Assistive focus
Provide target distance to cameras, projectors, or thermal devices so the controller can narrow the focus range.
- TF-NOVA
- TF-Luna
Start with an application task, verify the candidates in a model-difference topic, or open the manual tool for a custom combination.
Select by application
Each application page directly lists candidates, rationale, key facts and boundaries. A single-candidate task is not padded with a fictitious alternative.
No curated selection content is available in this domain.
Provide target distance to cameras, projectors, or thermal devices so the controller can narrow the focus range.
Measure the distance between the aircraft and the surface below, providing continuous range input for low-altitude terrain-following adjustment.
Use distance or distance change to detect a contactless gesture below the tailgate and pass the event to the body controller.
Use target distance or distance change to trigger lids, capture, status reporting, or device actions.
Measure distance to the surface below for near-ground altitude hold, hovering, and stable-altitude cruise input.
Provide forward obstacle distance in warehouse aisles and connect it to slowdown zones and stopping logic.
Measure the distance to a liquid surface from a fixed reference for level conversion, alarms, and status reporting.
Provide distance or presence input in critical revolving-door zones for controller slowdown, stop, and fault handling.
Provide distance or area input near a moving door path so the body controller can respond to obstacles.
Provide target distance along the gimbal line of sight for range display, mission records, or upper-level calculations.
Use downward floor distance and forward obstacle distance as separate inputs for robot slowdown and stop actions.
Provide forward or downward range input in an assistive device, with TF-Luna as the featured sensor.
Trigger a camera or recorder from vehicle distance change while keeping the confirmed TF application scope.
Provide short-to-medium-range distance input for logistics and delivery robots to support aisle sensing, approach decisions, slowdown, and stopping.
Collect distance combinations in an area so the customer system can determine occupancy and people count.
Provide near-ground range input to the flight controller for low-altitude hold, hover, and descent.
Measure surface distance from the top of a silo or vessel, convert it into level, and make dust, cleaning, and mounting limits explicit.
Detect objects entering a defined zone and output range events for perimeter and industrial security systems.
Provide forward or downward range input so the UAV system can trigger slowdown, rerouting, or stop logic.
Reconstruct surface geometry from multi-point or scanning distance data for volume calculation of bins, piles, or warehouse objects.
Provide long-range position or separation input for overhead cranes to support travel zones, slowdown, and obstacle-avoidance logic.
Use parking-bay distance change to determine occupancy or trigger a camera, replacing continuous video processing with event-based capture.
Model-difference topics
Each topic includes assumptions, model fit, a key-parameter table and misselection cautions. One model may appear in several question-led topics.
No comparison topic matches these filters. Adjust the filters and try again.
All three models output one distance point. Check target reflectivity, real distance, mounting environment and power first, then compare weight, power, protection and field of view; the same headline range does not imply the same result for every target or environment.
Both provide spatial perception data, but differ substantially in range, coverage, interface, size and target platform. Separate long-range automotive environment sensing from close-range industrial robot or volume sensing before checking software and mounting.
Confirm the controller interface, cable run and supply first, then compare range, update rate and protection. Model suffixes represent different interface paths; do not assume all three support the same buses.
Set the working distance and margin for the real target reflectivity first, then compare weight, enclosure, protection, interface and update rate. These are current specification differences, not a performance ranking without matched-condition tests.
This topic addresses the requested 10–50 m selection question, but not every candidate reaches 50 m. Eliminate by real working distance first, then compare weight, enclosure, protection, interface and power.
Both products can serve close-range sensing, but their output forms differ: TF-NOVA uses a line-pattern spot for area ranging input, while NOVA20 outputs channel-tagged distances in multiple directions. Decide which data form the system actually needs first.
Supporting tool
Manual comparison uses the same product parameters, but does not replace the assumptions, interpretation and cautions in a curated topic.