On-board recording with MDVR
Multiple camera feeds are stored simultaneously on the on-board recorder, built to withstand vehicle conditions such as vibration and temperature.
On trucks, tankers, mixers and buses, the area around the vehicle and the cab interior are recorded simultaneously. In AI-assisted systems the footage is not merely stored; driver behaviour, road risk and events are detected in real time.
We develop the cameras, recorders and driving safety modules at our own R&D centre. A camera here is therefore not a standalone recorder; it is a safety layer running on the same platform as telemetry and geofence rules.
A recording is useful after the event; analysis is useful before it.
A vehicle camera system records the area around the vehicle and the cab interior, stores footage on an on-board recorder and uploads it to cloud storage. In classic deployments the function ends there: when an incident happens you go back to the recording and run the dispute or damage process with evidence.
In AI-assisted systems the footage is analysed as well. A driver picking up a phone, failing to fasten a seatbelt or letting their eyelids drop becomes a warning before it becomes a recording. The difference is this: the first documents the event, the second tries to stop it from happening.
Multiple camera feeds are stored simultaneously on the on-board recorder, built to withstand vehicle conditions such as vibration and temperature.
Cab interior and forward road footage are analysed continuously; when a risk is detected the driver is warned instantly and the event is reported to the centre.
Live and historical footage is accessible from any device with an internet connection; recordings are backed up to cloud storage automatically.
In heavy vehicles most of the accident risk sits in the area the driver cannot see.
A common layout is four cameras: on the front bumper, on the rear door and one on each side panel. Their fields of view overlap so the vehicle is surrounded without a gap; corners the driver cannot see in the mirrors stay covered. Manoeuvring in a narrow street, backing onto a loading bay and reversing are all captured in the same recording.
An in-cab driver camera is added to these four. In public transport the layout becomes three-point: the forward road, the passenger area and the operator are recorded simultaneously. Camera count and angles are determined by a site survey based on vehicle type; tankers, mixers, refrigerated trucks and buses are each configured differently.
Forward road footage is recorded and analysed continuously; changes in road conditions and distance to the vehicle ahead are monitored.
One camera on each side panel; the area the mirrors cannot show is covered during lane changes and turning manoeuvres.
Reversing, backing onto a loading bay and the loading moment are recorded; the rear area stays continuously visible.
Driver behaviour is analysed with AI; fatigue, distraction and occupational safety violations are detected.
The aim is not to watch the driver but to warn before a crash.
When the driver picks up a phone while moving, the system detects it immediately; an audible and visual warning is raised and the event is reported to the centre automatically.
Eye closure, head drop and prolonged gaze deviation are analysed in real time; a fatigue indicator produces a warning before it turns into an accident.
While the vehicle is moving, seatbelt status is checked and recorded; if it is unfastened the warning mechanism is triggered.
The in-cab camera detects smoking. In fuel and dangerous goods transport this is a critical control for fire and explosion risk.
Violation history and a safety score per driver are tracked in the central management panel, with instant access to driver-level reports.
Blind spot radar is not an alternative to the camera but its complement.
In heavy vehicles the blind spots outside the driver's field of view are among the most significant accident risks in traffic. The blind spot radar system detects pedestrians, animals and motorised or non-motorised vehicles in the front, side and rear blind spots using radar sensors.
What separates radar from the camera is its operating condition: detection continues at night, in fog, rain and direct sunlight where cameras struggle. The driver is informed with audible and visual warnings before a manoeuvre, so a potential collision is addressed before it happens.
When an object is detected in a blind spot both an audible alarm and a visual warning are triggered in the cab; the driver is informed before manoeuvring.
Wide-angle radar sensors covering both sides and the rear of the vehicle provide comprehensive safety during lane changes and reversing.
All detected blind spot events are recorded with a time stamp; driver-level risk analyses are accessible from the central panel.
Watching the event itself instead of scanning hours of footage.
Product models, port layouts and technical specifications for cameras, recorders and driving safety modules are published in our technical documentation centre.
A rule left to the driver's memory is eventually broken.
At some facilities camera recording is legally prohibited. Refineries, military areas, ports and certain production sites fall into this category. The classic answer is to ask the driver to switch the cameras off manually, which brings the risk of forgetting, switching off late and creating a legal problem with the recording.
With geofence-driven camera management these sites are marked once on a digital map. The moment the vehicle crosses the defined boundary the camera system shuts down automatically, and comes back on when it leaves the area. No operator action is required and the risk of error disappears.
Restricted facilities are marked once on the map; the system remembers those boundaries permanently and applies them to every vehicle.
Cameras switch off when the vehicle enters the boundary and back on when it leaves. No driver action is needed and there is nothing to forget.
When and where the cameras were disabled and re-enabled is logged; the compliance record for the facility is produced from that log.
Zone rules for the whole fleet are updated from a single platform; adding a new facility does not mean visiting each vehicle.
The questions we meet most often in project discussions.
A system that records the area around the vehicle and the cab interior, stores footage on an on-board recorder (MDVR) and uploads it to cloud storage. In AI-assisted systems the footage is not only recorded but analysed: driver behaviour, road risk and event detection are produced in real time.
A common layout is four cameras: on the front bumper, on the rear door and one on each side panel. Their fields of view overlap so that no corner invisible in the mirrors is left uncovered. An in-cab driver camera is added to these four. Camera count and angles are determined by a site survey based on vehicle type.
MDVR (Mobile Digital Video Recorder) is the recording device that runs on board the vehicle. It records multiple camera feeds simultaneously and is built to withstand vibration and temperature. Recordings are stored on the vehicle and backed up to cloud storage when a connection is available.
Phone use, smoking, an unfastened seatbelt, fatigue indicators such as eye closure and head drop, prolonged gaze deviation and distraction. When a violation is detected the driver is warned in the cab and the event is reported to the centre automatically.
No, they complement each other. The camera records and analyses footage; blind spot radar uses radar sensors to detect pedestrians, animals and vehicles in the front, side and rear blind spots. Radar keeps working in low visibility conditions where cameras struggle.
These sites are marked once on a digital map; when the vehicle crosses the defined boundary the camera system shuts down automatically and comes back on when it leaves. When and where the cameras were disabled is logged, creating a compliance record without requiring any driver action.
We assess your vehicle types, the areas that need coverage and your legal constraints together. Camera count and angles are set by a site survey; deployment can start with a single vehicle and spread across the fleet.
Contact us for detailed information, project consultancy and demo requests. Our technical team is ready to plan the deployment scope around your vehicle types and operating conditions.