The Sagar Defence Spectre UAV. (Photo: Sagar Defence Engineering)
Altitude Angel, an unmanned traffic management (UTM) technology provider, is partnering with Mumbai-based Sagar Defence Engineering Ltd. in BVLOS trials supported by India’s Directorate General of Civil Aviation (DGCA).
Together, Altitude Angel and Sagar Defence have been selected by India’s DGCA to carry out beyond-visual-line-of-sight (BVLOS) drone operations. The results of the trials will help define India’s regulatory framework for unmanned aerial vehicles (UAVs) in routine UAV deployment.
Altitude Angel’s GuardianUTM platform will enable BVLOS drone flights around a multitude of real-life scenarios including medical and cargo delivery, surveillance operations, survey & mapping, and search & rescue operations.
The Union Government has recently begun the process of granting regulatory permissions to the operation of drones for commercial purposes.
On participating in the BVLOS trials Richard Ellis, Altitude Angel’s chief business officer, said, “The potential for UAV use in India is immense so we’re excited to be partnering with Sagar Defence on these BVLOS trials. The ability to fly safely and securely BVLOS will unlock the potential of drones not just in India, but across the world. With Sagar, we’re very much looking forward to showcasing our proven technology to demonstrate the amazing use-cases of drones.”
Mridul Babbar, Sagar Defence’s business development head added, “Sagar Defence Engineering and Altitude Angel, two highly skilled teams, coming together for the BVLOS trials is a very strong partnership and one we’re thrilled to be part of. The combination of our UAVs and Altitude Angel’s world leading UTM platform will undoubtedly help advance the prospects of BVLOS flight across India and beyond.”
The BVLOS trials are scheduled to take place from August through to October 2020.
The trials will further build on trials Altitude Angel has been involved in this year. The company served as the lead and umbrella UTM for the Lake Kivu Challenge, part of the African Drone Forum, which took place on the shores of Lake Kivu, Rwanda, in January.
A drone-versus-piloted attack aircraft, deliveries of medical supplies in North Carolina, unmanned meal deliveries in India and anti-drone protection for the Kennedy Space Complex are just a small sample of unmanned air vehicle news this month.
Even the U.K. BBC TV network picked up the news over the weekend that the U.S. Air Force (USAF) plans to pit an unmanned drone against a manned fighter aircraft, maybe even as early as July next year. The candidate fighter drone is thought to come from the USAF’s “Skyborg” research program — a wide ranging initiative aimed at incorporating artificial intelligence (AI) into unmanned vehicles which can out-think and out-fight the opposition.
The logic seems to be that if you could somehow ‘can’ all the experience of today’s pilots – somehow distill all their knowledge and stuff it into electronic memory and have AI use this data-base – then an unmanned fighter drone would somehow do better in combat against a hostile, manned aircraft. Probably a good idea, but how could it be made to work?
The Loyal Wingman in its first test flight. (Photo: U.S. Air Force 88th Air Wing Public Affairs)
And the prime candidate to try all this is out could be the “Loyal Wingman” which was recently rolled out by its manufacturer Kratos. With a target price-tag of only $2 million each (for qty 100), USAF apparently foresees a future with lots of these “disposable’”guys accompanying the manned F-18, F-35, F-22 and future fighters into battle. Perhaps the airborne pilot could even coach his unmanned colleagues through an upcoming dogfight, augmenting the onboard knowledge carried by the drone? Seriously Si-Fi sounding stuff, but its apparently already well on its way.
And would current day autonomous drone operations count as using AI? Well such a drone uses a GNSS nav system and an operator pre-programs a route prior to launch, which the drone then refers to when airborne — even dropping off a package on cue when it arrives at destination, and turning round to fly the same route back home. So referring to an on-board waypoint data-base and executing a beyond visual line of sight (BVLOS) flight on its own — its somewhat limited AI, but the drone is independently doing a task once instructed.
Which brings us to the recent pandemic-related operations that operator Zipline has just begun running out of Kannapolis, North Carolina – from a vacant lot near a Novant Health logistics center — to the Huntersville Medical Center. With only regular capability to operate in accordance with Part 107 regulations, Zipline applied for a waiver to not only fly around population centers, but also to fly beyond visual line of sight (BVLOS). The Federal Aviation Administration (FAA) granted emergency authorization for Zipline to support Novant’s hospital and clinic COVID-19 response.
Fortunately, Zipline is coming off over four years of proven medical drone delivery operations in Rwanda and Ghana, so they have very credible capability to perform similar deliveries in North Caroline. Its possible that FAA took this excellent operational record into account in granting this Zipline waiver.
Nevertheless, Novant and Zipline plan to continue with their efforts to gain full FAA Part 135 authorization to regularly operate this medical package delivery service to Hospitals and Clinics in North Carolina. Meanwhile, this first of a kind long-range BVLOS service in the U.S. will continue to gather more airborne miles each day and demonstrate good confidence in safety and reliability. With over 1.8 million miles already flown during their African medical delivery service, Zipline is apparently coming from an established baseline capability.
In India — a country which has been testing drone services for the express deliveries of food to people’s homes — looks like they are ready to see if drones can be given the OK to operate all the time. The Directorate General of Civil Aviation (DGCA) has authorized a consortium of 13 companies to test drones flying BVLOS over longer distances to complete deliveries. DGCA apparently may have also been motivated to speed up shipments during the COVID-19 pandemic and SpiceXpress, one of the consortium members, will initially focus on delivering medical emergency/essential supplies after the trials are complete.
But overall, the objective for most consortium members is to get approval for meal deliveries by drone to become common practice in India. This will depend on the reports which the trial participants are required to submit to Airport Authority of India by September 30, 2020 from at least 100 hours of flight operations — hopefully without any serious incidents.
Not sure if everyone watched the SpaceX/NASA Demo-2 launch of the manned Dragon capsule on May 30, but I was glued to the NASA TV broadcast throughout. A truly significant event with not only a manned launch to the ISS by a commercial company, but a launch from Kennedy Space Center pad 39A — the first in nine years from U.S. soil.
Turns out we managed to get a ‘drone’ angle into the launch — or actually an absence of pesky drone interlopers at the launch site. Kennedy has been operating an anti-drone system for several previous launches — detecting and alerting any drone activity within the restricted airspace volume around pads 39A &B.
A mobile, all-weather Moog “Gauntlet” detection/alert system has been deployed for some time at Kennedy, watching for anything drone like within the confines of the launch area. The system is apparently visual, records evidence and provides alert indications over a secure VPN network, presumably to launch control and Kennedy security.
So this month we have news of a potential UAV-manned aircraft showdown, long-range drone deliveries of medical supplies in the U.S., Indian delivery drone qualification, and a drone detection system in use to protect the recent SpaceX crewed launch to the ISS. There is a lot going on, with high levels of complexity and good news in the fight against the pandemic for at least one hospital group in North Carolina.
Skyports’ delivery drone, manufactured by Wingcopter, takes flight. (Photo: Wingcopter)
Skyports and Thales are partnering to conduct a drone delivery trial for the National Health Service (NHS) to support the United Kingdom’s COVID-19 response.
The trial, being conducted in Scotland, aims to prove the feasibility of delivering urgent medical cargo, such as COVID-19 test kits and Personal Protective Equipment (PPE), between remote medical facilities by delivery drone. The trial is backed by Argyll and Bute Health and Social Care Partnership (HSCP) — the integrated partnership of NHS Highland and Argyll and Bute Council directed by the local Integration Joint Board.
U.K. drone delivery provider Skyports will conduct the trial and operate the flights using delivery drones supplied by unmanned aircraft-maker Wingcopter, because of its proven capability through numerous delivery operations around the world. The trial flights will be planned through Thales’ drone operations management platform, SOARIZON, which offers digital tools to maintain compliant and safe drone flying operations.
Based at Lorn and Islands Hospital in Oban, the trial will consist of two-way flights between the hospital and Mull and Iona Community Hospital in Craignure 10 miles (16km) away on the Isle of Mull.
As COVID-19 testing rapidly gathers pace in the U.K., the proposed delivery service will help to ensure that isolated communities have access to tests, delivered in a fast and efficient way. Currently, the majority of medical supplies and specimens are transported between the laboratory at Lorn and Islands Hospital, surrounding general practitioners’ surgeries and other healthcare settings by sea and road, a long and complicated journey.
The service would cut delivery times from up to six hours one way by ground transport and ferry, to 15 minutes for on-demand delivery by drone. The speed would contribute to keeping front line medical and delivery personnel safe.
Answering the call from government and Argyll and Bute HSCP, in response to the COVID-19 crisis, the trial is the result of rapid mobilization from industry as well as the Civil Aviation Authority (CAA), local government, NHS Scotland and the U.K. Department for Transport (DFT). Argyll and Bute HSCP has been at the forefront of exploring with Skyports the use of unmanned aircraft technology, building on preliminary work with the Scottish government on the possibility of drone use by the public-sector emergency services in Scotland.
The two-week trial represents a crucial milestone for unmanned aviation in the U.K. Under current rules, drones must always be flown within visual line of sight of the remote pilot. To undertake these more extended flights (beyond visual line of sight, or BVLOS), the project team has been in close consultation with the CAA.
Through this trial, the alliance aims to prove the long-term, sustainable viability of such services; bringing together regulation, government and industry to unlock the transformational potential of drones for society when used in a safe, secure and controlled way.f this new service.”
Thales and Skyports are also working together within the CAA Regulatory Sandbox programme, exploring how regulatory approvals can be granted for more widespread BVLOS drone operations in the U.K.
Once the trial has been successfully completed, the team will continue to work closely with the CAA and the NHS to make services available in Scotland and across the U.K. to provide access to this innovative technology to a wide range of organisations, in particular a number of other NHS Boards and Trusts.
SUGUS — a European Commission project to promote European GNSS services for the integration of drones into the airspace — is conducting an online survey of stakeholders.
SUGUS, the European Commission’s project for the development of European GNSS (Galileo and EGNOS) services for U-space, is carrying out a survey to identify, gather and understand stakeholders’ needs, and to improve user experience of E-GNSS in complex operations and built-up areas.
U-space is a set of new services and specific procedures designed to support safe, efficient and secure access to European airspace for large numbers of drones.
SUGUS members invite all the stakeholders to take part in the survey, including suppliers of U-space services, manufacturers of unmanned aerial systems (UAS) platforms and GNSS receivers, UAS pilots and operators, public bodies, authorities and organizations, and centers for UAS testing and training.
The survey will be available until May 15.
The survey results will be used as a valuable input to tailor the E-GNSS Service Provision layer to specific drone missions’ needs, allowing a better mitigation of risks in complex operations like BVLOS (beyond visual line of sight) and UAM (urban air mobility), increasing safety and security.
Also, the points of view collected will help to define the requirements and then the implementation of a new E-GNSS-based API which will deliver live and forecast information about performance, coverage, alerts to users and more.
The API will be called upon by UTM service providers, UAS designers or UAS systems developers, and integrated in existing commercial solutions.
“The survey organized by SUGUS is a key element for E-GNSS Programs to capture user requirements of the drone community,” explained Miguel Aguilera, European Commission advisor. “The results will be used to enhance EGNOS and Galileo Service Provision targeting drone operations, increasing safety and security, and facilitating a swift and efficient deployment of U-space.”
SUGUS Project
SUGUS (Solution for E-GNSS U-Space Service) is a European Commission’s project to promote European GNSS services (EGNOS and Galileo) for the drone market and for the effective and safe integration of these aerial platforms in the airspace.
It is a European Union H2020 R&D project to be carried out by GMV (main contractor) with everis Aerospace, Defense and Security as co-leaders of a consortium also involving VVA Brussels, ESSP, FADA-CATEC and Unifly.
SUGUS will help to develop services geared towards the effective integration of drones into the airspace. A series of trials will be held to show the benefits of E-GNSS for drone operators, as well as its approval by aviation authorities.
Launch of the RedKite drone. RedKite is a long-endurance sub-20-kg UAS designed to carry payloads of up to 5 kg. (Photo: Blue Bear Systems)
Blue Bear Systems Research Ltd. has successfully demonstrated a fully autonomous suite of multiple drone swarm assets under beyond-visual-line-of-sight (BVLOS) conditions.
The technology enables complex drone operations where multiple assets are able to carry out simultaneous tasks controlled by a single user to create a swarm effect.
The five fixed-wing drones clocked up to 15 hours of flying time, over four days, in challenging weather conditions. The swarm comprised a combination of Blue Bear’s Redkite and Cobra fixed-wing systems, which flew multiple simultaneous sorties from a test range in the northwest of England.
The drones were equipped with the latest automatic dependent surveillance-broadcast (ADS-B) technology, and the airspace was managed by Blue Bear’s airspace deconfliction software. All of the assets were controlled by a single operator from Blue Bear’s mission command control system in Bedfordshire, England.
“This is an exciting development for us, proving our ability to operate multiple drones, simultaneously, using the latest Blue Bear technology to deliver a swarm effect under BVLOS conditions,” said Ian Williams-Wynn, managing director of Blue Bear Systems.
UAVOS has successfully tested its cargo delivery UVH-170 unmanned helicopter. The trial aimed to validate a highly automated delivery flight from a vendor to a destination and back, across precisely pre-selected pathways.
The flight took 1.7 hours and covered a standoff distance of 62 miles (100 kilometers). Critical humanitarian aid weighing 17.6 lbs (8 kg) was delivered with neither the need to land nor the need for a ground-control station on the receiving side.
UAVOS’s UAS is equipped with line-of-sight data link (LOS) and satellite communication data link, which supports beyond visual line of sight (BVLOS) flights. Watch the cargo delivery UVH-170 UAV in action.
UVH-170 unmanned helicopter is designed for commercial operations and immediate air response, emergency relief under demanding conditions and tight timescales. The aircraft’s high standoff distance makes it well-suited to humanitarian and disaster relief applications.
The capabilities of the UVH-170 unmanned helicopter address many social (medical, pharmaceutical, remote communities, humanitarian aid, etc.) and economic (mining, oil and gas, courier, etc.) use-cases being requested by customers.
The solution is based on the gasoline engine UVH-170 unmanned helicopter. With a maximum take off weight of 99 lb (45 kg), and a payload of up to 22 lb (10 kg), the UVH-170 flies at an altitude of less than 8,200 ft (2,500 m) at maximum speed of 74 mph (120 kph).
“As we have seen during the trials, the customers can derive significant benefits from the use of the UVH-170 UAV,” said Aliaksei Stratsilatau, CEO and Lead Developer of UAVOS. “As a robust VTOL platform, the UVH-170 does not require any additional take off or recovery equipment, which makes it perfect for delivery to remote areas. Besides, the unmanned helicopter has demonstrated capability to operate in windy conditions with gusts more than 14 mps.”
UAVOS has offices in Hong Kong, the United States and Europe. Among UAVOS’ unmanned technologies is the high-altitude pseudo-satellite (HAPS) ApusDuo, multi-platform autopilot solution for converting manned vehicles of all types into unmanned, and unmanned aerial vehicles aimed to counteract systems of electronic warfare.
Feature photo: UVH-170 unmanned helicopter is designed for immediate deliveries. (Photo: UAVOS)
Iris Automation released Casia 360, an onboard detect-and-avoid solution with a 360-degree radial field of view to enable commercial beyond visual line-of-sight (BVLOS) operations for unmanned aircraft systems (UAS).
According to the company, Casia 360 system has the ability to detect other aircraft in all directions. It then uses computer-vision algorithms to classify them, makes intelligent decisions about the threat they may pose to the drone, then triggers an alert to the pilot in command and automated maneuvers to safely avoid collisions.
Casia 360, a low size, weight and power system, is composed of two onboard controllers and five long-range optical cameras that provide a 360-degree field of view. The software is packaged in a self-contained embedded supercomputer that works with the machine vision cameras onboard, the company said.
“Casia 360 allows a drone to have a complete sense of its surroundings so it can avoid potential collisions from any direction,” said Alexander Harmsen, CEO of Iris Automation. “We developed this technology based on feedback from our customers and regulatory bodies around the world. It enables drones to be used for an even greater range of long-distance use cases and saves money, increases safety and unlocks applications across multiple industries: railway, energy sector, utility powerline inspections, package delivery, and life-saving search and rescue operations.”
Iris Automation, based in San Francisco, is an artificial intelligence and safety avionics company building collision-avoidance systems for autonomous vehicles.
MVT Geo-solutions, in partnership with Iris Automation, has been granted the first beyond-visual-line-of-sight (BVLOS) Special Flight Operations Certificate (SFOC) by Transport Canada using only onboard detect-and-avoid (DAA) systems.
The approval was granted based on the utilization of Iris Automation’s DAA system, called Casia, which provides commercial drones with automated collision avoidance maneuvers.
The waiver permits flights within the Unmanned Aircraft Systems (UAS) Center of Excellence’s controlled airspace Remotely Piloted Aircraft System (RPAS) test range in Alma, Quebec. This is the first BVLOS flight at the location leveraging only onboard DAA for air risk mitigation, and does not require ground-based observers or radar.
BVLOS flights unlock autonomous drone use for economically beneficial commercial applications including infrastructure inspection, mining, mapping, agriculture, emergency response and package delivery.
“Achieving the first BVLOS approval in Canada further validates our technology alongside multiple permissions we have already received from regulators in the U.S. and South Africa,” said Iris Automation CEO Alexander Harmsen. ”This technology is critical to safely integrate drones into the airspace along with manned-aircraft, and we look forward to unlocking commercial operations for our customers in Canada.”
Iris Automation’s onboard computer-vision DAA system is an effective, scalable and cost-effective technology to enable commercial BVLOS operations.
“The UAS Center of Excellence is looking forward to leveraging Iris Automation’s DAA system and existing flight expertise within our network to conduct BVLOS flights with MVT Geo-solutions,” said UAS Center of Excellence Director William de Keiser. “We will continue to develop our partnership with Iris Automation to provide training to local operators and enable BVLOS flights in Canada.”
The first BVLOS flights are scheduled to take place within weeks. The resulting data will inform more complex BVLOS operations in the future.
UPS Flight Forward (UPSFF) is collaborating with German drone-maker Wingcopter to develop the next generation of package delivery drones for a variety of use cases in the United States and internationally. UPSFF is a subsidiary of UPS dedicated to drone delivery.
UPS chose Wingcopter for its unmanned aircraft technology and its track record in delivering a variety of goods over long distances in multiple international settings.
“Drone delivery is not a one-size-fits-all operation,” said Bala Ganesh, vice president of the UPS Advanced Technology Group. “Our collaboration with Wingcopter helps pave the way for us to start drone delivery service in new use-cases. UPS Flight Forward is building a network of technology partners to broaden our unique capability to serve customers and extend our leadership in drone delivery.”
Drone fleet. As part of this collaboration — UPSFF’s first new relationship with a drone manufacturer since its formation — both companies will work toward earning regulatory certification for a Wingcopter unmanned aircraft to make commercial delivery flights in the United States. It also is a critical step toward building a diverse fleet of drones with varying capabilities to meet potential customer needs.
The Wingcopter drones feature vertical takeoffs and landings in tight spaces, transitioning to efficient, high-speed horizontal flight, enabling ranges suitable for a variety of uses. These capabilities will allow UPSFF to begin developing solutions that, if approved, will go well beyond the healthcare and retail industries to solve long-standing challenges for high-tech, industrial manufacturing, hospitality, entertainment and other customers.
Wingcopter drones have taken part in numerous beyond-visual-line-of-sight (BVLOS) projects and been used by diverse customers around the world — from commercial, factory-to-factory deliveries to life-saving humanitarian projects and emergency medical supply.
For example, Wingcopter delivered insulin to an Irish island in the North Sea that is frequently cut off from the mainland because of bad weather. On the South Sea island of Vanuatu, the start-up, on behalf of the local Ministry of Health and supported by UNICEF, successfully set up an on-demand vaccines supply, delivering the urgently needed serums within minutes to multiple different health centers.
Core innovation. The company’s electric vertical takeoff and landing drones have a patented tilt-rotor mechanism, which enables a seamless transition between two drone modes: multicopter for hovering and fixed-wing for low-noise forward flight. The aerodynamic Wingcopter aircrafts operate with stability even in harsh weather conditions.
In 2019, UPSFF began operating commercial drone delivery flights in the UPS network, starting with delivery service at WakeMed’s flagship hospital and campus in Raleigh, N.C. Since then, the company has delivered thousands of medical samples via drones, supplementing a ground courier service.
UPSFF later announced plans to establish drone delivery services on several healthcare campuses and has been exploring the use of drones to deliver retail, prescriptions and medical products in residential settings.
In September 2019, UPSFF received the U.S. government’s Standard Part 135 certification to operate a drone airline, and has also completed drone deliveries under the U.S. Federal Aviation Administration’s Part 107 rules within the FAA’s Integration Pilot Program.
“We are proud to partner with UPS, a global giant in delivery and logistics. Together we aspire to extend the speed and reach of package delivery,” said Tom Plümmer, Wingcopter chief executive officer and co-founder. “Our vision has always been to leverage technology to improve the lives of people around the world, and the strategic relationship with UPS will further accelerate our growth and global expansion, strengthening our role as an industry leader in drone technology.”
UAVOS company is collaborating with King Abdulaziz City for Science and Technology (KACST), Saudi Arabia, on scientific research and development of a new Flight Control System (FCS). The FCS is designed to fit and leverage multi-mission, multi-domain UAV platforms.
Together, the research and development (R&D) partners have created a Saker-1B Medium Altitude Long Endurance (MALE) UAS (unmanned aerial system). The specifications of the UAV system has been confirmed by more than 500 hours of day and night test missions under various weather conditions.
A total of 1,000 hours of take-off and landing test missions were successfully performed, with the long-endurance flights lasting up to 19 hours. The UAV is equipped with a satellite communication data link for beyond-visual-line-of-sight (BVLOS) operation.
Watch the Saker-1B in action:
UAVOS and KACST have been jointly developing Flight Control System capability for UAS for 10 years. R&D partners have completed performing the flight tests of their UAS in Saudi Arabia to verify easy and fully autonomous online and offline operation of the unmanned aircraft from takeoff to landing.
These test missions followed various other successful operational exercises performed in the last few months. The Saker-1B MALE UAS has been proven to operate in harsh desert with long-endurance, high-altitude and high-speed flights. High performance of satellite data link for command and control was demonstrated.
Due to availability of the current UAVOS autopilot technology, the UAS received sustainability to jamming attacks and advanced data security.
The Saker-1B performed a series of heavy weight landing tests with the maximum weight (MTOW) 2,500 pounds (1,100 kilograms). A number of different payloads were tested in surveillance experimental missions to confirm overall system performance and its readiness for real applications.
The UAS uses a direct radio link when flying within line of sight, switching seamlessly to a satellite link when flying BVLOS.
The Saker-1B MALE is an advanced unmanned aerial system with fully autonomous operation capability. It is equipped with automatic taxi-takeoff and landing systems, satellite communication for extended range, and fully redundant avionics.
The UAV is designed to operate in harsh environments and is adapted to perform in an extremely hostile, dry and dusty ambient air. The UAS is capable of flying for more than 19 hours at an altitude of up to 16,500 feet (5000 м) with a range 1600 miles (2600 km).
“We’re excited to work with KACST, a world-class organization in science and technology, fostering innovation and promoting a knowledge-based society in the Kingdom of Saudi Arabia,” said UAVOS CEO and Lead Developer Aliaksei Stratsilatau. “Our ultimate goal of the scientific research and development partnership is to make UAV technologies, which can turn vision into the UAV of tomorrow. For 10 years in partnering with KACST, we hold to a singular and enduring mission: to make breakthrough technologies for the unmanned system industry,”Aliaksei Stratsilatau added.
New solution integrates the real-time Kongsberg IRIS UAS airspace management picture into the AiRXOS’ Air Mobility Platform to provide integrated unmanned traffic management services around critical infrastructure
AiRXOS, part of GE Aviation, has fully integrated the real-time airspace picture from the Kongsberg Geospatial IRIS airspace management application into its own Air Mobility Platform for unmanned traffic management.
IRIS UAS is a spatial awareness system that allows UAS pilots to operate safely beyond visual line of sight (BVLOS). The system is shown here running on a Windows Surface Pro tablet. (Photo: Kongsberg Geospatial)
IRIS UAS fuses multiple disparate, real-time sensor feeds to create a highly accurate airspace picture around critical infrastructure locations such as airports.
This provides real-time calculation of aircraft separation, airspace monitoring alerts and communications line-of-sight prediction to enable detect and avoid for safe beyond visual line of sight (BVLOS) operations.
The real-time local airspace picture is then integrated into the cloud-based AiRXOS’ Air Mobility Platform, a dynamic, cloud-based foundation, purpose-built for advanced operations and the evolving future of transportation.
The Air Mobility Platform manages the volume, density, and variety of unmanned traffic management (UTM) data, and provides enterprises with a single platform to connect and manage operations, applications and devices.
Through this collaboration, the companies will provide UTM customers with a fully integrated view of airspace for real-time airspace insights, and greater scalability and repeatability of advanced operations.
“Situational awareness of the airspace across applications, unmanned aerial system (UAS) advanced operations, conformance monitoring, compliance, and pilots is critical to a UTM environment — allowing enterprises to be more responsive and efficient,” said Ken Stewart, CEO, AiRXOS. “Our partnership combines Kongsberg Geospatial’s expertise in airspace management with AiRXOS’ dynamic platform, applications, and services, providing customers with the opportunity to truly scale critical infrastructure advanced UAS operations like BVLOS and multi-vehicle, helping to lower risk and increase savings.”
“We’re very pleased to be working with an unmanned traffic management innovator like AiRXOS,” said Ranald McGillis, president of Kongsberg Geospatial. “Their ability to create a comprehensive surveillance view of operations and then to scale it for a nationwide use provides an excellent and very unique use case for our technology.”
Guest column by Brian Wynne AUVSI President and CEO
Brian Wynne, AUVSI president and CEO
A recent analysis found that just 10 percent of the unmanned aircraft systems (UAS) included in the Unmanned Systems and Robotics Database maintained by the Association for Unmanned Vehicle Systems International (AUVSI) can operate beyond the visual line of sight (BVLOS) of its operator.
While the technology for BVLOS operations has existed for years, under current federal regulations, only the military is permitted to use it. The absence of federal regulation allowing BVLOS operations hinders the full value and benefits that the UAS industry has to offer.
Regulations that provide guidance and rules for operating unmanned systems are necessary for the industry’s advancement. Earlier this year, the Federal Aviation Administration (FAA) issued a proposed rule for UAS operations over people, and the UAS community is eagerly anticipating the agency will offer an additional rule requiring UAS to be equipped with remote identification.
“Remote ID is a crucial next step to gain the confidence of federal defense and security agencies, manned aviation users and the public.”
However, the rulemaking process for remote ID has been delayed by the FAA twice this year and is now slated to be released in December. The need for remote ID cannot be overstated, as the advancement of the UAS industry depends on identifying and tracking UAS flying in the airspace.
Furthermore, remote ID is a crucial next step to gain the confidence of federal defense and security agencies, manned aviation users and the public. With this confidence, UAS can further integrate into the national airspace to perform important BVLOS operations such as inspection of utility rights of way, widespread search-and-rescue missions, and package delivery.
A clear, national regulatory framework and the support of the federal government is needed to drive the adoption of unmanned systems technology and its applications. Currently, the UAS industry is working with our government partners on remote ID and tracking standards, but we recognize that more needs to be done and at a faster pace than the regulatory process allows. That is why the UAS industry is stepping up to explore near-term solutions before remote ID regulations are finalized and published.
In May, AUVSI and the Airports Council International-North America commissioned a Blue Ribbon Task Force on UAS Mitigation at Airports. The task force is working to refine procedural practices and provide a policy framework to address the timely and critical issue of incursions by unauthorized UAS at airports and how best to mitigate this threat, including industry and government recommendations for remote ID. The task force will release a report this year.
Applications of unmanned systems aren’t limited by technology or imagination; they’re only limited by regulations. We need a streamlined regulatory environment that allows for the safe deployment of unmanned systems into our nation’s transportation infrastructure so we can begin to reap the full benefits of this technology.
