Tag: Europe

  • Todd Humphreys: Russian satellites a cause of GNSS jamming across Europe

    Todd Humphreys: Russian satellites a cause of GNSS jamming across Europe

    Russian satellites have caused GPS outages of as long as 10 seconds across Europe, according to a new research paper, authored in part by GNSS expert Todd Humphreys.

    Humphreys is head of the Radionavigation Laboratory at the University of Texas at Austin. Separate research by Richard Bowden at Spanish company GMV supports the findings, according to The New York Times.

    In at least three of 75 instances identified since 2019, the interference originated from as many as three Russian satellites. The other cases implicate the same Russian early-warning network; though data is insufficient to pinpoint the source, the same type of signal was identified.

    Whether Russia knows of the interference — and its motives — is unknown, but the signals disrupt GPS, Galileo and BeiDou, and not Russia’s own GLONASS. The press office for the Russian Embassy in Washington, D.C. told The Times it had no comment.

    The paper, “Chasing Lightning: Detecting, Characterizing, and Identifying a Powerful Space-Based GNSS Interference Source” by Zachary L. Clements, Argyris Kriezis and Todd E. Humphreys, can be accessed here.

    The paper provides a comprehensive analysis of the GNSS interference phenomenon: wide-area transient interference from a space-based source causing up to 10-dB GNSS degradation across Europe since 2019 in the L1 band. The interference’s spatial, temporal and spectral properties are detailed. The researchers designed a framework to detect events using 1-Hz carrier-to-noise ratio observables from a network of 165 reference stations.

    The three satellites implicated in the interference are part of Russia’s Edinaya Kosmicheskaya Sistema (EKS) constellation, which detects missile launches and nuclear explosions around the world. The first instance of this widespread jamming was recorded in October 2019, a month after the first EKS satellite was launched.

    These cases are among the first known examples of GPS interference originating from space. Two historic cases of satellite interference were caused by technical glitches.

  • GNSS-IR aids in water-level research

    GNSS-IR aids in water-level research

    Cost-effective sensors from the University of Bonn are measuring water levels along rivers and coastlines in Africa and the Pacific region.

    Using a low-cost sensor and GNSS Interferometric Reflectometry (GNSS-IR), river water levels can be monitored around the clock. The water-level data are automatically transmitted via cellular networks to an analysis center.

    Researchers at the University of Bonn developed the method several years ago and tested it on the Lower Rhine. With support from the European Space Agency (ESA), the monitoring system is now also being used in Africa and the Asia-Pacific region.

    Researchers at the Institute of Geodesy and Geoinformation at the University of Bonn, led by Makan Karegar, have transferred water -level monitoring technology from the Rhine to Africa, Australia and the Philippines as part of ESA projects. Originally developed in the DFG Collaborative Research Center SFB 1502 (DETECT), the technology enables continuous, freely accessible monitoring of inland and coastal waters in data-poor regions worldwide.

    Active on three continents

    The technological centerpiece is the Raspberry Pi Reflector (RPR), a compact, solar-powered sensor developed at the University of Bonn. Using GNSS-IR, it measures water levels with centimeter-level accuracy.

    Only a portion of the signals emitted by the GNSS satellites is directly captured by the antenna. The rest is reflected by the water surface and reaches the receiver via this detour. When superimposed with the directly received signal, it forms specific patterns known as interference patterns. These can be used to calculate the distance from the antenna to the water surface.

    Each unit costs less than 800 euros, is powered by solar energy, and transmits data daily via mobile networks. “Modern gauge stations are prohibitively expensive, and conventional ones are highly vulnerable to flood damage,” said Makan Karegar, project manager. “These two factors together have left many countries in the global south with little to no ground-based water-level monitoring. The low-cost GNSS-IR sensor was developed precisely to address this gap.”

    CAMEO-WAGST Project

    The CAMEO-WAGST project (“Cameroon Advanced Measurements for Enhanced Observations of Water levels using Affordable GNSS-IR and Sentinel-3 & 6 Technology”) has established the first dedicated GNSS-IR network for monitoring water levels along coasts and rivers in Camroon and was funded by ESA. Between May and June 2025, researchers collaborated with Loudi Yap, director of the Research Laboratory in Geodesy at the National Institute of Cartography to install eight RPR sensors in Cameroon: two on the Sanaga River and six along the coast. “A lack of infrastructure for reliable hydrological and coastal monitoring in Cameroon has so far hindered effective flood risk management and early warning systems,” Yap said.

    This collaboration, under the umbrella of the EO Africa Research and Development Facility, is already bearing fruit, said Roelof Rietbroek, research coordinator at ESA’s EO Africa R&D Facility. “We hope this paves the way for more reliable monitoring of flood-prone regions in Africa.”

    St3TART-FO Project

    Building on this success, the follow-up project St3TART-FO also was launched in collaboration with ESA. A total of 17 RPR sensors will be installed in seven countries, including West Africa, Australia and the Philippines. “The goal is to create a freely accessible reference measurement network for calibrating satellite data,” Karegar said. For the first time, the network will provide continuous water-level data at previously unmonitored locations.

    The collaboration is based on years of scientific exchange between Africa and Europe. Partners include:

    • International Institute for Water and Environmental Engineering (2iE), Burkina Faso
    • National Institute of Cartography, Cameroon
    • Environmental Protection Authority (EPA), Ghana
    • Nigeria Hydrological Services Agency (NiHSA)
    • University of Maiduguri, Nigeria
    • Assane Seck University of Ziguinchor, Senegal
    • University of Southern Queensland, Australia
    • University of the Philippines Diliman.

    Technology Transfer and Capacity Building

    Both projects promote technology transfer and local capacity building through training, workshops and mentoring, enabling partner institutions to operate RPR networks independently. “We want to leave behind a sustainable monitoring capacity that is operated by local scientists and institutions, openly shared with the world, and maintained well into the future,” Karegar said.

    With financial support from the Transdisciplinary Research Area (TRA) “Sustainable Futures” at the University of Bonn, Karegar developed the open-access data platform gnss4surfacewater.com, which provides an independent, ground-based service for monitoring current and historical water levels using GNSS-IR. Also visit CAMEO-WAGST GitHub for code and field photos.

  • Thales secures military navigation with TopStar Smart Receiver

    Thales secures military navigation with TopStar Smart Receiver

    Thales has launched the TopStar Smart Receiver, a three-in-one ultra-compact solution designed to provide land forces with resilient positioning, navigation and timing capabilities, while maintaining radio communications in increasingly contested electronic warfare environments.

    The TopStar Smart Receiver can be integrated into land vehicles, drones and munitions.

    Key features

    • Dual-constellation GNSS receiver. The receiver integrates signals from military constellations, Galileo PRS and civilian GPS, and provides resistance to spoofing with enhanced accuracy and availability.
    • Anti-jamming function. Its adaptive controlled radiation pattern antenna (CRPA) reduces interference from jammers, and enables operation at distances up to 30 times closer than with a conventional GPS receiver.
    • High-performance clock. The clock ensures synchronization of tactical radios for up to 48 hours following GNSS signal loss, versus 30 minutes with conventional equipment.

    Produced entirely within a sovereign European industrial base, the TopStar Smart Receiver is assembled at Thales’ site in Valence, France. The receiver is now available for testing in real-world conditions.

    “Powered by cutting-edge technologies, the TopStar Smart Receiver delivers resilient, high-performance PNT capabilities for land platforms, drones and munitions,” said  Florent Chauvancy, vice president of avionics and flight activities, Thales. “Innovative, reliable, competitive and compact, it ensures mission continuity in the most demanding operations, showcasing Thales’ expertise and commitment to innovation in support of the armed forces.”

  • EUSPA and EIOPA harness Copernicus data to guide disaster response

    EUSPA and EIOPA harness Copernicus data to guide disaster response

    Using data from satellites to predict and resond to climate-related disasters is considered in a new white paper.

    The EU Agency for the Space Programme (EUSPA) and the European Insurance and Occupational Pensions Authority (EIOPA) published the joint white paper

    It explores how Earth observation (EO) data could be harnessed to enhance the supervision of natural catastrophes and assess the impact of extreme weather events on Europe’s insurance sector.

    As Europe faces escalating climate-related disasters and rising economic losses related to them, the need for more effective risk management and greater resilience against natural catastrophes is paramount — not least through the deployment of innovative solutions.

    The white paper is the result of a joint pilot project between EIOPA and EUSPA — highlights the benefits of using open-access Earth observation data from Copernicus to improve the tracking and management of natural hazards.

    The project demonstrates that satellite-based EO data offers independent, objective and near real-time geospatial insights that can meaningfully improve risk assessment and risk management practices for insurers, communities and supervisors.

    Earth observation technology — especially the open, traceable data that Copernicus provides — can sharpen risk identification, reinforce scenario design and accelerate loss estimates in the aftermath of shocks. Financial supervisors can leverage the technology to:

    • rapidly identify affected areas and exposed insurance undertakings: Satellite imagery makes it possible to map disaster-affected areas (for example, the extent and trajectory of floods) as events unfold. This granular geospatial data can be matched with Solvency II regulatory reporting to estimate the potential impact of natural catastrophe events on individual insurers (micro-prudential perspective);
    • estimate overall loss-magnitudes early on by scaling up the micro-level analysis to the sector as a whole (macro-level perspective); and
    • improve benchmarking, model validation and scenario and stress test design by providing objective, data-driven reference points against which model outputs and reported or calculated losses can be compared.

    The collaboration between EIOPA and EUSPA showcases the value of innovation in addressing the challenges posed by climate-related disasters: when used effectively, Earth observation data can contribute to a more resilient and sustainable insurance sector — one that better protects European citizens and businesses from the damaging effects of a warming climate.

  • Baltic and North Sea states warn of safety risks from GNSS interference

    Baltic and North Sea states warn of safety risks from GNSS interference

    The Coastal States of the Baltic Sea and the North Sea have published an open letter to the international maritime community insisting on the protection of GNSS-based navigtion. The countries point the finger squarely at the Russian Federation for causing disruption in both critical navigation and timing services for sea vessels.

    “Modern maritime transport is fundamentally built on the reliability of satellite-based navigation,” reads the letter. “For over three decades, global shipping has advanced by developing vessel operations to increasingly depend on the position, timing and navigation data provided by satellite systems. This shift has brought great efficiency but has also created a new dependency.

    The letter highlights the importance of GNSS as a critical safety requirement, not only ship navigation but also precise time synchronization vital for systems such as the Global Maritime Distress and Safety System (GMDSS).

    Risks to the Automatic Identification System

    Another GNSS service, the Automatic Identification System (AIS), plays a key role in traffic coordination, situational awareness and emergency response. “Spoofing or falsifying AIS data undermines maritime safety and security, increases the risk of accidents, and severely hampers rescue operations,” the letter states.

    “We are now facing new emerging safety situations due to growing GNSS interference in European waters, particularly in the Baltic Sea region. These disturbances, originating from the Russian Federation, degrade the safety of international shipping. All vessels are at risk.”

    The countries ask for cooperation developing alternative terrestrial radionavigation systems as a GNSS backup. They also want vessels crews properly trained to operate safely during navigation system outages.

    “Maintaining trust in maritime navigation requires more than technology – it demands responsibility, transparency, and decisive action,” the letter states. “We must ensure that our seas remain safe, including when systems fail or face disturbances.”

    The signatories include:

    • Belgium
    • Denmark
    • Estonia
    • Finland
    • France
    • Germany
    • Iceland
    • Latvia
    • Lithuania
    • The Netherlands
    • Norway
    • Poland
    • Sweden
    • The United Kingdom
  • TruePoint launches European NRTK service TruePoint.CM

    TruePoint launches European NRTK service TruePoint.CM

    BDStar Navigation subsidiary TruePoint has introduced the TruePoint.CM network real-time kinematic (NRTK) service across Europe, the latest in BDStar’s expansion into international high-precision positioning markets.

    Supporting all major GNSS and QZSS, the service is designed to improve signal reliability in complex European environments. TruePoint.CM is built on the company’s chip-cloud integration architecture and works with both BDStar’s Unicore and third-party GNSS hardware through standards-based interfaces.

    The service provides wide-area coverage throughout Europe, the company said, offering centimeter-level accuracy with fast convergence times. Before launch, TruePoint conducted extensive validation testing in more than 40 cities across 12 European countries, including more than 300,000 kilometres of dynamic field trials.

    The platform uses an adaptive data protocol to reduce bandwidth consumption by up to 70% while maintaining full positioning accuracy, a feature aimed at helping customers reduce operational data costs. Remote diagnostics and over-the-air firmware updates are incorporated to support more efficient device management in the field.

    TruePoint.CM operates on a fully redundant cloud infrastructure spanning data sources, data centers and service-delivery interfaces. The system is designed to ensure continuous uptime, backed by a stated service availability of 99.9%.

    At launch, the company reported that it has already secured commercial adoption in the European robotic lawn mower market, with additional opportunities expected in autonomous robotics, UAVs, precision agriculture, automotive and consumer IoT.

  • European Commission proposes expanding defensive drone wall

    European Commission proposes expanding defensive drone wall

    The European Commission plans to expand its drone wall on Europe’s eastern borders because some regions said they felt left out after an initial “wall”, reports Reuters. The idea is to counter drone incursions with a network of sensors, electronic jamming systems and weapons stretching from the Baltic states to the Black Sea.

    The European Drone Defence Initiative proposal is included in the commission’s Defence Readiness Roadmap 2030 issued Oct. 16. Commission President Ursula von der Leyen proposed the drone wall after 20 Russian drones entered the airspace of EU and NATO member Poland in September.

    Eastern European states welcomed her proposal, but countries in southern and western Europe said it neglected drone threats in their part of the continent.

  • Transportation: Norway to Build Deepest and Longest Tunnel

    Transportation: Norway to Build Deepest and Longest Tunnel

    Norway’s geography presents persistent transportation challenges. The country’s complex network of fjords, islands and mountainous terrain forces travelers to rely heavily on ferry systems and intricate routes that can significantly extend travel times between major population centers.

    Norway is building an underwater tunnel, one of Europe’s most ambitious engineering projects, which is expected to boost the country’s transport links and infrastructure. Project Rogfast is a 27 km tunnel that will run 392 m below sea level at its deepest point, connecting the cities of Stavanger, Haugesund and Bergen. Upon completion, it will be both the world’s longest and deepest road tunnel. The project is expected to reduce travel times between these major cities by approximately 50%, while eliminating dependence on weather-sensitive ferry connections.

    “Traveling in Norway takes time. Efficient roads like Rogfast are crucial for progress,” said Trond Valeur, vice president of Skanska Norway.

    Skanska serves as the primary contractor and is executing the project’s construction using a dual-approach method. Two separate teams are drilling and blasting from opposite ends of the tunnel route, with the objective of meeting in the center with a tolerance of 5 cm or less.

    When describing the challenge, Rolf Christian Kværnæs, head of Geomatics at Skanska Norway, said, “It’s like two people sitting across from each other, blindfolded, trying to touch fingers.”

    Why Precision Matters

    The financial and environmental costs of measurement errors in tunnel construction are substantial. According to project data, a deviation of just 10 cm in drilling and blasting operations results in one to two additional truckloads of material removal per session.

    “If we are 10 cm out of a lane, it will build up all the way down. It’s not sustainable or economical to do it twice,” said Anne Brit Moen, project manager at Skanska Norway.

    This precision requirement has prompted the use of continuous monitoring systems that track, verify and record each construction phase to reduce rework. The strict accuracy standards for this type of construction pose considerable technical difficulties. Because underground environments block GPS signals, alternative measurement methods are necessary to ensure precision over the extensive length of tunnels.

    Technology Integration in Extreme Environments

    The surveying team at Skanska depends on Hexagon’s technology daily to ensure precision is up to 5 cm and minimize errors. Hexagon acts as Skanska’s “eyes” underground, without which projects like Rogfast would be impossible.

    “Hexagon’s technology scans, checks and documents everything for us, so we know we don’t have to go back,” Valer said.

    The surveying teams conduct 12 to 18 measurement scans daily using total stations and laser scanners provided by Hexagon. These instruments continuously monitor the tunnel’s alignment and document progress to ensure adherence to design specifications.

    The Skanska team is using several Leica Geosystems surveying instruments, including the Leica TS60 and Leica MS60 MultiStation. The Leica TS60 serves as an accurate total station, specifically designed for demanding precision applications such as underground construction.

    The Leica Nova MS60 MultiStation is a robotic total station that can measure points with an accuracy of 1 mm to 2 mm and capture 3D scans. This dual functionality combines traditional total station capabilities with integrated laser scanning, allowing the same instrument to perform both precise point measurements and comprehensive area documentation.

    In the Rogfast project, these total stations serve as the primary positioning reference system. They establish control networks throughout the tunnel construction, providing fixed reference points from which all other measurements are taken. The robotic capabilities enable automated target tracking and measurement, reducing human error and increasing efficiency in the confined underground environment.

    The hardware components work in conjunction with Hexagon’s data processing software, which manages the massive datasets generated by continuous scanning operations. Hexagon’s Geosystems division provides digital solutions that capture, measure and visualize the physical world, enabling data-driven transformation.

    The software processes raw measurement data into actionable information, comparing actual construction progress against design models and generating reports that identify areas requiring correction. This integration allows project managers to make real-time decisions based on accurate spatial data.

    Project Timeline and Scope

    Project Rogfast represents one of several major infrastructure initiatives designed to improve transportation efficiency across Norway’s challenging terrain. The tunnel’s completion, set for 2033, seeks to establish new technical benchmarks for subsea construction while addressing long-standing regional transportation limitations in Norway.

  • Europe launches PNT/GNSS info portal

    Europe launches PNT/GNSS info portal

    A new information portal for PNT and GNSS is now active. The European GNSS Center of Excellence (GNSS-COE) is designed to provide expertise to help development of critical PNT and GNSS applications.

    “We support the development of applications both in the design definition phase, as well in the validation phase of these applications,” according to the site. Among the offerings are masterclasses, resilience assessment, mitigation methods, and a newsfeed.

    The portal, a National GNSS Knowledge Center project, was funded under the European Space Agency’s NAVISP Element 3, which supports member states’ PNT initiatives and national strategies.

  • Allies send new UAVs to Ukraine

    Allies send new UAVs to Ukraine

    Image: sandsun/iStock / Getty Images Plus/Getty Images
    Image: sandsun/iStock / Getty Images Plus/Getty Images

    Ukraine’s allies in Europe are sending the country new UAVs and counter-UAV equipment, reported The Defense Post.

    German weapons provider Rheinmetall is preparing to send its LUNA NG (next generation) unmanned reconnaissance UAV to Kyiv, the company announced August 14. The system should be delivered by the end of the year, according to Rheinmetall.

    The LUNA NG is part of a sizable military aid package for Ukraine initiated by the German government in July. Per Rheinmetall, the package includes a ground control station and several UAVs, as well as a launch catapult, an optional net equipment for catching landing UAVs and equipment for rapid repair. The system is mounted on a Rheinmetall HX truck with a swap body system.

    The UAV is designed for a range of mission-specific payloads — including LTE network and electronic warfare support measures such as detection, classification and analysis of electromagnetic radiation for threat detection.

    UAV can remain aloft for more than 12 hours and maintain a datalink range of up to 100 kilometers normally, and up to 300 kilometers when fitted with optional satellite communication equipment, according to Rheinmetall.

    The Bundeswehr (the German military) has operated LUNA UAV systems since the early 2000s. Those were originally developed by German manufacturer EMT Penzberg, which was acquired by Rheinmetall in 2021.

    Berlin has already delivered several reconnaissance UAVs to Ukraine, including 88 Vector UAVs from Quantum Systems, 20 RQ-35 Heidrun systems Sky-Watch, and 32 unspecified reconnaissance UAVs, as of August 9.

    Ukraine will also soon receive a series of Cortex Typhon counter-UAV systems made by Norway’s Kongsberg, after the company signed an agreement via the International Fund for Ukraine.

    The delivery consists of several Cortex Typhon systems — developed to counter a wide spectrum of UAVs with solutions to either physically harm or disable an aerial threat, Kongsberg said.

     

  • Septentrio and Point One Navigation partner to expand portfolio across Europe

    Septentrio and Point One Navigation partner to expand portfolio across Europe

     

    GNSS interface board – mosaic. (Image: Point One Navigation)
    GNSS interface board – mosaic. (Image: Point One Navigation)

    Point One Navigation and Septentrio have partnered to expand upon the companies’ precision location solutions throughout Western Europe. The new developer compatibility is suitable for demanding applications, including industrial autonomy, precision agriculture, logistics and delivery, robots and autonomous vehicles.

    Point One’s Polaris is a correction network that enables high-precision GPS and computer vision-based localization. Polaris has recently extended coverage to now include Western Europe, further expanding the reach of the network. This solution is powered by Septentrio’s GNSS receivers, including the mosaic compact multi-constellation GNSS receiver.

    The mosaic module — a multi-band, multi-constellation receiver in a low-power surface-mount module with a wide array of interfaces — is designed for mass market applications such as robotic and autonomous vehicle guidance systems. The module integrates GNSS and RF ASIC technology, as well as the robust positioning engine from Septentrio.

    Septentrio real-time kinematic (RTK) receivers can be used directly with Polaris to provide centimeter-level accuracy in seconds.

    This technology is complemented by Point One’s FusionEngine software, which further integrates cameras and additional sensors to achieve the desired level of precision — even in the complete absence of satellite signals.

    FusionEngine has the accuracy and the resilience to inclement weather required by Level 2 applications, such as highway lane keeping and V2X, while offering the robustness necessary for mission-critical Level 4 and Level 5 robotaxi and full autonomy applications.

  • Thanks Galileo: How the constellation can boost positioning accuracy for space missions

    Thanks Galileo: How the constellation can boost positioning accuracy for space missions

    Image: ESA
    Image: ESA

    The Navigation Support Office at the Mission Control Centre of the European Space Operations Center (ESOC) has been tasked with providing independent precise orbit determination for European space missions. ESOC, which is based in Darmstadt, Germany, is a part of the of the European Space Agency (ESA). ESA aims to use high-quality signals from Galileo alongside GPS to sharpen the orbital positioning levels for future space missions.

    The Navigation Support Office has used the positive results of the Copernicus Sentinel-6 mission — one of the first missions to fly a joint Galileo-GPS capable receiver, which improved positioning capabilities — to prove to ESA mission teams that future missions can harness the power of Galileo to improve positioning accuracy.

    Missions in the works 

    Proba-3 is a precision formation flying mission that aims to launch in 2024. The mission consists of two small satellites launched together that will separate to fly in tandem to prepare for future multi-satellite missions flying as one virtual structure. This mission will require millimeter-scale positioning precision and use a variety of positioning methods, including optical, radio and laser links and GNSS such as Galileo.

    The ESA-supported Lunar Pathfinder will be launched into lunar orbit in 2024 with the intent of using it as a communication satellite for future moon missions. The spacecraft will incorporate a specially designed GPS- and Galileo-capable receiver that aims to demonstrate the feasibility of positioning fixes from 400,000 km away.

    The future of Galileo

    Galileo serves Europe and the world with accurate and reliable navigation services as well as a catalyst for future space missions — making it a critical aspect of both everyday life and the enhancement of accurate navigation. The constellation will continue to grow with 10 more Galileo first-generation satellites planned for launch in the next few years. Second-generation Galileo satellites with enhanced capabilities are being built for testing and qualification at ESA’s European Space Technology and Research Centre as well.