


How AIM helped a national rail operator identify potential failure points before they could disrupt service.




Rail infrastructure stretches across thousands of kilometers, connecting cities, towns, and remote areas. For national operators, the scale is immense—and so are the risks. One structural issue in the wrong place can cascade into delays, shutdowns, or worse. In 2022, a national rail organization turned to AIM with a clear goal: gain real-time insight into network conditions and catch early risks before they cause disruptions.
Historically, the operator had relied on scheduled inspections and basic sensor alerts. But these systems couldn’t predict failure—they could only report it after the fact. And with new government priorities focused on intelligent infrastructure and digital transformation, it was time to move beyond reactive maintenance.
AIM was introduced across a high-priority section of the network known for traffic density, older bridges, and mixed materials. Rather than rely on complex models or full retrofitting, AIM installed non-invasive sensors at critical points: expansion joints, steel support zones, transition slabs, and rail-mounted components. Within days, the platform was live and collecting real-time input.
What set AIM apart wasn’t just the data—it was the interpretation. The system began to understand how the structures behaved under load, temperature variation, and seasonal stress. This dynamic understanding allowed AIM to forecast potential failure points and highlight anomalies before visible symptoms emerged.
Before AIM, we were always reacting. Now, we see the problems before they become problems.
The most notable event came just 41 days into deployment. AIM detected subtle, irregular movement in a transitional zone beneath a high-speed section of track. Though the structure passed visual inspection, the data told another story—minor fatigue was accumulating, likely due to historic stress and inconsistent support.
Thanks to AIM’s alert, engineers were able to perform focused reinforcement work in a single day. No delays. No detours. Just precise, informed action.
“Before AIM, we were always reacting. Now, we see the problems before they become problems.”
Infrastructure Asset Manager, National Rail Operations
One of the key benefits AIM brought to this project was scalability. The same platform that worked for a single bridge on the M4 also handled dozens of sensor points across a large rail corridor. The system updated itself, learned continuously, and adapted to varied material behavior—without manual recalibration.
Because of this flexibility, the rail operator quickly moved from pilot phase to system-wide planning. Today, AIM is being evaluated for deployment across all critical aging rail structures in the network, including those in remote or hard-to-access zones.
The bridge remained fully operational.
And ongoing extended lifespan. Forecasts allowed engineers to defer costly rehabilitation safely.
Estimated annual savings from avoided traffic restrictions
AIM's success on the rail network came down to three things: speed, clarity, and no required assumptions. The platform didn’t need finite element models or detailed structural drawings. It learned from reality, not theory. That allowed the rail team to trust the data and act with confidence—even when the structure “looked fine” on the outside.
It also integrated seamlessly with the team’s workflows. Alerts came via dashboards and mobile notifications. Reports could be exported and reviewed with stakeholders in minutes. This made AIM not just a tool for engineers, but a decision-making layer across departments.
What started as a risk mitigation trial became a roadmap for how predictive AI can support public transport infrastructure. AIM gave the rail operator visibility where there was once uncertainty—and control where there was once reaction.
Today, the organization is moving toward full coverage of their priority routes, with a long-term goal of building a nationwide digital twin driven by real sensor data. And it all started with a small section of track, a few well-placed sensors, and an AI platform built to listen, learn, and alert.
