Tag: Kongsberg Geospatial

  • Kongsberg Geospatial releases TerraLens 9.3 Geospatial SDK

    Kongsberg Geospatial releases TerraLens 9.3 Geospatial SDK

    Photo: Kongsberg
    Image: Kongsberg

    Kongsberg Geospatial has released TerraLens 9.3, the latest version of its real-time software development toolkit for geospatial visualization. In this release of TerraLens, the product development team has focused on improving performance for 3D visualization for large viewports and on multi-domain visualization features for joint all-domain command and control applications. Leveraging the power of modern GPUs and multi-core processors, the latest release of TerraLens is significantly faster, with new presentations focused on enhancing situational awareness.

    With increased multithreading in its map handling, TerraLens can load and display vector, raster, and elevation formats smoothly without pre-processing. This is ideal for applications that have disk size constraints or for customers that have a short turn-around time between receiving map data updates and needing to use them. For applications with stringent start-up constraints or map formats that are not optimized for quick runtime access, the pre-processing option still exists, to help ensure minimal time for an initial map display.

    The rendering of maps and dynamic presentations has also been optimized with increased threading in the graphics kernel, and the minimization of costly graphics state changes with batched rendering calls. Improved data culling ensures that only visible items will be rendered. These improvements are especially noticeable when displaying large numbers of dynamic tracks and objects, and frequently projected information.

    This release of TerraLens also includes a slate of new tools and features, including support for OGC 3D Tiles, which can be used to create a high-resolution 3D view that is especially suited to cityscapes, while a new API to control the resolution of the terrain mesh allows applications to balance runtime performance with higher resolution terrain over which to drape map imagery. Elevation warnings can now be displayed using color ramps on both terrain and OGC 3D Tiles, as well as on primitive lines and area fills.

    TerraLens continues to evolve to meet the latest map and symbology standards. Support has been added for the latest military symbology, providing MIL-STD-2525D and App-6B symbol sets. The SDK also features new mapping updates including enhanced support to discover WMS and WMTS map layers as well as monitoring the status of web requests. Support has been added for DAFIF 8.1 and S-57 Inland ENC levels. Developers will be able to track when maps have completed loading in the TerraLens viewport. TerraLens 9.3 also continues to support the latest development environment needs, including Visual Studio 2019, CLI .Net Core, and Linux RedHat8.

    TerraLens has been fielded in some of the most demanding applications in the world including AEGIS, Global Hawk, THAAD, NATO AWACS, and the Joint Battle Command-Platform.

    Based in Ottawa, Canada, Kongsberg Geospatial creates precision real-time software for air traffic control and UxS and situational awareness. The company’s products are primarily deployed in solutions for air-traffic control, command and control, and air defense. During nearly three decades of providing dependable performance under extreme conditions, Kongsberg Geospatial has become the leading geospatial technology provider for mission-critical applications where lives are on the line. Kongsberg Geospatial is a subsidiary of Kongsberg Defence & Aerospace.

  • Kongsberg Geospatial and AiRXOS partner on UTM airspace management for critical infrastructure

    Kongsberg Geospatial and AiRXOS partner on UTM airspace management for critical infrastructure

    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 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.”

  • Canada awards drone airspace management contract

    Canada awards drone airspace management contract

    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.”

  • Launchpad: OEM, survey and mapping, transportation, UAVs

    Launchpad: OEM, survey and mapping, transportation, UAVs

    OEM

    Narrowband cellular chipset

    With integrated GNSS

    The ALT1250 narrowband CAT-M1 and NB1 (NB-IoT) chipset includes GNSS functionality. Its extreme level of integration eliminates the need for most external components required to design a cellular Internet of Things (IoT) module. Less than 100 x 100 square millimeters, the ALT1250 module features support for both Release 13 standards — CAT-M1 and NB1. It includes a wideband RF front end supporting unlimited combinations of LTE bands within a single hardware design; a multi-layered and hardware-based security framework; an internal application MCU subsystem; and packaging that enables standard, low-cost printed circuit board (PCB) manufacturing.

    Altair Semiconductor, www.altair-semi.com

    Grandmaster clock

    Carrier-grade, packet-based timing and synchronization

    Hardware on the TimeProvider 5000 IEEE 1588 Precision Time Protocol (PTP) grandmaster clock has been updated to support Internet Protocol version 6 (IPv6) and multi-GNSS constellations to ensure better reception and higher security in a wide variety of telecommunications network applications. Looking forward to mobile infrastructure with LTE-Advanced (LTE-A) and 5G services, support for IPv6 and alternate GNSS constellations is rising in importance for deploying a robust, secure and future-proof synchronization network. The device offers multiple constellations in accordance with the directives in certain countries to remove sole dependency on GPS. Support for GLONASS and Galileo also makes systems more robust and secure to certain GNSS vulnerabilities. The TimeProvider 5000 provides redundant hardware, user-configurable PTP profiles and Synchronous Ethernet (SyncE) support with optical small form-factor pluggable (SFP) modules.

    Microsemi Corporation, www.microsemi.com

    Post-processing board

    Designed for effective data collection, management

    The Precis-BX316R is a GNSS Post-Processing Kinematic (PPK) board for accurate positioning. It supports raw measurement output from two antennas: GPS L1/L2, GLONASS G1/G2 and BeiDou B1/B2 from the primary antenna and GPS L1/L2 from the second antenna. The SD card on board (up to 32 GB) makes it convenient for users to collect data for post processing. Working with GNSS antennas, it can output stable measurement in challenging conditions. Integrated with versatile interfaces and connectors, Precis-BX316R aims to facilitate applications such as precision navigation, precision agriculture, surveying and UAV, and enforcing effective GNSS data management.

    Tersus GNSS, www.tersus-gnss.com

    GNSS module

    Integrated module eases embedded designs

    The u-blox SAM-M8Q GNSS receiver with integrated antenna is housed in a 15.5 x 15.5 x 6.3 millimeter package. It can be embedded in small devices that require location information, such as asset tracking and telematics systems, and generic automotive after-market applications. The module offers simultaneous reception of GPS, GLONASS and Galileo. The combination of an integrated wide-band antenna along with the module’s SAW filter and low-noise amplifier (LNA) architecture ensures that the SAM-M8Q receiver delivers robust performance in the presence of high-frequency signals from other electronic equipment that can cause interference, such as cellular modems.

    u-blox, www.u-blox.com

    Dual-band antenna

    Tight pre-filter protects against high-level cell signals

    The TW3892 is a through-hole mount dual-band plus L-band GNSS antenna. It employs Tallysman’s Accutenna technology and is capable of receiving GPS L1/L2, GLONASS G1/G2, BeiDou B1, Galileo E1 plus L-band correction services (1213MHz to 1261MHz + 1525MHz to 1610MHz). The TW3892 is a precisely tuned antenna with a tight pre-filter to protect against intermodulation and saturation caused by high-level cellular 700 MHz and other signals.

    Tallysman, www.tallysman.com

    Multi-constellation board

    Protection against jamming interference

    The credit-card sized AsteRx-m2 offers all-in-view multi-frequency, multi-constellation tracking and centimeter-level real-time kinematic (RTK) position accuracy for low power. It can receive TerraStar satellite-based correction signals for precise point positioning (PPP). The board features Septentrio’s AIM+ interference mitigation system that can suppress a wide variety of interferers, from simple continuous narrowband signals to complex wideband and pulsed jammers. The RF spectrum can be viewed in real time in both time and frequency domains.

    Septentrio, www.septentrio.com

    Test suite

    For in-vehicle and V2V connectivity

    Spirent’s TTsuite-WAVE-DSRC (Wireless Access in Vehicular Environments – Dedicated Short-Range Communications) conformance test solution includes a set of tests required for U.S. Department of Transportation (USDOT) certification. TTsuite-WAVE-DSRC consists of four different protocol conformance test suites as per the USDOT Certification Operating Council (COC) conformance test specifications. It enables full test automation, includes frameworks for individual adaptation, and it is extensible with many plug-ins to meet constantly changing development requirements. TTsuite-WAVE-DSRC is targeted at companies supplying or testing WAVE-DSRC ITS technology.

    Spirent Communications, www.spirent.com

    Survey & Mapping

    GNSS receiver

    Multi-frequency, multi-application and multi-use

    The SP90m GNSS receiver is a powerful, highly versatile, ultra-rugged and reliable GNSS positioning solution for a wide variety of real-time and post-processing applications. Integrated communications options include Bluetooth, Wi-Fi, UHF radio and cellular modem as well as two MSS L-band channels to receive Trimble RTX correction services. The SP90m can be used as a base station, campaign receiver, continuously operating reference station (CORS), real-time kinematic (RTK) or Trimble RTX rover, or be integrated on-board a machine. The receiver uses all available GNSS signals to deliver fast and reliable positions in real time, and allows the connection of two GNSS antennas for precise heading or relative positioning determination without a secondary GNSS receiver. It features an internal removable battery, internal memory and optional accessory kits for specific applications.

    Spectra Precision, www.spectraprecision.com

    Field-to-office software

    For total stations, robotics and GNSS rover systems

    GeoPro Field provides a graphical user interface designed to collect field measurements for land surveying and construction activities. GeoPro Field is a tool to collect and import measurement data into design and drafting software, increasing productivity with CAD functionality in the field. It is compatible with various software workflows, and point files are easily exported to third-party software. Sokkia GeoPro Office is the office-processing complement to the field software — designed to clean, process, and analyze field data into its easiest-to-use form. The office software can also be expanded with an optional 3D and road design module, for further versatility to design roads with the processed field measurements.

    Sokkia, www.sokkia.com

    RTK base and rover

    Ready for highway and site construction

    Hemisphere GNSS’ C321 GNSS Smart Antenna is designed for heavy highway and site construction. When paired with SiteMetrix Site Management software, the multi-frequency, multi-GNSS C321 antenna can be used as an all-in-one construction base and rover site controller. The C321 combines the Athena GNSS engine and Atlas L-band correction technologies. The ruggedized antenna is designed for the most challenging environments and meets IP67-standard requirements. Powered by Athena GNSS engine, the C321 provides best-in-class, centimeter-level RTK. Athena excels in virtually every environment where high-accuracy GNSS receivers can be used. Tested and proven, Athena performs with long baselines in open-sky environments, under heavy canopy, and in geographic locations experiencing significant scintillation. The C321 ships pre-configured to test-drive corrections from Hemisphere’s Atlas L-band corrections service. C321 also uses Hemisphere’s aRTK technology, powered by Atlas. This feature allows the receiver to operate with RTK accuracies when RTK corrections fail. If the C321 is Atlas-subscribed, it will continue to operate at the subscribed service level until RTK is restored.

    Hemisphere GNSS, www.hemispheregnss.com

    RTK GNSS tablet

    Centimeter-level positioning

    Toughpad is Panasonic’s newest professional-grade notebook, specifically designed for precision agriculture, machine control and robotic guidance applications in harsh environments and conditions. Embedded in the tablet is a u-blox NEO-M8 GNSS receiver module delivering high integrity and precision in demanding applications worldwide. First tested for collecting snow in Hokkaido, Japan, the Toughpad tablet uses Panasonic’s own satellite positioning technology combining a satellite radio receiver module, wireless WAN, and a single-band real-time kinematic (RTK) GNSS receiver connected to an external antenna. The system enables high-precision positioning down to centimeter level in open-sky conditions.

    Panasonic, www.panasonic.com
    u-blox, www.u-blox.com

    Mobile app

    Aids in understanding the oceans

    Esri has released an Ecological Marine Units (EMU) app for mobile devices. The app provides a new way to measure marine environments on a 3D interactive map for more cost-effective fishery planning and informed conservation. It is a resource for scientists, educators, governments and industries seeking accessible information and imagery about the ocean’s long-term physical and nutrient properties. The EMU app puts data such as temperature, salinity and dissolved oxygen from 52 million locations throughout the world’s oceans at any user’s fingertips. This data informs how livable marine environments are for ocean-dwelling species as well as the overall health of the ecosystem. The app is free from the App Store and Google Play.

    Esri, www.esri.com

    Post-processing software

    Delivers CAD drawings from ground-penetrating radar data

    DX Office Vision is a utility post-processing software for mapping ground-penetrating radar (GPR) data from the field into a CAD drawing. It allows even non-experienced users to obtain professional 3D CAD drawings and visualize the detected underground utilities in a simple way. The intuitive interface enables users to filter, select, identify and make annotations of the located targets. With DX Office Vision, post-processing for all ground-penetrating data requires no add-on or third-party software.

    Leica Geosystems, www.leica-geosystems.com

    Transportation

    Infotainment testing

    For the connected-car market

    Averna has entered a strategic partnership with M3 Systems to distribute their StellaNGC GNSS Simulator on VST NI platforms for the infotainment segment of the automotive market. M3 Systems’ GNSS simulator, based on National Instruments’ Vector Signal Transceiver (NI VST), will now be available as part of Averna’s AST-1000 platform, extending its capability to navigation and GNSS testing. Launched in July 2016, the AST-1000 is an RF solution designed for radio, navigation, video and connectivity testing. Also based on the NI VST, the software-defined AST-1000 supports infotainment RF signals, including AM/FM, DAB, RDS, HD Radio and Sirius/XM as well as GNSS navigation. The combination provides a comprehensive solution and enables applications for testing infotainment systems.

    Averna, www.averna.com

    LTE automotive-grade module

    Optimized for connected cars

    The LE940A9 automotive-grade module is designed to support LTE Advanced Category 9 (Cat 9) networks. The series offers three multi-band, multi-mode variants — including voice-over-LTE (VoLTE) — and is optimized for automobile manufacturers to deploy next-generation connected-car technology in world markets. The LE940A9 delivers 450 Mbps download and 50 Mbps upload speeds with extremely low latency and advanced security. The xE940A9 40×40 mm LGA form factor nests with the 34x40mm Telit xE920 automotive module family, offering flexibility for the OEM or tier-one integrator. It powers the entire connected-car platform, supporting current needs while including advanced features that enable future integration of upcoming services. The module can run in-vehicle applications inside a secure processing environment from the built-in application processor, storage and memory. Automotive application programs can run entirely and securely on the module itself, protected by advanced cyber-security capabilities.

    Telit, www.telit.com

    Reference design

    Nine antennas including four LTE, two Wi-Fi, GNSS, SDARS and DSRC

    The Axiom is a reference design for a low-profile, compact multiple-antenna solution for the next generation of connected cars. The Axiom reference design helps automobile manufacturers more quickly advance antenna configurations that work for their particular make and model. As many as 18 antennas are needed to power the next-generation connected car, including multiple cellular antennas for network connectivity; Wi-Fi for hotspot connectivity; GNSS for navigation, emergency call systems and other location-based technologies; satellite radio (SDARS); AM/FM antennas; radar antennas for object detection; Bluetooth antennas for smartphones and other devices, and dedicated short-range communications (DSRC) antennas for vehicle-to-vehicle/infrastructure applications.

    Taoglas, www.taoglas.com

    Ground robotics

    Ruggedized module based on military design principles

    The Duro is a ruggedized version of Swift Navigation’s Piksi Multi dual-frequency RTK GNSS receiver. Built for outdoor operations, Duro combines a rugged enclosure with centimeter-accurate positioning. Leveraging design principles typically used in military hardware, the GNSS sensor is protected against weather, moisture, vibration, dust, water immersion and unexpected circumstances that can occur in outdoor long-term deployments. It is ready to connect out of the box. Primary industries for this product include robotics, precision agriculture, mapping, military, outdoor industrial and maritime.

    Swift Navigation, www.swiftnav.com
    Carnegie Robotics, www.carnegierobotics.com

    UAV

    GPS-INS for drones

    Now in beta mode for summer release

    The μINS is a precision miniature GPS-aided inertial navigation system (GPS-INS) designed to provide high-quality direction, position and velocity data for drones and robotic applications. It uses a u-blox L1 GPS receiver. Advanced algorithms fuse output from micro-electro-mechanical system (MEMS) inertial sensors, magnetometers, barometric pressure, and a high-sensitivity GPS (GNSS) receiver to deliver fast, accurate and reliable attitude, velocity and position even in the most dynamic environments. Sensor calibration, standard on all units, minimizes undesirable effects of manufactured variation and maximizes sensor performance. Features include GPS UTC time synchronization; an inertial measurement unit with comprehensive calibration for bias, scale factor and cross-axis alignment; –40°C to 85°C temperature compensation; a measurement of 15.6 x 12.5 x 6.3 millimeters; and a weight of 2 grams.

    Inertial Sense, www.inertialsense.com

    UAV helicopter

    Designed for high-altitude flight

    The Scout B-330 UAV helicopter is built with a payload capacity of up to 50 kg. (110 pounds), flight endurance of at least three hours, and the capability of flying at high altitudes (up to 3,000 meters above sea level) in a typical mission scenario. This includes a full autonomous take-off sequence, a mission flight at variable speed, and a landing sequence. The Scout B-330 is specifically designed for lidar-based powerline mapping missions. It pairs with Riegl airborne and unmanned lidar sensors such as the Riegl VP-1 Helicopter Pod, the Riegl VUX-1UAV lightweight UAV laser scanner, and the Riegl VUX-1LR lightweight, long-range airborne laser scanner.

    Aeroscout, www.aeroscout.ch

    Situational awareness

    Certifiable application for unmanned traffic management

    The IRIS UAS Airspace Situational Awareness application meets the requirements of the DO-278A Assurance standard for Air Traffic Management systems, providing a certifiable option to monitor drones and airspace. By anticipating the regulatory requirements for airspace visualization with Unmanned Traffic Management or UTM, the IRIS display will be a regulatory-approved component increasing the safety of commercial drone flight operations — especially when operating beyond visual line of sight (BVLOS). The application had its genesis in supporting military UAV flight operations and was developed to help operators safely pilot UAVs in BVLOS operations. It was also used by regional airspace UTM managers to monitor the operations of multiple drones simultaneously. The DO-278A standard is used by certification authorities such as FAA, EASA and Transport Canada.

    Kongsberg Geospatial, www.kongsberggeospatial.com

    Precision pointing gimbal

    Better than 0.3-degree accuracy, plug-and-play

    The miniature Epsilon series of gyro-stabilized gimbals now have a precision geo-pointing feature. The feature, Precision Geo-Lock, combines a GPS-aided inertial navigation system (GPS/INS) with dedicated software algorithms and payload operator software. Precision Geo-Lock provides the user with highly accurate target geo-location, range-to-target, as well as Geo-Lock functionality and moving map user interface. It incorporates VectorNav’s VN-200, which offers a high-level of performance in a form factor small enough to be integrated directly into the optical bench of the gimbal. Precision Geo-Lock provides better than 0.3-degree accuracy and is plug-and-play, so the customer can install the Epsilon gimbal and get accurate results on any platform and in a high-vibration environment.

    Octopus ISR Systems, www.octopus.uavfactory.com
    VectorNav Technologies, www.vectornav.com

  • Kongsberg Geospatial offers certifiable application for unmanned traffic management

    Kongsberg Geospatial offers certifiable application for unmanned traffic management

    Kongsberg Geospatial’s IRIS UAS situational awareness application now provides a certifiable option to monitor drones and airspace. Kongsberg Geospatial is an Ottawa-based developer of real-time geospatial visualization software.

    The IRIS UAS Airspace Situational Awareness application meets the requirements of the DO-278A Assurance standard for air traffic management systems.

    By anticipating the regulatory requirements for airspace visualization with Unmanned Traffic Management or UTM, the IRIS display will be a regulatory approved component increasing the safety of commercial drone flight operations — especially when operating beyond visual line-of-sight (BVLOS).

    IRIS UAS program director Paige Cutland uses the IRIS UAS airspace situational awareness application to monitor the progress of a drone on a beyond line-of-sight (BVLOS) mission from a portable ground control station set up in a trailer.

    Kongsberg Geospatial has been providing software design assurance to meet the certification requirements for real-time geospatial and spatial awareness technology to support air traffic management, air defense applications and unmanned systems for nearly three decades.

    Their IRIS UAS situational awareness application had its genesis in supporting military UAV flight operations and was developed to help operators safely pilot UAVs in BVLOS operations. It was also used by regional airspace UTM managers to monitor the operations of multiple drones simultaneously.

    The DO-278A standard (Guidelines for Communication, Navigation, Surveillance and Air Traffic Management [CNS/ATM] Systems Software Integrity Assurance) is the primary standard used by certification authorities such as FAA, EASA and Transport Canada to provide the assurance of software contained in non-airborne CNS/ATM systems. Unmanned systems manufacturers that build ground control stations for commercial drone systems, and airports and port authorities that create airspace control systems are anticipated to have to meet this standard when designing and building new systems.

    By developing an airspace awareness application that satisfies this standard, Kongsberg Geospatial has provided a key component for unmanned systems manufacturers, airport operators and port authorities that wish to develop ground-based monitoring systems that are safe and certifiable for commercial operations.

    “Unmanned Traffic Management and safe airspace operations will require certification of technology,” said Ranald McGillis, president of Kongsberg Geospatial. “We believe providing a certifiable airspace application will dramatically increase the safety of unmanned flight operations wherever it’s in use.”