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PLATFORM 06

Mobility & Rail

Mobility & Rail covers connected transport: fleet telematics, ADAS, in-cab driver monitoring, sensor fusion, LiDAR-based railway track safety and always-connected asset tracking. These are environments where the sensor is dirty, the power is intermittent, the network drops for hours, and a false alarm costs as much as a missed detection.

TelematicsADASDriver monitoringLiDARSensor fusion
Sensing across vehicle and corridor
Cameralane, sign, driverLiDARcorridor and obstructionRadarrange rate in weatherInertialbetween fixesGNSSabsolute positionVehicle busCAN, odometryFUSION &TIMINGFusion is a timing problem first. A 12 ms error is 18 cm at 15 m/s, and the tracker learns it.
SCOPE

What the platform covers.

RAIL

Why rail corridors are a distinct problem.

A rail corridor is long, mostly empty, and occasionally occupied by something that must be detected before a train arrives. Camera-only approaches struggle at night, in fog, and against low-contrast obstructions. LiDAR gives range and geometry independent of illumination, which is why it anchors the sensing.

The hard part is not detection. It is the false alarm rate. A system that stops trains for foliage movement will be switched off within a fortnight, so classification, temporal persistence and zone geometry matter more than raw sensitivity. Fusion with camera imagery is what makes a confident classification possible.

DEPLOYMENT

How a mobility programme runs.

01

Environment survey

Vibration, temperature, ingress, power availability, mounting constraints and network coverage measured rather than assumed.

02

Sensor selection and placement

Field of view, range and geometry established against the actual site, with occlusion mapped.

03

Data collection

Real operational data captured across conditions, including the rare events the system exists to catch.

04

Model and logic development

Detection, classification and alarm logic developed with false-alarm cost weighted explicitly.

05

Pilot

A limited deployment run long enough to see seasonal and diurnal variation.

06

Fleet rollout

Provisioning, over-the-air update, monitoring and support at scale.

COMMON QUESTIONS

What engineers ask before they call.

01

What does Faststream do in railway safety?

Faststream works on LiDAR-based track and corridor monitoring, combining LiDAR range and geometry with camera imagery and edge inference to detect obstructions and intrusion. The engineering emphasis is on classification and false-alarm rate, because a system that alarms on foliage will not stay switched on.

02

Does Faststream build driver monitoring systems?

Yes. In-cab fatigue and distraction detection using infrared imaging, engineered to work with the driver wearing glasses, at night, and across a wide range of cab geometries and seating positions.

03

How do trackers work where there is no cellular coverage?

Data is buffered on the device and forwarded when coverage returns, and where continuity is required the device falls back to a non-terrestrial satellite link. Cellular remains the normal path; satellite is the exception layer.

KEEP READING

Related work.

BUILD WITH FASTSTREAM

Bring us the difficult part.

Tell us the specification, the constraint and the deadline. Programmes that cross silicon, radio, embedded and AI are where Faststream is strongest.