Triton ULTRA Installation/Device Placement Guide | Scribe

Triton ULTRA Installation/Device Placement Guide

  • 4 days ago

    Physical Installation

    Installing a Triton ULTRA Sensor

    Specifications

    Power and Data Options

    Power over Ethernet (IEEE 802.3at Class 3 Compliance)

    • PoE Input and Output allows for PoE passthrough

      • Daisy chain up to 3 sensors with PoE switch

      • Daisy chain up to 5 sensors with PoE+ switch

      • Each sensor gets its own IP address and operates independently

      • CAT5e/6 cable required (maximum distance from switch to last device in chain has to be within 100 meters/328 feet)

    12V DC via GPIO Terminal (Non-PoE Setup)

    • Powered using 12V DC through the included green GPIO contact/relay terminal

    • Device must first be connected to PoE for initial programming and Wi-Fi setup

    • After setup, sensor can operate over Wi-Fi for data transmission while powered via 12V DC

    • Stable and regulated 12V DC power source required

    • Wi-Fi signal strength at installation location must be strong for reliable operation

    • No Ethernet connection required after setup

    Device Placement Best Practices

    Coverage Area:

    • Standard measurements based on 8.5 ft ceiling height

    • For every additional foot of ceiling height, reduce coverage by 2 feet in all directions

    • Extension poles available to lower sensor height in rooms with tall ceilings

    • Ceiling mounting is strongly recommended for optimal 360° coverage

    • Wall mounting not advised:

      • Limits detection to 180°

      • Occupancy visualization and people counting features may not function properly

    • Recommended Coverage Areas (per sensor):

      • Nicotine and THC Vape Detection – 12 ft x 12 ft

      • Loitering and People Counting – 13 ft x 13 ft

      • Keyword Detection & Audio Analytics – 15 ft x 15 ft

    Placement Considerations:

    • Mount at least 30 inches away from:

      • Air vents

      • HVAC exhausts

      • Automatic air fresheners

    • Avoid placing sensors near obstructions such as cornered walls, which can reduce detection range and slow response times

    • The farther the vape event is from the sensor, the longer it will take to trigger an alert

    • In rooms larger than the recommended coverage area, place sensors strategically over stall areas where activity is most likely

    • Large or obstructed rooms may require multiple sensors for full coverage and accurate detection

    Example Diagram

    Occupancy Visualization Optimization

    One of the standout features of this device is the occupancy visualization feature, which uses radar to track how many people are in a room, where they are at in the room, and how long they've been there. Follow the below recommendations to optimize the accuracy of this feature.

    Radar-Based People Tracking

    • Uses radar to detect:

      • How many people are in the room

      • Where they are located

      • How long they've been there

    • Displayed both in Triton Cloud and via RTSP stream into supported VMS systems

    • Visualization appears as a live room map with real-time occupancy data

    Best Performance Conditions:

    • Works best in open spaces with minimal reflective surfaces

    • Avoid installing near:

      • Large mirrors

      • TVs or display monitors

      • Glass walls or panels

    • These reflective surfaces can cause the radar to display a single person as multiple occupants

    • Avoid installing the sensor directly above the overhead brace or headrail of a bathroom stall, as this can cause inaccuracies and a "ghosting" effect.

    Room Orientation for RTSP Mapping:

    • The orientation of the RTSP stream matches the orientation of the Triton logo on the sensor.

    • When mounting the sensor, make sure the logo is facing the direction you want to appear at the top of the RTSP stream.

    Testing the Vape Detection (Not Recommended)

    Vaping Testing Guide

    Our vape detection algorithms are trained on real-world vaping events, not artificial “tests.” Blowing directly into the sensor or filling the space with vapor often leads to false impressions because:

    • Cooldown Timer: Devices include a ~15-minute cooldown period between vape alerts. Repeated “test puffs” during this time won’t trigger new alerts.

    • Environmental Change Detection: The system looks for changes in air quality. If a room is saturated with constant vapor during a test, it’s unlikely to alert. Real vaping occurs in bursts, which the algorithm is designed to detect.

    • Masking Effect: Direct blasts of vapor are read as masking behavior, not normal vaping.

    Recommendation: We strongly advise against manual vape testing. Instead, rely on real-world use — when sensors are installed according to specifications (height, coverage, and placement), they will perform reliably