The capacity of developing navigation algorithms for data fusion are key aspects covered in SCRIPT. Fusion
navigation solutions based on ranging, direction of departure (DOD) and direction of arrival (DOA) and GNSS based
on single and multiple anchors and peers for outdoor-to-indoor scenarios are developed.
Our own concept in the field of data fusion for indoor/outdoor location, based on a Sigma Point Kalman Filter
(SKPF), the hybrid filter that combines a particle filter with the classical Kalman filter, is used. The SW Receiver

Although Single Event Effects (SEE) have been known for many years to be a major source of anomalies in spacecraft, problems are multiplying because of technology evolution and the inability of analysis techniques to keep pace. New mechanisms in SEE generation are emerging, and "classical" analysis algorithms and software (such as CREME-96) are becoming rapidly outdated due to their major simplifications in the physics and in the treatment of the sensitive "bit" geometry.

In recent years, the traditional MCT (Mercury Cadmium Telluride) technology for near-infrared (NIR) sensing has been developed further to manufacture APD (Avalanche Photo-Diode) arrays, which enables sub-electron readout noise measurements. This technology is now routinely used for wave-front sensing on ground-based telescopes using small format devices. Further effort to increase the size of NIR APD sensors as well as improving the MCT material properties (e.g. lower dark current) is needed such that they can be used for future ground and space-based scientific instrumentation.

MICOR system was successfully assembled at Menhir Photonics and final tests performed at CSEM. The tests demonstrated the impressive noise performance of the device. The following main results have been achieved:

This project aim was to make steps towards a demonstrator for a fully stabilized frequency comb, with the ultimate goal of creating a space-grade version. Such a system is essential for advancing timing and frequency distribution in space technology and enhancing Galileo satellites. Transitioning from electronics to photonics promises to significantly boost the accuracy and precision of satellite clocks, leading to heightened data transfer security, improved telecom performance, resistance to jamming, and more accurate greenhouse gases detection.

Almost all types of satellite sensors are actively or passively cooled, in many cases down to cryogenic temperatures. The goal is to suppress thermal noise in order to achieve the highest possible signal-to-noise ratio. Thus, cryocoolers are critical components in satellite systems, and in many cases key enablers. For instance in Earth Observation (EO) systems, mechanical cryocoolers are preferred over passive ones. The reason is that passive radiators induce constraints on satellite orbit and attitude.