The Federal Aviation Administration is beginning a real-world test of an artificial-intelligence assisted air-traffic management tool designed to spot congestion risks early and help prevent minor disruptions from snowballing into widespread U.S. flight delays.

Get the latest news straight to your inbox!

FAA Begins Testing AI Tool Aimed at Reducing U.S. Flight Delays

What the FAA is testing and why it matters for travelers

Published coverage indicates the new capability is called SMART, short for Strategic Management of Airspace, Routes, and Trajectories. The tool is designed to synthesize a shared picture of conditions that frequently trigger delay cascades, including airline schedules, weather, airport arrival and departure capacity, and operational constraints across the National Airspace System.

The FAA has framed SMART as decision support rather than automation that “runs” air traffic. Public descriptions emphasize that the early phase is expected to focus on recommendations and scenario planning, giving traffic managers and airline operations centers another way to see trouble developing hours ahead and choose interventions before gridlock sets in.

For travelers, the promise is straightforward: fewer surprise ground stops, fewer rolling gate holds, and fewer long taxi-out lines when a busy region gets squeezed by thunderstorms, low ceilings, runway configuration changes, or knock-on disruptions from other parts of the country.

Washington-area airports are a key early proving ground

Reports indicate the initial deployment is centered on the Washington, D.C., region, an airspace with unusually complex traffic patterns and tight operating constraints. The three major commercial airports in that orbit are Ronald Reagan Washington National (DCA), Washington Dulles (IAD), and Baltimore/Washington International Thurgood Marshall (BWI).

The area is managed in large part by Potomac TRACON, a high-volume approach control facility that sequences arrivals and departures for multiple airports in close proximity. That density makes it an attractive test environment for an AI-assisted traffic-flow tool: when something goes wrong, even small miscalculations can ripple quickly into long departure queues and missed connections.

Publicly available information also shows the FAA has been making other operational and safety-related changes in and around the Washington airspace in recent years, including changes affecting helicopter operations near DCA and broader surface and runway-safety technology deployments. While those initiatives are separate from SMART, the overall modernization push underscores how much attention the region receives as a national showcase for airspace management.

The $875 million modernization contract and the systems behind SMART

The FAA awarded a long-term contract valued at $875 million over 12 years to Air Space Intelligence for two related efforts: Flow Management Data and Services (FMDS) and SMART. FMDS is described as the future software backbone for the FAA’s Air Traffic Control System Command Center, replacing legacy traffic-flow capabilities that have been central to national traffic management for decades.

In FAA materials, FMDS is positioned as a modern platform that can project congestion hours in advance by analyzing flight plans, airline schedule data, and real-time updates, with an emphasis on reliability, faster software iteration, and a consolidated operating picture for traffic management specialists. SMART is presented as an enhancement layer that uses those data and models to help coordinate schedules and trajectories before aircraft depart.

From a traveler’s perspective, this distinction is important: much of delay prevention is not about tactical instructions to individual aircraft, but about system-level choices such as when to launch flights into constrained airspace, which flows to prioritize, and how to shape demand to match real runway and airspace capacity.

How AI recommendations could change delay management day to day

When capacity drops, the FAA already uses established traffic management initiatives such as ground delay programs, miles-in-trail restrictions, reroutes, and arrival spacing tools. The practical idea behind SMART is to improve the timing and targeting of these interventions by forecasting conflicts earlier and offering more options, potentially reducing the “late reaction” cycle that travelers experience as gate holds, missed departure slots, and cascading cancellations.

The FAA’s broader NextGen framework has long emphasized trajectory-based operations and time-based management, supported by tools such as Time Based Flow Management (TBFM) as well as Terminal Flight Data Manager (TFDM) capabilities that improve surface scheduling and metering at airports. SMART and FMDS fit into that ecosystem as higher-level flow tools intended to help traffic managers and industry partners align on a plan before the day’s traffic becomes unsalvageable.

Coverage of the rollout has also highlighted industry caution about scope. The early deployment is expected to be limited, with the tool’s outputs used to build confidence in predictions rather than to trigger automatic schedule or routing changes. That phased approach reflects an operational reality: the cost of a bad capacity prediction can be significant, because overly aggressive restrictions can create unnecessary delays, while overly optimistic plans can overload sectors and runways.

What travelers should watch during the test period

Because the initial use is expected to be limited and advisory, travelers should not expect an immediate, visible drop in delays across the country. The more meaningful early signal may be whether irregular operations in the Washington corridor produce fewer dramatic “meltdowns” during weather events, and whether airlines and the FAA appear to converge more quickly on stable plans when conditions deteriorate.

In the near term, the most practical takeaway is that delay outcomes will still be heavily driven by weather and capacity constraints, especially in busy corridors. But if the test demonstrates that congestion can be predicted earlier and managed more collaboratively, the longer-run effect could be fewer last-minute cancellations and more consistent gate-to-gate planning, particularly during peak travel weeks.

For frequent flyers, the most relevant indicators may show up in operational patterns rather than announcements: fewer abrupt gate holds after boarding, fewer extended taxi-out times on constrained days, and fewer multi-hour delays that begin as small schedule slips but spread through a hub-and-spoke network.