|Spectral Band||8-14||microns (LWIR)|
|Thermal Sensitivity||< 50||mK|
|Weight||100||g (3.5 oz)|
|Camera Interface||USB, GMSL, Ethernet and FPD-link|
|Data Format||Software-selectable: 16-bit TIFF (raw sensor forma|
|Operating Temperature||-40 to +85||°C|
|Shock||1,500 G @ 0.4 msec|
|Array format||640 × 512|
|Frame Rate||30 & 60||Hz selectable (9 Hz optional)|
|Sensor Technology||Boson™ – Uncooled VOx microbolometer|
|HFOV - Thermal||75|
|Power Consumption||1||W (without heater); ~4 W average and 12 W maximum|
|Power Requirements||Camera: 5 VDC (USB2) or 24 VDC (GMSL); Window Heat|
The FLIR ADK allows developers to add a long-range thermal camera to their ADAS development vehicles to help advance reliability and redundancy required for self-driving cars.
The thermal sensors create images from heat, not light, and can detect pedestrians and oncoming vehicles regardless of lighting condition. FLIR thermal imagers help drivers see well beyond their high beams- day, night, through most fog, smoke and haze, and past the glare of oncoming headlights or the sun low on the horizon.
The ADK’s IP67-rated enclosure incorporates a heated window for all-weather driving. The ADK has USB, GMSL, Ethernet, and FPD-Link interfaces, which makes installation plug-and-play. The thermal data stream ports into existing host platforms for recording, processing, and analytics. Multiple field-of-view configurations are available to meet various integration needs and different operational design domains.
The FLIR ADK features the high-resolution FLIR Boson, which is equipped with an Intel Movidius Myriad 2 Vision Processing Unit, a low-power multi-core vision processor that fits within a compact footprint package for automobiles. The ADK is also compatible with the NVIDIA DRIVE autonomous vehicle computing platform.
Describes the installation, operating, and controls of the hardware.
Describes the software aspect of the product.