At Unmanned Systems 2015, held May 4-7 in Atlanta, NovAtel’s Peter Soar talks about the company’s FlexPak6 receiver that houses its OEM628 triple-frequency plus L-Band GNSS receiver board. It has a highly configurable interface to ensure precise positioning for UAV (unmanned aerial vehicle) applications. Soar explains that its “sister unit,” the FlexPak-S, contains a real time kinematic (RTK) GPS receiver with an L-3 XFACTOR Selective Availability Anti Spoofing Module (SAASM). The two receivers are both the same size and fit.
Tag: OEM
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IFEN’s v3.0 of SX3 GNSS Software Receiver Adds Functions
IFEN has launched the latest software release, v3.0, for its SX3 GNSS Software Receiver Generation.
The newly released software version 3.0 offers the following new features:
- Real‐time P‐code generator and P‐code aiding for GPS L1/L2 cross‐correlation
- Full dual‐antenna support for SX3 Black Edition
- KML file output for Google Earth real‐time visualization
- better performance through switch from 32-bit to 64-bit version
- support of new SX3 RF front‐end with up to 12 IF streams
IFEN’s SX3 multi‐GNSS software receiver now tracks all known and in future upcoming GNSS signals in view in real‐time on a standard laptop (up to 1,000 channels in parallel on a core i7 desktop PC). The included RF front‐end offers four RF frequency chains with 50 MHz bandwidth each, covering the entire GNSS L‐band spectrum.
The USB 3.0 interface enables high‐speed data transfer with up to 8 bit quantization. Customers can fully concentrate on their applications instead of dealing with potentially obscure code when using open source. The professional support is specifically dedicated to sophisticated applications as well as SX3’s capability for additional customizations. This makes IFEN’s SX3 GNSS software receiver a powerful tool for research and development, IFEN said.
In addition a dual‐antenna input RF front‐end (SX3 ‘Black Edition’) has been released in February 2015. This system can for example be used for heading determination, reflectometry and other applications requiring the synchronized input from two antennas.
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Project Counters Ionospheric Disturbance for GNSS

The monitoring station in Brazil uses a Septentrio PolaRxS receiver to monitor the ionosphere, a Septentrio AsteRx3 to perform tests static and kinematic tests, and three RTK Altus APS3 receivers (one as a base station and two as rovers.) After 27 months of intensive research, a project team funded under the European Union’s 7th Framework Programme has come up with a solution to counter the problem of ionospheric disturbance affecting GNSS signals.
The CALIBRA project recently showcased a commercially applicable approach to mitigate the phenomenon’s impact on high-accuracy GNSS positioning techniques. In two demonstrations, the project’s newly developed algorithm was successfully tested in actual precision agriculture and offshore operations.
Solar flares can cause ionospheric disturbance, a sudden increase in radio-wave absorption that often delays the propagation of signals and ultimately affects positioning. The problem has kept researchers busy for years.
The CALIBRA project team has been participating in this global research effort by focusing on Brazil, which is one of the most exposed regions due to its proximity to the magnetic equator. Add to this that the sun is at its peak of activity since it entered its new 11-year cycle in 2010.
The project achieved three main milestones. First, the team confirmed that ionospheric scintillation and variations in total electron content (TEC) had a direct impact on the functioning of high accuracy GNSS techniques, such as Precise Point positioning (PPP) and real-time kinematic (RTK) positioning. Then a suitable metric was established to characterize these ionospheric disturbances. Finally, the project produced a short-term empirical model for forecasting TEC and scintillation. A regional TEC map was developed which proved advantageous for use in Brazil and, to counter scintillation, a number of approaches for the mitigation of this phenomenon were proposed and their benefit demonstrated.
The project exploited the CIGALA-CALIBRA network and database — a network of ionospheric scintillation monitor receivers with a web interface (the ISMR Query tool), which collects more than 10 million observations on GPS, GLONASS, Galileo, BeiDou and other global navigation systems every day. Since it was launched in December 2014, this data has helped assist users from more than 20 countries because of the software’s visualization and mining techniques.
In light of this success, CALIBRA partners INGV (Istitute Nazionale di Geofisica e Vulcanologia) filed a patent for their forecasting model, and a new spin-off company — SpacEarth Technology — was set up. SpacEarth’s main purpose is to secure the software’s commercialization in relevant applications and services, while also improving and adapting it to evolving market needs.
The project’s results promise to considerably reduce downtime and financial losses caused by ionospheric disturbance in Brazil and other regions of the world. Learn more about the project here.
Another ionospheric mitigation project was presented at the European Navigation Conference earlier this month.
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NovAtel Launches Wideband GNSS Antenna

NovAtel GPS-704-WB wideband antenna. NovAtel Inc. has launched the GPS-704-WB wideband antenna, which supports L-band and the frequencies of all current GNSS constellations (GPS, GLONASS, Galileo and BeiDou), including B3 and E6 signals. Customers can use the antenna for GPS-only or multi-constellation applications, giving application developers flexibility, NovAtel said.
The phase center offset of the antenna remains constant as the azimuth and elevation angle of the satellites change, making it a good choice for baselines of any length. Installation is easy, NovAtel said. because the antenna shares the same form factor as other NovAtel GPS-700 series antennas. It is enclosed in a durable, waterproof housing. Its compact, lightweight size makes it suitable for a wide variety of environments and applications, the company said.
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Tallysman GNSS Antennas Optimized for Multi-Constellation Systems

Tallysman’s compact GNSS TW1721 dual-feed embedded antenna with Accutenna technology. Tallysman, a provider of high-performance, high-quality RF and GNSS components, has announced that its range of antennas featuring proprietary Accutenna technology is optimized for today’s multi-constellation satellite systems, including Europe’s Galileo, China’s next-generation BeiDou, GPS, GLONASS and India’s IRNSS.
Tallysman’s compact GNSS antenna range with Accutenna technology is future-proof: GNSS is changing, and an increasing number of receivers are capable of accessing multiple constellations — GPS, GLONASS, Galileo, BeiDou — but to provide the high precision these new generation of satellites enable also requires new antenna technology.
Tallysman’s proprietary Accutenna dual-feed patch technology used in the company’s wide range of GNSS antennas provides circular response over the entire antenna bandwidth, yielding superior multi-path signal rejection-low axial ratios, tight phase center variation (PCV), and a linear phase response. Single-feed patch antennas, by contrast, only provide a circular response at a single frequency and exhibit poor multipath signal rejection when receiving signals from two or more constellations. A pre-filtering option is available that gives additional protection from near out-of-band signals if required.
“Today’s wideband GNSS signals require a pure right-hand-circular response over a much wider bandwidth,” said Gyles Panther, president of Tallysman. “An inadequate phase response results in poor cross polarization suppression, which simply cannot be overcome in the GNSS receiver chip, regardless of its capabilities. Moreover, multipath interference can be expected, even in normal reception situations. Accutenna technology is a cost-effective way to ameliorate this and is particularly beneficial in situations where precision matters.”
In March, the European Space Agency launched two additional satellites (Galileo 7 and 8). Also in March, the United States launched GPS IIF-9, India launched IRNSS-1D, and China successfully launched its new generation BeiDou-3 M1. The expanding number of satellites will benefit many applications, from next-generation in-car navigation systems to coastguard search and rescue and precision agriculture, Tallysman said.
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Furuno Receiver Adopted for Use in Parrot Bebop Drone

Parrot’s quadcopter Bebop Drone has Furuno inside. Furuno Electric Co.’s latest multi-GNSS receiver module, GN-87, has been adopted for the new quadcopter Bebop Drone, made by Parrot SA. Parrot develops advanced technology wireless products.
The GN-87 can receive GPS, GLONASS, SBAS, and QZSS concurrently, which significantly improves positioning success rate and robustness against interferences by using different frequency bands, Furuno said.
Parrot Bebop Drone, equipped with a 14-megapixel fisheye lens camera, takes video and pictures in a 180-degree field. The drone integrates mechanical and digital systems, like shock absorbers that cushion engine vibrations and algorithms for an exclusive 3-axis image stabilization, meaning that the angle of the view remains fixed, without distortion, regardless of the inclination of the drone and movement caused by turbulence. The combination of numerous sensors gives the drone impressive stability and great maneuverability when piloted via Wi-Fi with a smartphone and a tablet, or with its Wi-Fi extender, Parrot Skycontroller.
Furuno’s GN-87 supports sensing for autonomous flying according to flight routes preset on the map application by user, automatic return to takeoff position, recording flight path data for 3D modeling on Parrot Academy map. According to Parrot, selecting Furuno’s GN-87 multi-GNSS receiver module enabled simple integration with a high-performance GNSS receiver module while guaranteeing high quality and high volume supply availability.
Below is a video of the Bebop drone in action.
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u-blox Surface-Mount GNSS Module Supports All Satellites

The u-blox CAM-M8C. u-blox is offering the CAM-M8C — a small, low-profile GNSS positioning module with an integrated wideband chip antenna for reception across the entire L1 band. The module offers simultaneous GNSS operation for GPS/GLONASS, GPS/BeiDou, or GLONASS/BeiDou to deliver accurate, jamming-resistant and reliable positioning anywhere in the world.
The CAM-M8C integrates a u-blox M8 satellite receiver, crystal oscillator, SAW filter and low-noise amplifier. It also has an input for an external active antenna — when using this option, the internal antenna acts as a backup. Because of its design, the module maintains its performance regardless of physical orientation, making the product suitable for mobile applications with frequent change of bearing.
“Where space is at a premium, for example in emergency call systems, in handheld navigation or in wearable devices, the CAM-M8C module offers a very cost-effective way to bring products to market quickly due to its small size and high levels of integration,” said Kim Kaisti, product manager, Product Center Positioning. “It does this without compromising performance or reliability, and leaves system designers free to concentrate on other important aspects of their product development.”
The CAM-M8C is footprint-compatible with u-blox UC530 and UC530M modules, providing an easy upgrade path, the company said. The module is available now.
To further accelerate design and development, an evaluation kit, EVK-M8CCAM, provides a way to become familiar with the CAM-M8C module and assess its performance in specific applications.
The u-blox M8 GNSS receiver antenna module is delivered in u-blox Professional Grade, and is qualified to JEDS47 and ISO16750 standard “Road vehicles – Environmental conditions and testing for electrical and electronic equipment.” The product is manufactured in ISO/TS 16949 automotive-certified production sites, ensuring the high quality and reliability
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Telit GNSS Module Enables High-Performance Position Reporting

Telit’s Jupiter SE868-V3 module. Telit Wireless Solutions has released a new GNSS module, the SE868-V3. The positioning module combines GPS, GLONASS, Beidou, Galileo and SBAS, which enables the creation of high-performance position reporting and navigation solutions.
The SE868-V3 can navigate to -162 dBm and track to -166 dBm, providing improved performance in harsh environments. It is pin-to-pin compatible with the former SE868-V2 as well as the JF2. This advanced GNSS module can track GPS and GLONASS or GPS and Beidou constellations simultaneously and it is Galileo-ready.
The 11 x 11 mm QFN package contains a powerful baseband processor, SQI Flash memory and GNSS chip with integrated low noise amplifier (LNA). The ultra-sensitive RF front-end enables multi-GNSS indoor fix and high-quality navigation in challenging outdoor scenarios such as dense urban areas, Telit said.
In addition, the SE868-V3 supports ephemeris file injection (A-GPS) as well as Satellite-Based Augmentation System (SBAS) to increase position accuracy. Its onboard software engine is able to locally predict short-term ephemeris starting from data broadcast by GNSS satellites received by the module and stored in the internal Flash memory.
“The SE868-V3 is yet another addition to our positioning product portfolio, which is the result of over 20 years of experience in GNSS applications,” said Felix Marchal, chief product officer, Telit. “Our products are compatible with the GPS constellation as well as its Russian counterpart GLONASS and China’s Beidou.”
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Hemisphere GNSS Offers RTK-Capable Compass Antenna

The Hemisphere GNSS V320 GNSS compass. Hemisphere GNSS is offering a new RTK-enabled Vector V320 GNSS compass. The Vector V320 smart antenna supports multi-frequency GPS, GLONASS, Galileo (future firmware upgrade required) and BeiDou, and Hemisphere GNSS says it’s “the first of its kind.”
Designed for the professional marine and marine survey markets, the Vector V320 is the a multi-frequency, multi-GNSS, all-in-one smart antenna capable of both RTK-level positioning accuracy and better than 0.2-degree heading accuracy in a simple-to-install package.
“The Vector V320 combines our expertise in GNSS and smart antenna design,” said Lyle Geck, senior manager, Product Marketing, at Hemisphere GNSS. “With RTK performance that competes with current industry leaders, extremely accurate accelerometer-aided GNSS heading, and the simplicity of install offered by the smart antenna design, it is an incredible product.”
The Vector V320 is the latest in a line of GPS/GNSS compasses, including the multi-frequency, multi-GNSS Vector VS330 receiver as well as the Vector V102, Vector V103 and Vector V104 compass smart antennas.
“There has been a void in the market. Our customers have been looking for a product that provides RTK accuracy together with precision heading in an easy-to-install package,” said Andy Smith, managing director of Saderet Ltd. “The Vector V320 delivers.”
The Vector V320 GNSS compass is being featured by Hemisphere GNSS at Ocean Business in Southampton, UK, April 14-16, at stand K12.
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Honeywell Tracking Passes Test for Galileo Search and Rescue

One of the Honeywell Global Tracking ESA installations. Honeywell’s Global Tracking solution has passed the final acceptance test for use on the European Space Agency’s (ESA) Galileo search and rescue program by demonstrating dramatically reduced emergency response times, Honeywell said.
Honeywell Global Tracking, part of Honeywell’s Scanning and Mobility business, is working in partnership with the Aerospace & Defense division of Capgemini, the prime contractor for the Galileo search and rescue program, to deliver a high-precision positioning system that is fully compatible with the international standard, which is known as the Cospas-Sarsat standard. Tests using the Honeywell system have proven that the time from beacon transmission to detection and processing has been reduced from several hours to a few minutes — often the difference between life and death in an emergency situation.
The international Cospas-Sarsat program is a satellite-based search and rescue distress alert detection and information distribution system, best known for detecting and locating emergency beacons activated by aircraft, ships and remotely located people in distress. Honeywell’s satellite tracking technology, which detects faint alerts sent by emergency beacons around the world using a combination of Doppler curves, noise reduction, and advanced signal processing, quickly calculates the exact location of the beacon and sends the results to the relevant Mission Control Centers in the region.
“Our Medium Earth Orbit-based search and rescue solution will lead to faster recovery missions and improved international search and rescue operations, and we’re pleased to partner with the European Space Agency to help execute on this important, life-saving system,” said David Sharratt, general manager, Honeywell Global Tracking. “With decades of experience developing this technology, Honeywell Global Tracking is the global leader of search and rescue solutions.”
“Up until now, Cospas-Sarsat has relied on satellites in low and high orbits, but medium orbits with satellites such as Galileo are better for search and rescue purposes; they combine a wide field of view with strong Doppler shift, making it more likely a distress signal is pinpointed promptly and accurately,” said Fermin Alvarez, ground station and fielding engineer with ESA. “Together with Honeywell, we are encouraged to see Galileo performing so strongly, thereby solidifying our ability to support precise and speedy search and rescue efforts.”





