compare solutions against those needs and publish the results.

The opportunity is a connected energy system that responds to changing conditions while serving the people who depend on it.

Its intelligence should be judged by something people can recognize: dependable power, understandable choices, and public trust.

References

1. U.S. Department of Energy, 2016: Distribution Automation: Results from the Smart Grid Investment Grant Program. Documents existing automation, restoration capabilities, and implementation requirements.
2. Berkeley Lab, January 2025: Virtual Power Plants: Insights, Profiles and Inventory.
3. National Laboratory of the Rockies: Autonomous Energy Systems. Describes research, demonstrated applications, and the Basalt Vista partnership.
4. U.S. Department of Energy: Microgrid Systems and Solar Integration: Distributed Energy Resources and Microgrids Basics.
5. Orlando Utilities Commission, March 16, 2022: “Self-healing” grid system is a game-changer. Historical account of the Rosemont pilot and its operational lessons.
6. Green Mountain Power: Lease Energy Storage and Bring Your Own Device. Current program descriptions; participation is subject to their terms.
7. Maryland Public Service Commission, May 6, 2026: PSC Advances Virtual Power Plants and Grid Modernization.

Reporting checked October 24, 2026. The opening sequence and household charging example illustrate capabilities and possible operation; they are not accounts of specific events. The public-interest standards and suggested next steps are Mobilized editorial analysis. Operational deployments, research demonstrations, and regulatory initiatives are identified separately.