Black Swift Technologies (BST) has announced that the company’s small Unmanned Aircraft System (sUAS), SuperSwift, has been selected by the National Oceanic and Atmospheric Administration (NOAA) as the sUAS Observation System (sUASOS) for wildfire measurements in support of NOAA’s FIREX field mission and their fire weather forecasting initiative.
BST will deliver to NOAA a tightly integrated system consisting of an airframe, avionics, and multiple sensors capable of research-quality measurements of CO2, CO, aerosol, RH, p, and T in wildfire plumes, and multispectral high-resolution maps of wildfires. The sUAS will be operated by the University of Colorado’s Integrated Remote & In Situ Sensing Program (IRISS) in close collaboration with NOAA.
“One of the purposes of IRISS is to work with the science community to develop and deploy platforms which make primarily in situ measurements,” says Brian Argrow, Chair, Ann and H.J. Smead Aerospace Engineering Sciences; Director, Integrated Remote & In Situ Sensing Program (IRISS). “This naturally lead us to partnerships with NOAA on the science perspective, and to Black Swift Technologies for their sUAS technology and expertise. It’s a partnership that looks like a three-legged stool with the science interest of NOAA, the technology and engineering expertise of IRISS, and the unique sUAS platform designed by Black Swift Technologies, as the corresponding legs.”
The FireFOX sUAS is based on BST’s commercially available SuperSwift airframe and SwiftCore Flight Management System. The SuperSwift is specifically engineered to meet the demands of high altitude flights through strong winds and damaging airborne particulates typical of nomadic scientific field campaigns in harsh environments.
“While there are many sUAS manufacturers for agencies like NOAA to consider, most are simply not suitable for scientific atmospheric measurements,” commented Jack Elston, CEO of Black Swift Technologies. “The SuperSwift addresses NOAA’s requirements for endurance and operational radius (> 2 hours, and between 30 to 60km) sufficient for fire observations, its payload capability (up to 5 pounds), and its unique forward-facing payload bay, ideal for atmospheric sampling and for easy instrument package swapping.”
The ultimate goal of NightFOX is to perform nighttime in situ measurements of wildfire plumes and remote measurements of wildfire properties, and use of the measured data for fire weather forecast improvement. Due to safety concerns, manned aircraft flights are limited to daytime operations due to dangers associated with nighttime operations. Ground observations using a mobile laboratory provide detailed chemical information on fire plumes, but lack information on plume spatial (vertical and horizontal) distribution to put the point measurements in context. UAS observations are the only technology capable of this task. sUAS observations can indeed provide useful information for firefighting efforts by accurately detecting fire perimeter and identifying fire hotspots, but have not attempted to make measurements relevant to studying fire emissions or incorporate observations into fire forecast models.
“Our proposed work, if successful, will significantly advance the integration of UAS-based observations of wildfires into fire-weather modeling and forecasting,” said Dr. Ru-Shan Gao, Principal Investigator, Chemical Sciences Division, Earth Systems Research Laboratory, NOAA. “The collected data will also provide otherwise missing data for studying the impact of North American wildfires on the atmosphere and human health, and ultimately supporting better land management decisions and practices, thus contributing to NOAA OAR’s core mission “(to) advance understanding and prediction of the Earth System to enhance society’s ability to make effective decisions.”
The existence of a sUAS capable of carrying the necessary instruments routinely through harsh environments adds an invaluable contribution to the calibration and validation of data collected from ground- and satellite-based methods.
The innovations of the SuperSwift, including the total sensor suite, can be utilized for scientific research by federal and state public agencies and other state-funded laboratories to collect data on coherent atmospheric structures such as smog, volcano plumes, wildfire smoke, chemical fires, forest humidity, studying oil and gas field flares for calibration/validation of satellite measurements, etc.
“NOAA is interested in a UAS observational system (UASOS) that can use be used for fire-related measurements, and so in a sense what we want to know is when and where does the fire flow and ultimately what kind of fire and air quality will result regionally,” notes Dr. Gao. “We want to monitor the fire and incorporate the remote and in situ measurements into a fire forecast model so ultimately we’ll be able to do better fire forecasts that will help firefighters better fight the fire and keep human and property losses to a minimum.”