Railway bogie monitoring

Catch bogie faults before they stop the train

Bogie monitoring continuously reads temperature and vibration from railway bogies, processes data on-site, and feeds a local AI running inside your own infrastructure.

Railway bogie with temperature and vibration measurement symbols
Edge processing directly near the data source
No cloud operational data stays in your infrastructure
Local AI maintenance insight on your own server

Why it matters

Bogie failures are costly, and largely predictable

Bearing overheating and abnormal vibration are early signs of mechanical wear. Without continuous monitoring, these anomalies often go unnoticed until they cause unplanned stoppages, safety incidents, or costly maintenance disruption.

Early monitoring helps maintenance teams identify abnormal behavior sooner, reduce unexpected downtime and plan interventions more efficiently.

Earlier fault detection

Identify thermal and vibration changes before they become critical.

Reduced maintenance disruption

Support planned interventions instead of reactive stoppages.

Secure local processing

Analyze operational data without sending raw signals to the cloud.

Monitoring points

Temperature at bearing areas, vibration on the main frame

Bearing temperature

Temperature is tracked close to axle-box and bearing areas, where overheating can indicate lubrication issues, wear or early-stage faults.

Frame vibration

Vibration is monitored on the bogie frame to detect changes in mechanical behavior, imbalance or component deterioration.

Signal health

Bogie monitoring validates signal quality and node status before data is forwarded to the local analytics infrastructure.

Feature to benefit

From bogie signals to maintenance decisions

01

Multi-sensor acquisition

Monitor critical bogie components continuously.

02

Edge filtering

Reduce noise and avoid unnecessary data traffic.

03

Secure gateway

Protect operational railway data between vehicle and server.

04

Local AI integration

Detect anomalies and support maintenance decisions.

How it works

From sensor to decision in four steps

Bogie monitoring deployment architecture on a train with a WiFi router, monitoring units, vibration sensors and temperature probes
1

Measure

Temperature and vibration are collected from critical bogie points.

2

Process locally

Bogie monitoring validates and filters data directly on the vehicle.

3

Secure transfer

Only relevant information reaches the local infrastructure.

4

Detect anomalies

Local AI identifies patterns, trends and abnormal behavior.

Local intelligence

AI that runs on your server, not in the cloud

Data never leaves the operator's infrastructure. AI models interpret processed signals and provide actionable insights for maintenance teams.

Detect abnormal temperature evolution spot early thermal changes before maintenance thresholds are reached
Identify vibration deviations track changes that may indicate imbalance, play or component wear
Correlate thermal and vibration behavior turn combined sensor data into maintenance-relevant signals
Support alerts and reporting provide local reports for maintenance planning and fleet diagnostics

Typical applications

Designed for railway monitoring programs

01 Freight wagon bogie monitoring
02 Passenger rolling stock monitoring
03 Condition-based maintenance programs
04 Pilot predictive maintenance deployments
05 Fleet diagnostics and anomaly analysis

Why local processing

Built for operators who need control over operational data

Cloud approach

Raw data transfer

External hosting

Higher bandwidth

Potential data sovereignty concerns

Bogie monitoring local approach

Local filtering

Customer infrastructure

Reduced traffic

Local control of operational data

Explore a pilot deployment

Discuss monitoring architecture, sensor placement and local AI integration

We can walk through the architecture, review bogie measurement points, and define how Bogie monitoring connects to your local maintenance analytics environment.