YiRadarApplication guide · Reviewed resource
Reviewed by Mr. Wang, YiRadar Engineering · · Review standard
How to Choose Occupancy Sensors for a Warehouse
Warehouse sensing projects are rarely solved by applying one nominal coverage figure to every bay. Aisles, shelving, dock doors, forklifts, fans, high ceilings, daylight, racking changes, and different work patterns make the sensing scene variable. The correct starting point is a zone-and-control brief, followed by validation at representative installation points.
Before comparing sensor candidates, divide the facility into meaningful control zones. An aisle with occasional picking activity, a loading area with vehicles, an open staging zone, and a staffed packing station may need different behaviors. The aim is not necessarily to detect everything in a large room. It is to provide the host system with useful, testable input for the defined zone.
Map work behavior before mapping sensor positions
Ask what people, vehicles, and goods normally do in each proposed zone. Record whether the desired action is a simple movement response, a maintained occupied state, a transition between lighting scenes, an HVAC input, or a reporting event for another system. Then record how quickly the control response should occur and how long it should remain active after activity changes.
This step avoids a common mismatch: an engineering team selects a wide sensing field while the operations team expects a narrow aisle to behave independently. A good drawing marks zone boundaries, expected target paths, no-action areas, and the host action associated with each zone.
Treat high bays and aisles as physical environments
For each candidate location, capture mounting height, aiming direction, racking, obstructions, door and vehicle activity, fans, reflective surfaces, local daylight, and any product enclosure constraints. High mounting positions can enlarge the scene, but the installed outcome still depends on geometry and surrounding activity. A rack change or a new conveyor may change the system more than a small configuration adjustment.
Do not validate only at an unobstructed test position. Select conditions that represent the planned rollout: a typical aisle, an edge aisle, a loading or high-motion area, and any area with unusual mounting or background activity. The intention is to learn where configurations need to differ before the project is scaled.
Include the control system in acceptance testing
The final user experience is created by sensing, wiring or host interface, controller rules, timers, daylight logic, manual overrides, and commissioning. A site can report that lights “turn on incorrectly” when the real issue is a control-zone assignment or hold-time setting. Define test cases for occupied, vacant, edge-zone, background-motion, power-cycle, and manual-override conditions.
Record the validated module configuration and the relevant host-system settings. This allows a production or field team to reproduce the accepted result and to understand what must be retested after an enclosure, firmware, or building-layout change.
Request a project-led candidate review
YR-RSC5801, YR-DP101H, and YR-RSC2411-A are examples of YiRadar configurations that can begin an engineering discussion. They are not promises of a warehouse-wide installed result.
Share a layout drawing, photos, proposed mounting points, zone definitions, control behavior, available interfaces, expected quantities, and a validation schedule through the smart lighting and building sensing hub or the RFQ form. This gives the engineering review enough context to identify candidates, unknowns, and the next test step.
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Module selection, final integration, and commercial terms are reviewed against the actual installation and host system.
