The following specific objectives have been identified for the INSPIRe project:
Investigate, develop and bench-test techniques and algorithms for autonomous user-level integrity monitoring, based on:
◾Dual-frequency multi-constellation GNSS
◾EGNOS (as a source of error characterisation of GNSS)
◾Dead Reckoning systems (inertial)
Investigate, develop and bench-test equipment…
The objective of LOCFIT (LOCalisation For Iot and Tracking) project is to develop innovative and robust infrastructure-based position-bounding solutions that exploit satellite uplink measurements of connected devices.
Targeted users are low energy and low cost devices, with long life duration without maintenance, dedicated to :
Land transportation: tracking of critical…
The project has been started in order to satisfy the requirements from specific Czech customers. The aim of the project is to develop and penetrate the EU railway market with a modular and precise positioning and communication device called NavCom X utilising Galileo as a preferred GNSS. Supplementary a methodology for testing performance and resilience of the system and its PNT solutions based on…
There is increasing worldwide dependency on global navigation satellite systems (GNSS) that deliver uninterrupted timing signals. This GNSS dependency is driving novel holdover clock development to flywheel over periods when the GNSS signal is unavailable. Enhanced GNSS with next-generation optical clock technologies could facilitate both significantly reduced positioning errors and improved…
The main objective of (VALLE) is to develop an innovative Privacy Preserving PNT concept that explore the possibilities and capabilities of the Privacy Enhancing Technologies, validating their functionalities but also non-functional aspects such as resilience and robustness by a dedicated red team analysis.
The main goal of this project can be summarized as follows:
• To identify, define and…
Enhanced-LORAN (e-LORAN) represents the latest advancement in the well-established and reliable lineage of low-frequency (90 to 110 kHz) Long-Range Navigation (LORAN) systems. It offers a Positioning, Navigation, and Timing (PNT) service suitable for all modes of transportation and various other applications.
The development of a miniature eLoran antenna marks a significant technological…
Optical atomic clocks offer the potential for a new era of timekeeping, with laboratory systems at the world’s leading NMIs already demonstrating 100x improvements in accuracy compared with the microwave fountain clocks that offer the best realisations of the SIsecond. Enhanced PNT systems with these next-generation clock technologies could facilitate GNSS constellations with significantly-…
M3 Systems has successfully provided GNSS test solutions since 2013 with its STELLA NGC (Radio Frequency Constellation Simulator) and STELLA RP (Record and Playback) products. However, evolving technological advancements in GNSS signals, positioning services (OSNMA, HAS, EWSS), LEO-PNT, and other positioning sensors (e.g., IMU) now require more flexible, modular, and advanced testing capabilities.…
Today any safety critical application needs to improve its position and navigation performance in terms of integrity and resilience to disturbs.
MEDEA project target is the development of an “applique” antenna equipment suitable for commercial and professional GNSS receiver to be adopted by users providing additional integrity to PNT solution being able to detect and mitigate potential…
Real-time S-GNSS® receiver
This project is to design and build a real-time SDR (software defined receiver) enabled with Supercorrelation™ technology. This S-GNSS receiver can provide increased accuracy, sensitivity and reliability compared to standard GNSS receivers. Supercorrelation measures satellite signals based on angle-of-arrival, enabling rejection of unwanted signals from…
