Publicerad den Lämna en kommentar

Alps Alpine and Furuno develop GNSS module

UMSZ6 module allows high-accuracy vehicle positioning to within 50 cm without correction data

Photo: Alps Alpine

Photo: Alps Alpine

Alps Alpine and Furuno Electric Co. Ltd. have jointly developed the UMSZ6 series GNSS module, providing high-accuracy positioning to within 50 centimeters without having to use position correction data.

On typical 3-meter-wide roads, the module reliably enables vehicle positioning down to the lane level, a requirement of various V2X applications, and makes possible greater sophistication of autonomous driving functions. This is achieved using a multi-frequency GNSS receiver chip based on Furuno’s Extended Carrier Aiding technology.

The module is compact at 17.8 × 18.0 × 3.11 mm while conforming to automotive-grade specifications. Running costs associated with real-time-kinematic (RTK) base stations, correction data receiving, and correction data use are not needed, maximizing cost performance.

Under the joint agreement, Furuno developed and supplied an original multi-frequency GNSS receiver chip — eRideOPUS 9 (model ePV9000B) — and algorithm. Alps Alpine is the first company to use the chip, with the UMSZ6 series.

Alps Alpine plans to carry out evaluations within a real automotive environment to assess performance and interoperability with V2X and other communication modules. Mass production is expected in 2023.

Publicerad den Lämna en kommentar

First UK-generated satnav signal coming in test project

Satellite communications company Inmarsat is working on a United Kingdom Space Agency-funded test project with the European Space Agency to deliver the first UK-generated satellite navigation signal. The project provides a potential platform for the UK to enhance its post-Brexit positioning, navigation and timing (PNT) capabilities.

Other partners are British companies Goonhilly Earth Station Limited and GMV NSL Limited.

Repurposing a transponder from the Inmarsat-3 F5 satellite, the test project — known as UK Space-Based Augmentation System (UK SBAS) — will provide an overlay signal to augment the U.S. GPS, refining its accuracy from a few meters to a few centimeters.

UK PNT without EGNOS

The UK no longer has access to the European Geostationary Navigation Overlay Service (EGNOS) Safety of Life services since leaving the European Union (EU) and is not involved in the EU’s Galileo programme for similar reasons. Therefore, this new national capability supported by current and future Inmarsat satellites could offer a new option for high-integrity, precision navigation across the country, in its airspace and within surrounding waters.

UK SBAS will provide a basis to assess its future development into an operational capability to support safety-critical applications such as aircraft approaching and landing at airports or navigating ships through narrow channels, especially at night and in poor weather conditions.

Goonhilly will provide the uplink for the system from Cornwall. Software from GMV NSL, based in Nottingham, will generate the ground-based navigation signal. This is a similar system to that already in use in Australia and New Zealand, supported by Inmarsat.

The project could be crucial for UK users who need accurate, high-integrity navigation capabilities to enable their operations. It will initially cover aviation and maritime operations, but has the potential to extend into rail and other land-vehicle applications. For example, UK SBAS will comply with International Civil Aviation Organization (ICAO) standards.

“It is very welcome news to hear that UK-based companies have teamed up to deliver this ground-breaking project, with help from government funding,” said Transport Minister Trudy Harrison. “From flying planes to steering ships, reliable and precise navigation support is a crucial part of travel. This development is a significant step forward for our world-leading space sector, as we accelerate towards a net-zero transport future.”

Best satellite candidate

Artist's impression of an Inmarsat-3 satellite. (Image: Inmarsat)

Artist’s impression of an Inmarsat-3 satellite. (Image: Inmarsat)

The Inmarsat-3 F5 satellite is in geosynchronous orbit at 54° west, ensuring that its signal covers the UK as part of its Atlantic Ocean region service overlay. This makes it an ideal candidate to participate in the test. The satellite was manufactured by Inmarsat’s Athena partner Lockheed Martin and launched in 1998.

“This project demonstrates British innovation at its best,” said Nick Shave, vice president of Strategic Programmes for Inmarsat Global Government. “Working with Goonhilly Earth Station and GMVNSL, supported by UK funding via the ESA Navigation Innovation and Support Programme (NAVISP), enables us to extend the long life of Inmarsat’s I-3 F5 satellite with additional new services designed two decades after launch.

“We look forward to exploring the potential for this project and the benefits it could deliver to the UK with more precise, high-integrity, resilient navigation services, whilst also exploring future capabilities on new satellites through Inmarsat’s fully funded technology roadmap,” Shave said. “This work also has the potential to be exported to other nations around the world, benefitting the UK economically as well as technologically.”

Publicerad den Lämna en kommentar

Javier Benedicto to lead ESA’s Navigation Directorate

Authors Javier Benedicto (ESA), left, and Rodrigo da Costa (GSA). (Image: ESA)

Javier Benedicto, left, with EUSPA’s Rodrigo da Costa. (Image: ESA)

Javier Benedicto will become the director of Navigation for the European Space Agency (ESA) on Feb. 16, 2022, when current director Paul Verhoef retires.

Verhoef has served as director for almost six years, after a 40-year career spanning the European Commission, ESA and private industry.

Benedicto is now head of the Galileo Programme Department within the Directorate of Navigation at ESA. A Spanish national, he spent his early career in academia, working as a microwave engineer at the Polytechnical University of Catalonia in Barcelona and as a telecommunications engineer at MIER Comunicaciones, also in Barcelona, before joining ESA in 1990. He is also a GPS World author, keeping readers apprised on the status of the Galileo program.

He holds a master’s degree in science and telecommunications engineering from the Polytechnic University of Catalonia and has more than 100 publications in technical journals and conferences. He also holds three international ESA patents and has five honors and awards.

Benedicto’s new role was announced Oct. 21, when the ESA Council appointed three new ESA directors. In addition to Benedicto as director of Navigation, Géraldine Naja will lead the new Directorate of Commercialisation, Industry and Procurement. Simonetta Cheli will succeed Josef Aschbacher as Director of Earth Observation Programmes; Aschbacher became ESA Director General in March 2021.

Publicerad den Lämna en kommentar

Spire to develop flexible geolocation signal-processing tools for ESA

Spire logoSpire Global has been awarded a contract under the European Space Agency’s (ESA) Navigation Innovation and Support Programme (NAVISP), specifically “Element 2 – Competitiveness in PNT.” The contract is funded by the United Kingdom Space Agency.

Spire will work with NAVISP to build on the current capabilities of the Spire constellation and develop tools needed for geolocation signal processing, which will be applied toward geolocating GNSS interference sources coming from the Earth’s surface.

Spire’s low-Earth orbit (LEO) nanosatellite technology will be used to collect suspect interfering RF signals from a range of geographic areas prone to disruptions. Using advanced processing algorithms, the project will develop a suite of geolocation signal collection and processing techniques (including single and multi-satellite) to detect and characterize signals from a variety of interference scenarios.

NAVISP Element 2 emphasizes maintaining and improving the capability and competitiveness of the position, navigation and timing (PNT) industry and its technologies and services in the global satellite navigation market. In recent years, PNT services have become ubiquitous and relied on by industry and critical national infrastructure such as telecommunications, emergency services, energy, finance, food and transport. The GNSS signals used in these applications are vulnerable to interference, which can disrupt PNT services.

Publicerad den Lämna en kommentar

Trimble R750 GNSS base station offers improved satellite tracking

Trimble’s new GNSS base station gives users improved satellite tracking and remote operation for civil construction, geospatial and agriculture applications

Photo: Trimble

Photo: Trimble

Trimble has introduced the Trimble R750 GNSS modular receiver, a connected base station for use in civil construction, geospatial and agricultural applications. The R750 provides high-accuracy base station performance, giving contractors, surveyors and farmers more reliable and precise positioning in the field.

The R750 can be used to broadcast real-time kinematic (RTK) corrections for a wide range of applications, including seismic surveying, monitoring, civil construction, precision agriculture and more. Access to all available satellite signals provides improved performance and reliability when used with a Trimble ProPoint GNSS rover. ProPoint gives users improved performance in challenging GNSS conditions, with improved signal management.

Featuring a built-in LTE modem, the R750 can provide corrections via the internet, making it easier to extend the range of a base station anywhere with cellular coverage. The built-in modem also provides remote access and management, delivery of email alerts and notifications, and data transfer capabilities between the field and the office.

“The R750 delivers significantly improved satellite tracking and connectivity, while also providing a vastly improved user experience,” said Scott Crozier, vice president of Trimble Construction Field Solutions. “The ability to manage the base station remotely, and to receive status notifications about the unit while in the office reduces downtime and the need to travel to the site. The new Trimble R750 is a game changer, especially for users who manage base stations in remote locations.”

For monitoring applications, the R750 provides precision capabilities for construction and geospatial customers deploying automated systems. Combined with Trimble 4D Control real-time monitoring software, users can capture high-frequency 3D positions for alarming and reporting on movement. The R750 offers multiple communication methods that provide flexibility for customers on how they deploy their monitoring system.

The R750 is available for order now through Trimble’s Geospatial, Civil Construction and Agriculture distribution partners.

Publicerad den Lämna en kommentar

Safran to acquire resilient PNT company Orolia

Orolia logo

Safran has entered into exclusive discussions to acquire Orolia from Eurazeo alongside the founders and management. Orolia is a world leader in resilient positioning, navigation and timing (PNT) solutions that improve the reliability, performance and safety of critical civilian, military and space operations, including in harsh or altered GNSS environments.

Safran is an international high-technology group, operating in the aviation (propulsion, equipment and interiors), defense and space markets. Headquartered in Paris, France, Safran has a global presence, with 76,000 employees and sales of 16.5 billion euros in 2020.

Orolia has a broad portfolio of technologies across the resilient PNT value-chain with full system capabilities, and is a provider of PNT equipment, simulation and test solutions. Orolia is also providing emergency locator beacons for commercial aviation and military applications.

The acquisition “represents a unique opportunity for Safran and Orolia to extend their resilient PNT solutions, through their remarkable complementarities,” Safran stated in a press release. “With this addition, Safran will be able to build a world-leading position in all aspects of PNT, inertial navigation, time and GNSS receivers and simulators, covering aerospace, governmental and high integrity applications.”

Safran intends to accelerate the development of Orolia under the leadership of CEO Jean-Yves Courtois, and in full collaboration with its teams. “The combination of Orolia and Safran will create a PNT world leader with capabilities that will be unsurpassed in depth and breadth,” Courtois said. “Our perfect complementarity in terms of technology expertise, market presence and geographic footprint will allow us to push further resilient PNT to the next level and to offer our government, aerospace and commercial customers the most advanced solutions they need for their critical operations. Orolia will contribute especially through its world-leading positions in timing, GNSS simulation and emergency location technologies, and through its strong presence in the U.S. market. We are looking forward to working with our new Safran colleagues to advance our common vision.”

Orolia is expected to generate revenues of more than EUR 100 million in 2021 and has approximately 435 employees with facilities in France, the United States, Switzerland, Spain and Canada.

The terms of the deal were not disclosed. The transaction is subject to the usual regulatory approvals. Orolia will be consolidated within Safran’s Equipment & Defense division upon closing, expected around mid-2022.

Publicerad den Lämna en kommentar

Following Russia threat, Locata and Ursanav partner for resilient PNT

Photo:Russia’s recent threat that it could blow up all the GPS satellites with its new anti-satellite technology (ASAT) should come as no shock to those following space-related events. In the past, China shot down one of its own low-Earth-orbit satellites (LEOS) using a medium-range ballistic missile, and the United States used a modified antiballistic missile to shoot down one of its own spy satellites.

Blowing up satellites, solar flares, ever-increasing hazards from “space junk” and thousands of new satellites in the launch queue all make space a congested and increasingly dangerous place.

Locata Corporation and Ursa Navigation Solutions Inc. (UrsaNav) have announced a technology partnership specifically aimed at providing resilient PNT (positioning, navigation and timing) solutions to national governmental and commercial interests globally. Combining Locata’s high-accuracy local-area and UrsaNav’s very wide-area PNT produces a potent solution that lessens any nations’ dependency on easily disrupted and increasingly vulnerable space-based signals.

Locata has for many years been delivering proven centimeter-level positioning and picosecond-level timing to demanding users including the U.S. Air Force, NASA and globally significant commercial partners. Professional users in demanding industries such as ports, mining, the military, aviation, automotive, logistics, indoor positioning and high-accuracy timing depend on Locata systems every day.

UrsaNav’s eLoran and LFPhoenix technologies provide nanosecond-level timing, meter-level positioning, and short-message-service-like data transmissions at distances often exceeding 1,000 miles over land and 1,800 miles over water. Its two-way low-frequency time and frequency transfer (TWLFTFT) service is embedded in the PNT signal, providing a wireless timing synchronization conduit between any set of transmission sites.

When UTC-synchronized time is injected into any transmission site (node), such as from USNO/NIST, NPL or BIPM, it can then be securely networked to every other node in view. UrsaNav’s patented encryption techniques can be applied to the entire signal or any component.

Combining these proven technologies enables development of national-level terrestrial positioning and timing systems that are resilient, sovereign-controlled, and flexible enough to meet both long haul backbone and local high-accuracy critical infrastructure needs, the companies said, adding that over-reliance on space can be mitigated with built-in failover capability and overlapping coverage.

Many publicly available reports show both Locata and UrsaNav technologies have been tested by the United States and the United Kingdom under extreme GPS jamming and spoofing conditions, and yet they continued to provide the PNT their users require.

The MarRINav Report — funded by the European Space Agency (ESA) and researched over several years by eight top UK/EU bodies — recommended eLoran (UrsaNav) and Locata as terrestrial technologies for protection of UK shipping, ports and other key critical-infrastructure sectors.

The partners agree that a system-of-systems approach for resilient PNT must include a GNSS component, a fiber component, and a robust terrestrial wireless component that can be used to distribute solid PNT over nationally controlled radio frequencies.

The interlocking terrestrial capabilities developed by Locata and UrsaNav are unique in the PNT industry, are easily integrated with other PNT solutions, and can operate in standalone, interleaved, or layered modes — the very definition of a system-of-systems approach. Together, they can provide the core technology platform for purely national or cooperative international PNT services.

Publicerad den Lämna en kommentar

Core mate complete for final GPS III satellite, IIIFs to follow

The GPS III government and industry team recently core mated GPS III Space Vehicle 10 (GPS III SV10) and, per tradition at the “birth” of a satellite, nicknamed GPS III SV10 “Hedy Lamarr” after the actress and inventor.  (Photo: Lockheed Martin)

The GPS III government and industry team recently core mated GPS III Space Vehicle 10 (GPS III SV10) and, per tradition at the “birth” of a satellite, nicknamed it “Hedy Lamarr” after the actress and inventor.  (Photo: Lockheed Martin)

The 10th and final GPS III space vehicle under the original GPS III contract recently completed a production milestone known as “core mate” to assemble it into a full satellite.

The satellite is named after Hedy Lamarr, the famous Hollywood actress and inventor who in 1941 patented frequency-hopping technology that laid the foundation for secure Wi-Fi, GPS and Bluetooth technologies used by billions worldwide today.

Traditionally, core mate marks the “birth” of a satellite and when it gets a nickname — chosen by the U.S. Space Force — to honor its completion. All nine previous GPS III satellites built by Lockheed Martin have been named after trailblazers, and GPS III SV10 is no exception. (See list below.)

“The core mating of GPS III SV10 is an important milestone in Lockheed Martin’s commitment to provide the U.S. Space Force with a modern, agile GPS satellite constellation that will assure mission success far into the future,” said Tonya Ladwig, vice president of Lockheed Martin Space’s Navigation Systems Mission Area. “With SV10, we’ve now assembled about a third of the satellites we need to modernize the current GPS constellation with new technology and greater warfighting capabilities.”

Along with Ladwig, Col. Edward Byrne, senior materiel leader of the Medium Earth Orbit Space Systems Division, and Scott Thomas, GPS III program manager, Space Systems Command, attended the final portion of the core mating event on Oct. 26 at Lockheed Martin’s GPS III Processing Facility (GPF), in Waterton, near Denver.

Core mating takes teamwork

During the two-day core mate production event held Oct. 25-26, a 10-ton crane lifted and completed a 90-degree rotation of GPS III SV10’s system module assembly that holds the satellite’s operations and mission payload electronics. The crane then slowly lowered the system module the final 12 feet onto the satellite’s vertical propulsion core assembly.

Throughout the operation, technicians were strategically placed in elevated lifts 20 feet in the air to monitor the tight interfaces — within thousandths of an inch — and ensure a successful integration. Once the system module was fully seated, the technicians installed the nearly 200 screws bolting the two major components together. When the final screw was placed, the vehicle was officially mated. At that point all activity stopped and the newly assembled GPS III space vehicle was given its official name.

The core mate is one of the most intricate and critical operations of a satellite’s build. Completing the process requires teamwork and experience. Robert Peszek, GPS III operations manager, credited the culture of the GPS team for the core mating success and the success of the overall program. “This milestone is not something that many programs get to experience, with 10 satellites and the potential for more,” he said. “It comes down to our culture — people are not afraid to speak up, everybody has a voice, everybody has a role, and we respect everyone’s role.”

GPS III SV10 – the final space vehicle of the original GPS III contract – became a space vehicle when its system module assembly, which holds the satellite’s operations and mission payload electronics, was core mated with the satellite’s vertical propulsion core assembly. (Photo: Lockheed Martin)

GPS III SV10 – the final space vehicle of the original GPS III contract – became a space vehicle when its system module assembly, which holds the satellite’s operations and mission payload electronics, was core mated with the satellite’s vertical propulsion core assembly. (Photo: Lockheed Martin)

Augmented reality

GPS III SV10 (and SV09 before it) also represent pivot points in digital transformation on the GPS III/IIIF production line. Some of the technologies used include 3D printed parts, HoloLens mixed-reality smart glasses, and model-based engineering images that were overlaid on top of the hardware.

“For these two vehicles, we have really done ‘crawl, walk, run’ for augmented reality,” Ladwig said. “They are transformational vehicles because we’re bringing that new technology, not just to the spacecraft, but also making it part of the production and build process.”

The digital transformation tools improved accuracy and cut production times. “Using the (HoloLens) we actually overlay design drawings onto the hardware, further ensuring that everything is done right,” Peszek said. In addition, the team cut the production schedule by 50% for SV09 and SV10, partly due to the use of augmented reality tools — and while working through the height of the COVID pandemic without missing any work days.

GPS III SV10 — the final space vehicle of the original GPS III contract — became a space vehicle when its system module assembly, which holds the satellite’s operations and mission payload electronics, was core mated with the satellite’s vertical propulsion core assembly.

GPS III satellite update

Of the other nine GPS III satellites, the first five — GPS III SV01-05 — have launched and been handed over to the Space Force for on-orbit operations. The next three — GPS III SV06-08 — have been completed and declared “Available for Launch” by the U.S. Space Force. Those satellites are in storage at the GPS Processing Facility until the Space Force determines their launch dates. GPS III SV09 is fully assembled and in final testing.

GPS III SV10 will undergo a comprehensive suite of system performance tests before moving to the critical thermal cycling and thermal vacuum test (TVAC) phase, which demonstrates the satellite’s ability to survive the thermal and pressure conditions of space.

After GPS III SV10, the GPS III Follow On (GPS IIIF) satellites will start to appear on Lockheed Martin’s production line. In 2018, the U.S. Air Force awarded Lockheed Martin a contract to build as many as 22 additional GPS IIIF space vehicles. GPS IIIF SV11–12 were part of that original contract. The government exercised options for GPS IIIF SV13–14 in 2020.

On Oct. 22, the U.S. Space Force exercised its second contract option valued at approximately $737 million for the procurement of three additional GPS IIIF space vehicles (GPS IIIF SV15–17) from Lockheed Martin.

Modernizing the constellation

Lockheed Martin is building GPS III/IIIF satellites to help the Space Force modernize the current GPS satellite constellation with new technology and advanced capabilities. GPS III satellites are the most powerful GPS satellites ever designed. Compared to legacy satellites in the constellation, GPS III satellites are three times more accurate and have up to eight times improved anti-jamming.

GPS III satellites are also the first to introduce the new L1C civil signal, which will enable interoperability between GPS and international satellite navigation systems.

GPS IIIF satellites build off GPS III’s innovative, modular design. GPS IIIF satellites will add new capabilities and advanced technology, including Regional Military Protection (RMP); a safety-improving Search and Rescue payload; and an accuracy-enhancing laser retroreflector array. The RMP capability further reinforces GPS III/IIIF as a warfighting system, providing up to 60x greater anti-jamming for our warfighters operating in contested environments.

GPS IIIF SV13 and beyond will incorporate the company’s LM2100 Combat Bus, an enhanced space vehicle that provides even greater resiliency and cyber-hardening against growing threats, as well as improved spacecraft power, propulsion and electronics. LM2100 Combat Bus vehicles are also capable of hosting Lockheed Martin’s Augmentation System Port Interface (ASPIN), which would allow for future on-orbit servicing and upgrade opportunities.

Satellite names honor trailblazers

In honor of the last GPS III satellite in the SV01-10 series, here are the names they share with famous explorers:

  • SV01 – Vespucci – Amerigo Vespucci, Italian navigator, explorer and merchant whose name is the origin of “America”
  • SV02 – Magellan – Ferdinand Magellan, Portuguese explorer and leader of first expedition to circumnavigate the Earth
  • SV03 – Matthew Hensen – First African-American Arctic explorer, part of the Peary expeditions.
  • SV04 – Sacagawea – Lemhi Shoshone woman who served as translator and guide for the Lewis and Clark expedition
  • SV05 – Neil Armstrong – Astronaut, first man to walk on the moon
  • SV06 – Amelia Earhart – Daring pilot, first woman to fly solo across the Atlantic Ocean, attempted circumnavigation around the world.
  • SV07 – Sally Ride – Astronaut, physicist and first American woman in space
  • SV08 – Katherine Johnson – American mathematician, NASA employee whose calculations made human spaceflight possible
  • SV09 – Onizuka – Named for Ellison Onizuka, astronaut, first Asian-American to reach space, crew member on the ill-fated Challenger space shuttle mission.
  • SV10 – Hedy Lamarr – Famous Hollywood actress and inventor who patented frequency-hopping technology that led to today’s secure Wi-Fi, GPS and Bluetooth.
Publicerad den Lämna en kommentar

Galileo Constellation Grows with the Launch of Two New Satellites

After a three-day delay, on Dec. 4, at 7:19 p.m. EST (00:19 GMT) launch service provider Arianespace launched Galileo satellites 27 and 28 on a Soyuz launcher from Europe’s Spaceport in French Guiana. Manufactured by OHB, the satellites are operated by SpaceOpal for the EU Space Program Agency (EUSPA), which, in turn, is operating the mission on behalf of the European Commission.

These satellites are the first of Batch 3, comprising 12 additional first-generation Galileo satellites commissioned in 2017 to bring the constellation to full operational capability. They will be used to further expand the constellation up to 38 satellites and act as backups and spares for satellites that reach their end-of-life.

“Today’s liftoff marks the 11th Galileo launch of operational satellites in ten years: a decade of hard work by Europe’s Galileo partners and European industry, over the course of which Galileo was first established as a working system then began initial services in 2016,” said ESA Director of Navigation Paul Verhoef. “With these satellites we are now increasing the robustness of the constellation so that a higher level of service guarantees can be provided.”

“Galileo is already delivering meter-scale accuracy everywhere on Earth,” added Matthias Petschke, the responsible Director at the European Commission. “The Galileo partners are far from resting on their laurels, however. These two satellites will further reinforce Galileo and will – along with other launches to follow – enable novel signals and services, helping to ensure that Galileo retains its first-place status for many years to come.”

Soyuz launcher VS-26, operated by Arianespace and commissioned by ESA, lifted off with the pair of 715 kg satellitesfrom the Guiana Space Center in Kourou, French Guiana. All the Soyuz stages performed as planned, with the Fregat upper stage releasing the satellites into their target orbit close to 23,525 km altitude, around 3 hours and 54 minutes after liftoff.

The satellites will spend the coming weeks being maneuvered into their final working orbit at 23,222 km using their onboard thrusters, at the same time as their onboard systems are gradually checked out for operational use – known as the Launch and Early Operations Phase.

The Soyuz rocket was produced by the Progress Space Rocket Center, which is a part of the Russian space agency Roscosmos. This is the 14th time this partnership aimed to send a Galileo mission to space. This mission, known as Galileo FOC-M9, was the 61st mission launched by Arianespace on behalf of ESA and carried the 83rd and 84th satellites for the partnership.

See the full pre-launch article here.

Publicerad den Lämna en kommentar

Orolia Academic Partnership Program to support PNT research

Program will support positioning, navigation and timing (PNT) research at colleges and universities around the world

Orolia has created the Orolia Academic Partnership Program (OAPP) to build a community to help foster global PNT research and collaboration at top engineering schools and research institutions.

Orolia will provide qualified institutions with access to the company’s signature Skydel GNSS simulation engine, an advanced GNSS and PNT testing and simulation tool.


Webinar scheduled

Orolia will host a webinar on Dec. 14 at 11:00 a.m. EST to introduce OAPP and answer questions about the program and Skydel. Register here.


Orolia also created an online forum to support its vision to form an interactive community focused on the future of GNSS and PNT research and education.

The forum allows users to interact with other users and Orolia experts, share information, ask questions and receive feedback. A host of white papers, application notes and detailed technical documents are also available.

The Skydel platform

Skydel is an innovative GNSS simulation platform that leverages software, advanced graphics cards and software-defined radios. Users can build custom signals and connect to other systems and devices (such as sensors and inertial measurement units) through Orolia’s open-source plug-in capabilities.

Skydel also includes the ability to generate and test the vulnerability of GNSS/GPS with integrated interference, jamming and spoofing capabilities. Because Skydel leverages commercial off-the-shelf  hardware, it can run independently of simulation vendors’ hardware.

“Skydel platform’s versatility and capabilities allow users to perform tests in the field, in the lab, and at home — whether you are running a turnkey system provided by Orolia, our partners, or through your own proprietary hardware,” said Lisa Perdue, director, PNT Testing and Simulation at Orolia. “Unlike other GNSS simulators, Skydel is the only professional platform offering a plug-in architecture that provides real-time and direct access to the core simulation engine. This plug-in architecture unlocks a new range of application and customization that is impossible to imagine with traditional instruments.”

Perdue added that plug-ins can be shared with the open-source community to leverage all the benefits from a collaborative ecosystem. “We believe this modern architecture is the perfect approach to support academic research as well as allowing users to go further into system integration and customization,” she said.

The University of Stuttgart in Germany is an academic partner. (Photo: Regenscheit, Universität Stuttgart)

The University of Stuttgart in Germany is an academic partner. (Photo: Regenscheit, Universität Stuttgart)

Stuttgart Institute a Pioneer

More than 40 schools throughout North America, Europe, South and Central America and Asia-Pacific are enrolled in OAPP, including the Institute of Navigation (INS) at the University of Stuttgart in Germany, where Skydel is fueling pioneering student research.

“Skydel allows our students to carry out complex field tests, such as simulating laboratory scenarios in real time and using radio hardware to send signals to commercial or self-developed receivers,” said Thomas Hobiger, INS. “We can compare our navigation solutions with the simulated trajectories while showing the absolute accuracy of our algorithms, meaning the deviation from the actual position.”

Hobiger added the INS wants graduates to be well-prepared for the demands of the industry and future innovation. According to Statista consumer research, the installed base of GNSS devices worldwide stood at 6.4 billion units in 2019. The Asia-Pacific region led the way, accounting for 3.4 billion GNSS devices, with forecasts suggesting this is set to rise to 5.1 billion devices by 2029.

“OAPP members can contribute to this community to share their advancements, upload code or make their work available to others in our GitHub repository,” Perdue said. “The goal is to ensure that members can access ideas and expertise of other users across the globe.

“The need for continuous and reliable GNSS signals as well as methods to protect those signals from jamming, spoofing or meaconing is growing exponentially worldwide,” Perdue said. “These are the main reasons why engineering students should gain valuable experience using a platform that provides accurate PNT simulation and measurement.”