The Choctaw Nation of Oklahoma (CNO) Beyond Program and uAvionix have received approval from the Federal Aviation Administration (FAA) for beyond-visual-line-of-sight (BVLOS) operations. The approval signifies uAvionix and the CNO have demonstrated to the FAA that the aircraft procedures, detect-and-avoid systems and control network meet the safety requirement for operation in the national airspace.
This is the second BVLOS waiver granted by the FAA for the combinations of uAvionix SkyLine software and SkyLink hardware, allowing UAV pilots operating at the CNO range to use only an electronic observer.
The CNO will be using uAvionix SkyLine command-and-control (C2) management platform and pingStation3 dual-mode ADS-B receivers at the Emerging Aviation Technology Center UAS Test Range. The SkyLine C2 management platform is integrated with the DeTect Harrier radar for surveillance, and is used to control several CNO and uAvionix owned electric vehicle takeoff and landing aircraft through muLTElink and SkyLink series C2 radios.
“Having this capability available at CNO enables our customers to conduct testing and demonstration in Oklahoma and will further serve as guidance for future applications leveraging this concept of operations,” said uAvionix President Christian Ramsey.
The U.S. Federal Aviation Administration (FAA) has issued the Special Class Airworthiness Criteria for the Wingcopter 198 U.S. unmanned aircraft. This approval marks a critical milestone in the certification process of Wingcopter’s flagship delivery drone in the United States.
Wingcopter is a German manufacturer of fixed-wing unmanned aircraft systems (UAS) and provider of drone delivery services, focused on optimizing medical supply chains, as well as last-mile logistics of packages, tools, spare parts, food, and groceries.
With the Airworthiness Criteria, the FAA defines technological requirements under title 14, Code of Federal Regulations (14 CFR), § 21.17(b) that must be met to have an aircraft type-certified for regular commercial operations in the United States.
The Wingcopter 198 is an electric vertical-takeoff-and-landing (eVTOL) drone engineered to meet stringent safety standards. In its development, Wingcopter was able to leverage the operational experience of more than five years with the company’s first delivery drone type in various geographical settings, from the Arctics to the Middle Eastern desert and from remote islands in the South Pacific to San Diego Bay in the United States.
Once type-certified, Wingcopter will be able to fly conventional routes through airspace and over populated areas, ultimately providing the basis for scaling commercial drone delivery operations across the United States that will help save and improve lives, the company said.
The certification is expected to have a positive impact on Wingcopter’s further certification efforts such as with the National Civil Aviation Agency (ANAC) in Brazil or the Japan Civil Aviation Bureau (JCAB).
Since applying for the Special Class Type Certificate in March 2020, Wingcopter has collaborated closely with the FAA. The issuance allows Wingcopter to focus its development efforts even more on what the FAA deems necessary for this particular aircraft to receive certification quickly and efficiently.
“We are proud to be among the first delivery drone companies worldwide to ever get their Airworthiness Criteria approved by the FAA,” said Tom Plümmer, co-founder and CEO of Wingcopter. “This is a very important milestone for us, not only in our Type Certification Process in the United States, but also for our international expansion efforts and for achieving our vision of building logistical highways in the sky. I would like to thank my team as well as the FAA for all the effort and great collaboration to reach this milestone.”
The U.S. Federal Aviation Administration (FAA) has made it easier for drone pilots to quickly and safely access controlled airspace by adding 133 air traffic facilities to the Low Altitude Authorization and Notification Capability (LAANC) system. The expansion is based on feedback from the drone community.
LAANC is an automated application and approval system for drone pilots requesting to fly below 400 feet in controlled airspace.
As the FAA continues to modernize the national airspace to accommodate more users, the agency made LAANC accessible for 726 airports and 537 facilities, covering 81% of eligible airspace.
LAANC is a collaboration between the FAA and the unmanned aircraft systems (UAS) industry which directly supports the safe integration of drones into the nation’s airspace. The service is accessible to all pilots who operate under the FAA’s small drone rule.
Photo: icholakov/iStock Editorial/Getty Images Plus
BahamasAir has missed the U.S. deadline for the new ADS-B mandate and is now forbidden from flying certain three of its four jets in United States airspace. The airline said it has adjusted its aircraft deployment accordingly, reports Forbes.
The U.S. Federal Aviation Administration mandated in 2010 that aircraft be equipped with hardware to use NextGen, a satellite-based air traffic control management system, to replace traditional ground radar technology. This step of the transition requires aircraft to have Automatic Dependent Surveillance-Broadcast Out (ADS-B) capability either at time of manufacture or retrofitted with a kit.
BahamasAir was unable to equip three of its Boeing 737-500s with ADS-B before the Jan. 1 deadline, so those aircraft have been taken off the routes it flies to Florida. It has one 737-700 and five ATR regional airliners that have ADS-B, and is using those aircraft for Florida. It also leased some planes to meet holiday season demands.
The airline says it’s maintaining its full schedule with no changes and the old 737s should be fixed in the next few months. Meanwhile, the agency has granted an exemption to the government of Canada for two of its old airframes.
Canadian Changes
The Royal Canadian Air Force operates four Challenger 601 business jets to take government and military officials on shorter flights in the U.S. and Canada. Two of those jets are too old to receive the ADS-B upgrade, so the FAA has said it will be allowed into U.S. airspace but may not get the most convenient routing from air traffic control, according to AVWeb. The FAA does have a process to waive the ADS-B requirement, but it has warned that the exemptions will be issued only under exceptional circumstances.
On Jan. 2, an Air Canada flight leaving Saint John was forced to avoid United States airspace on Thursday and take a longer path to Toronto, avoiding flying over Maine because of the mandate, reports the New Brunswick Telegraph-Journal. The change in flight pattern added roughly 20 minutes to the trip. Air Canada won’t speculate if the longer flight path and extended travel time will happen again.
Raytheon Company has signed a strategic agreement with AirMap, an airspace intelligence platform for drones, to collaborate on projects to safely integrate unmanned aerial systems (UAS) into the national airspace system. This will help unlock the positive economic and social benefits of expanded commercial drone operations, the companies said.
Unmanned air traffic control advances will unlock safe, efficient and scalable drone operations with a myriad of economic and social benefits.
“AirMap is ushering in a new era in drone aviation,” said Matt Gilligan, vice president of Raytheon’s Intelligence, Information and Services business. “Drones must safely operate in an already complex ecosystem, which is where our experience matters.”
The agreement combines the two companies’ expertise:
Raytheon’s Standard Terminal Automation Replacement System, or STARS, is used by air traffic controllers across the U.S. to provide safe and efficient aircraft spacing and sequencing guidance for more than 40,000 departing and arriving aircraft daily at both civilian and military airports.
AirMap is a global provider of airspace intelligence for UAS operations, with over 250,000 registered users. In 2018, U.S. registered commercial drone pilots used AirMap to request more than 45,000 automated authorizations to fly in controlled airspace.
“Raytheon technology has helped safely and effectively manage airspace in the most complex, dense controlled airspace in the world for decades,” said Ben Marcus, AirMap co-founder and chairman. “They are an ideal partner to join AirMap on the path toward enabling safe, efficient, and scalable drone operations in U.S. low-altitude airspace between 0 and 400 feet.”
The two companies are working toward an integrated demonstration that will showcase how AirMap’s unmanned aircraft traffic management platform can increase air traffic controllers’ awareness of potential conflict between drones and manned aircraft near airports to ensure overall safety of the airspace.
More than 100 control towers and airports have been added to the hundreds of Federal Aviation Administration (FAA) air traffic facilities and airports that currently use the Low Altitude Authorization and Capability (LAANC) system.
LAANC is a collaboration between the FAA and industry that directly supports the safe integration of unmanned aircraft systems (UAS) into the nation’s airspace.
LAANC expedites the time it takes for a drone pilot to receive authorization to fly under 400 feet in controlled airspace. By adding contract towers to the number of LAANC-enabled facilities, drone pilots will have access to more than 400 towers covering nearly 600 airports.
In less than two years, LAANC has provided fast access to controlled airspace for more than 100,000 flights, according to Matt Fanelli, director of strategy at Skyward.
Image: Skyward
“People have been asking the FAA to add more airports and today, 109 contract towers have now been added to LAANC.” Skyward has updated its 2019 LAANC Facilities Guide so that UAV pilots can easily reference airports near them that will be adding this service.
Contract towers are air traffic control towers that are staffed by employees of private companies rather than by FAA employees. LAANC provides air traffic professionals with visibility into where and when authorized drones are flying near airports and helps ensure that everyone can safely operate within the airspace.
The expansion to more than 100 contract towers means the FAA has further increased drone pilots’ access to controlled airspace safely and efficiently.
LAANC is used by commercial pilots who operate under the FAA’s small drone rule (PDF) (Part 107). The FAA is upgrading LAANC to allow recreational flyers to use the system and in the future, recreational flyers will be able to obtain authorization from the FAA to fly in controlled airspace.
For now, recreational flyers who want to operate in controlled airspace may only do so at fixed sites.
The Federal Aviation Administration’s (FAA) nationwide deployment of the Low Altitude Authorization and Notification Capability (LAANC) has exceeded all of the program’s original objectives.
Since the program began with a prototype system in November 2017, LAANC has processed more than 50,000 applications from drone operators for authorization to fly in controlled airspace. The system now covers almost 300 air traffic facilities serving approximately 500 airports, providing near-instantaneous approvals and allowing operators to quickly plan their flights. View a list of the participating facilities.
LAANC helps support the safe integration of drones into the nation’s airspace. The system uses airspace data provided through temporary flight restrictions, Notices to Airmen (NOTAMs) and unmanned aircraft system (UAS) facility maps that show the maximum altitude ceiling around airports where the FAA may authorize operations under Part 107, the small drone rule for commercial and public agency operators.
LAANC Service Suppliers
The FAA has approved 14 LAANC service suppliers. Instructions on how to apply are provided by each supplier:
Drone operators also can file for airspace authorizations using the FAA DroneZone, including for areas not covered by LAANC or when the operator holds a Part 107 waiver.
NextNav’s Metropolitan Beacon System (MBS) service has been accepted for use by NASA. NASA will use NextNav’s MBS network as part of its CERTAIN (City Environment for Range Testing of Autonomous Integrated Navigation) facilities at NASA’s Langley Research Center in Hampton, Virginia.
CERTAIN supports, among other programs, Urban Air Mobility (UAM), an air transportation system with myriad applications from small package delivery drones to passenger-carrying air taxis.
The Federal Aviation Administration (FAA) believes that by 2022 there will be more than 700,000 drones delivering packages, monitoring traffic and aiding in search and rescue operations. NASA’s role is to provide research findings to reduce technical barriers associated with integrating unmanned aircraft systems into the national airspace system.
NextNav’s MBS system facilitates urban drone operations where satellite-based GPS signals may not be available. The need to reliably know a drone’s location horizontally and vertically is critical to ensure safe operations in urban air traffic corridors.
Uber in the Mix. Uber and Bell (formerly Bell Helicopter) plan to launch an on-demand mobility venture, or flying taxis, nationwide by 2023, so the need to precisely track vehicles moving throughout city airspace is imminent.
The move to such flying taxis would require a change to current FAA-controlled airspace separation requirements, according to Tom Prevot, Uber’s director of airspace systems. He stated that the Uber venture foresees takeoffs and landings from city vertiports every 24 seconds, requiring a considerable reduction in the minimum-distance standards of 1,000 feet vertically or 3 to 5 nm horizontally, as currently mandated in FAA order JO 7110.65.
Metro Beacons. “NextNav’s MBS system provides us with new tools for the development of navigation systems in environments where GPS has traditionally been challenged,” said Evan Dill, Safety-Critical Avionics Systems Branch of NASA. “We’re looking forward to working with MBS as we develop new approaches to the operation of unmanned systems in urban environments.”
NextNav’s wide-area terrestrial positioning network provides accurate and secure location services, critical for unmanned aircraft navigation. In addition, MBS complements and integrates seamlessly with GPS and provides a level of geo-redundancy ensuring a safe and efficient system for future air transportation in cities and urban areas, with particularly difficult challenges at low altitudes where solutions such as radar, GPS and ADS-B are unreliable or insufficient.
Delivered over a managed network on nationwide licensed spectrum with carrier-grade dependability and metropolitan-wide coverage, NextNav said its services are designed for public safety applications, E911, critical infrastructure, as well consumer, Internet of Things (IoT) and commercial applications that require reliable 3D geolocation indoors and urban areas or precise timing.
Future city airspace filled with drones and passenger aircraft. (Image: NASA)
“We are proud to work with NASA and integrate MBS into its urban drone operations,” said Ganesh Pattabiraman, co-founder and CEO of NextNav. “The MBS system is designed for secure, reliable and consistent 3D geolocation capabilities, which are important for autonomous systems such as drones. NASA’s acquisition of the MBS system is an exciting milestone for MBS technology and a great partnership with NASA to address the key challenges in urban drone navigation and make it possible to explore new opportunities in unmanned operations.”
New risk-based “bow-tie” zones will help protect aircraft using PrecisionHawk’s Low Altitude Traffic and Airspace Safety (LATAS) platform.
DJI is improving its geofencing technology to refine the airspace limitations for drone flights near airports, providing smarter protection for airplanes in critical areas.
DJI has updated Geospatial Environment Online (GEO) Version 2.0, and will phase it in starting in November when the revised zones will take effect for airspace around airports in the United States. Upgrades in other regions will follow.
Image: DJI
The new system allows GEO to create detailed three-dimensional “bow-tie” safety zones surrounding runway flight paths, and to use complex polygon shapes around other sensitive facilities, rather than simple circles.
The new restrictions better reflect the actual safety risk posed in those areas, while allowing more flights to the side of runways where risk is substantially lower.
Runway exclusion zones. DJI’s new geofencing also incorporates the principles of Section 384 of the recently enacted U.S. Federal Aviation Administration (FAA) Reauthorization Act designating the final approach corridor to active runways at major airports to be “runway exclusion zones” for unauthorized drones. DJI customers should update their DJI GO 4 flight control app and aircraft firmware to ensure these improvements are implemented.
To obtain reliable geospatial information for the enhanced shapes in GEO 2.0, DJI has chosen a new data provider that can provide highly accurate details such as the exact locations of airport runways and facility boundaries.
PrecisionHawk’s LATAS. In North America, DJI will use data from PrecisionHawk Inc., replacing DJI’s previous geospatial data provider AirMap. Under a partnership agreement, PrecisionHawk’s Low Altitude Traffic and Airspace Safety (LATAS) platform will provide DJI customers with critical airspace information that will position them to fly safely in North America.
DJI will be able to refine airspace limitations for drone flights near airports, providing smarter protection for drones in critical areas and clarifying restrictions, PrecisionHawk said.
“PrecisionHawk has a corporate commitment to safely integrating drones into the airspace and enabling complex operations,” said Diana Cooper, senior vice president of policy and strategy at PrecisionHawk. “Through our work under the FAA Pathfinder Program, we have shown how technology can play a critical role in unlocking advanced operations, including beyond visual line of sight flight.”
GEO 2.0 Development. DJI first created No-Fly Zones for its drones in 2013 and introduced the more refined GEO system three years later, adding live updates and new zones for prisons and nuclear power plants, while providing flexible self-unlocking for professionals.
Both systems recognized that the overwhelming majority of drone pilots want to fly safely and responsibly, and want an easy-to-use guide to help them understand the airspace so they can do so.
Artist’s rendering of a no-drone sign near an airport. Image: PixOne/Shutterstock.com
To develop GEO 2.0, DJI collaborated with general aviation pilots through the Aircraft Owners and Pilots Association (AOPA) and with airports through the American Association of Airport Executives (AAAE) to incorporate their expertise and guidance about air traffic and airports into DJI’s new geofencing methods.
DJI geofencing uses GPS and other navigational satellite signals to automatically help prevent drones from flying near sensitive locations such as airports, prisons, nuclear power plants and high-profile events.
In certain locations, a DJI drone cannot take off or fly in a geofenced area without special authorization. Drone pilots with verified DJI accounts can unlock some areas if they have legitimate reasons and necessary approvals, but the most critical areas require special action from DJI to unlock them.
DJI has streamlined the approval process so professional drone pilots with authorization to fly in sensitive locations can receive unlocking codes within 30 minutes.
The GEO System. The GEO system previously geofenced a 5-mile circle around airports, with enhanced restrictions in a smaller circle encompassing the airport area.
GEO 2.0 applies the strongest restrictions to a 1.2 kilometer- (3/4 mile)-wide rectangle around each runway and the flight paths at either end, where airplanes actually ascend and descend. Less strict restrictions apply to an oval area within 6 kilometers (3.7 miles) of each runway.
This bow-tie shape opens more areas on the sides of runways to beneficial drone uses, as well as low-altitude areas more than 3 kilometers (1.9 miles) from the end of a runway, while increasing protection in the locations where traditional aircraft actually fly.
Artist’s concept of a drone approaching a commercial airliner. Image: PixOne/Shutterstock.com
Aviation Parameters. DJI’s new boundary areas around airport runways are based on the International Civil Aviation Organization’s Annex 14 standard for airspace safety near runways and the FAA’s Part 77 parameters for “imaginary surfaces” and air navigation obstructions.
DJI’s categorization of airports is based on traffic volume principles defined in statutes such as U.S. Title 49 section 47102, and the FAA’s criteria developed in 2012 for categorizing general aviation airports.
Using these aviation parameters, DJI has aligned its geofencing safety feature to broader understandings of airspace and airport risk. This chart demonstrates how GEO 2.0 applies those detailed, risk-based airspace boundaries to the airspace around airports that can be considered to involve relative high, medium, and low risk (see graphic).
LATAS. Through its work under the FAA Pathfinder Program, PrecisionHawk has shown how technology such as LATAS can play a critical role in unlocking advanced operations, including beyond visual line of sight flight. LATAS was tested under the Pathfinder Program to facilitate safe beyond visual line of sight operations.
LATAS brings a combined set of geospatial and software tools to the market. In addition to providing improved geospatial data, the LATAS platform features specialized display elements, including telemetry and access to the Harris real-time manned aircraft feed. Using these elements pilots can easily observe the relative altitude and horizontal separation of intruding aircraft and other mission-critical measures.
Photo: iStock.com/NiseriN via the Federal Aviation Administration
In cooperation with the U.S. Department of Defense (DoD), the Federal Aviation Administration (FAA) is establishing restrictions on drone flights up to 400 feet within the lateral boundaries of National Geospatial-Intelligence Agency (NGA) facilities.
The temporary flight restrictions — specific to unmanned aircraft systems (UAS) — apply to three NGA facilities in or near St. Louis:
National Geospatial-Intelligence Agency (NGA) West
NGA Next West
NGA Arnold
In June, the FAA responded to federal agency requests and restricted drone operations over penitentiaries and Coast Guard bases.
The Federal Aviation Administration (FAA) is using its existing authority under Title 14 of the Code of Federal Regulations § 99.7 — “Special Security Instructions” — to address concerns about drone operations over national security-sensitive facilities.
The changes, which are highlighted by FAA NOTAM FDC 8/7350, are pending until they become effective on Aug. 30.
Only a few exceptions permit drone flights within these restrictions, and they must be coordinated with the individual facility and/or the FAA.
Operators who violate the flight restrictions may be subject to enforcement action, including potential civil penalties and criminal charges.
To ensure the public is aware of restricted locations, the FAA website also provides an interactive map, downloadable geospatial data and other important details. The restrictions also are depicted in the FAA’s B4UFLY mobile app. Broader information regarding flying drones in the National Airspace System, including frequently asked questions, is available on the FAA’s UAS website.
The FAA continues to consider additional requests by eligible federal security agencies for UAS-specific flight restrictions using the agency’s § 99.7 authority as they are received. Additional changes to these restrictions will be announced by the FAA as appropriate.
The Nevada Institute for Autonomous Systems (NIAS) and its NASA Unmanned Traffic Management (UTM) partners flew multiple unmanned aerial systems over a week-long testing period at the Nevada UAS Test Site at the Reno-Stead Airport.
NASA UTM Testing. Credit: NIAS. (PRNewsfoto/Nevada Institute for Autonomous)
This third phase of NASA’s UAS testing (TCL 3) again focused on airspace management technologies that will enable the safe integration of UAS into the national airspace.
NASA provided a Flight Information Management System (FIMS) research platform that will serve as a future prototype system for the U.S. Federal Aviation Administration (FAA) to use to coordinate with unmanned service suppliers operating throughout the nation.
Research areas of emphasis during the testing included UAS ground-control interfacing to locally manage operations, communication, navigation, surveillance, human factors, data exchange, network solutions and beyond-visual-line-of-sight (BVLOS) architecture.
On media day, a team from the Reno Fire Department simulated an incident with a victim experiencing severe blood loss and who needed an immediate transfusion. A multi-rotor UAS from Drone America was equipped with a container that held an actual packet of blood to be transported via drone in Nevada.
High winds and frigid temperatures tested both the drone and those on the ground, but the drone successfully landed in the designated landing area so that firefighters could retrieve the blood packet and begin the faux-transfusion.
The partners not only demonstrated drone flight capability, but also tested UAS traffic mapping and sensor and radar technology, all of which were connected through a NASA UAS Service Supplier (USS) network to NASA Ames.
Technology Capability Levels
NASA’s near-term goal is the development and demonstration of a possible future UTM system that could safely enable low-altitude airspace and UAS operations. Working alongside many committed government, industry and academic partners, NASA is leading the research, development and testing that is taking place in a series of activities called “Technology Capability Levels (TCL)”, each increasing in complexity.
UTM TCL1 concluded field testing in August 2015 and is undergoing additional testing at an FAA site. Technologies in this activity addressed operations for agriculture, firefighting and infrastructure monitoring, with a focus on geofencing, altitude “rules of the road” and scheduling of vehicle trajectories.
UTM TCL2, completed in October 2016, leveraged TCL1 results and focused on beyond visual line-of-sight operations in sparsely populated areas. Researchers tested technologies that allowed dynamic adjustments to availability of airspace and contingency management.
UTM TCL3, just completed, leveraged TCL2 results and focused on testing technologies that maintain safe spacing between cooperative (responsive) and non-cooperative (non-responsive) UAS over moderately populated areas.
UTM TCL4, with dates to be determined, will leverage TCL3 results and focus on UAS operations in higher density urban areas for tasks such as news gathering and package delivery. It will also test technologies that could be used to manage large-scale contingencies.
NASA’s UTM technologies research and development is taking place in collaboration with the FAA. Results of research in the form of airspace integration requirements are expected to be transferred from NASA to the FAA in 2019 for the FAA’s further testing.
“Advanced flight and highly technical scenarios like drone detection, surveillance of critical infrastructure aerial package delivery of critical first responder medical supplies, to the important NASA data interoperability protocols that will eventually form the backbone of the UTM system, we focused heavily on communications, navigation and surveillance to produce critical data for the NASA TCL 3 Campaign,” said Chris Walach, the senior director of NIAS and the FAA-designated Nevada UAS Test Site. “Our Nevada teammates did an amazing job working together to successfully complete the first series of major testing for NASA’s TCL 3 Campaign.”
Public Services and Procurement Canada has awarded a contract to Ottawa-based Kongsberg Geospatial for an emergency operations airspace UAV tracking system.
Kongsberg Geospatial, an Ottawa-based developer of geospatial software technology, was awarded the contract to produce an Emergency Operations Airspace Management System (EOAMS) for evaluation by Canadian government agencies for safely managing drones at emergency and disaster scenes.
The contract was awarded via a competitive request for proposals under the Canadian Safety and Security Program in a project for Defense R&D Canada’s Centre for Security Science.
A small UAV is shown surveying the movement of a forest fire. The EOAMS would allow first responders to deploy drones at disaster scenes without endangering other emergency response aircraft or commercial flights. (Photo illustration: Kongsberg Geospatial)
The EOAMS is a portable display that interfaces with a variety of local sensors, including radar and Automatic Dependence Surveillance — Broadcast (ADS-B) receivers to give a clear picture of the airspace around disaster areas.
The system is intended to allow first responders to safely use unmanned aerial vehicles (UAVs) to survey the area, without risking collision with other emergency aircraft, including water bombers or rescue and police helicopters.
The system would also provide a warning to first responders if unapproved UAVs approach the area – providing a degree of protection against what is becoming an increasing problem with the proliferation of small consumer camera drones at fires and accident scenes.
The Government of Canada is expected to begin flight operations testing with the new Emergency Operations Airspace Management System in the summer of 2018.
“Securing and managing the airspace around disaster scenes or at big public events is becoming a real concern for all levels of government,” said Paige Cutland, IRIS program director for Kongsberg Geospatial. “Even if a drone operator isn’t acting with malicious intent, they have the potential to cause considerable harm if, for example, they fly into the path of an air ambulance. We need effective tools to help prevent this while also allowing legitimate UAV operations to be safely integrated into the emergency airspace.”
The new EOAMS will be based on Kongsberg Geospatial’s IRIS UAS airspace visualization system. The IRIS spatial awareness system evolved from technology originally developed for air traffic management display systems, and for supporting flight operations for military UAV systems like the U.S. Navy Triton Global Hawk.
The system has been developed for safely operating UAVs beyond visual line-of-sight (BVLOS), and has been adopted by the FAA ASSURE group for use in research toward developing regulations for commercial BVLOS operations in the United States.
“Kongsberg Geospatial has been pioneering innovation in airspace management for unmanned aircraft for over a decade,” said Ranald McGillis, president of Kongsberg Geospatial. “With the EOAMS project, we have the opportunity to introduce some really exciting capabilities in a portable system that will help first responders use UAVs in new and effective ways to support emergency response efforts.”
