Please click on the + symbol to expand the Filter By ARTES Elements to narrow your search. If you are looking for a specific element select from the list provided and click on the Apply button to start the search and display the results.
This program provides a beam-hopping system test bed for validating a ground-space synchronization mechanism (and other added value use cases) for HTS/VHTS transparent satellites. The project addresses the need for an efficient standards-based approach (integrating Mod/Demod prototypes based on DVB-S2x Annex E) validated in realistic conditions (payload breadboards + channel emulation) allowing prospective users to adopt BH techniques with confidence.
The project intends to study and design a broadband satellite system for RPAS communications using HAPS as a relay node. The activity considers the flight dynamics of RPAS and HAPS, and their constraints in terms of mass and power. The development includes the end-to-end link as well as physical, data link, and network layers. The project develops a system demonstrator to validate the concept.
The main objective of the WAKA project is to design, build, and test an Engineering Model of the RF line-up of a W to Ka-band frequency converter for future telecom payloads by using European or Canadian state-of-the-art MMIC technology.
Innovative design and Qualification of new fully European monopropellant 1N thruster developed specifically to out-perform existing flight-proven designs in terms of specific impulse, pulsing capability and longevity. Radical use of materials, catalyst loading, nozzle and injector design, filtering and fine particle control, etc. make this thruster a key player in the 1N chemical thruster market for satellite orbit control systems. ESA Qualification for NeoSat and Flex programmes have been completed to date (December 2021) and further planned delta-qualification of the MHT-1N fitted with the European Nammo CTV-D flow control valve for another European prime will take place in early 2022. Flight Model Thrusters are being supplied to fly on ESA Flex, Altius and Lunar Pathfinder missions together with other commercial programmes. Nammo are increasing production capability to meet growing demand for this high performance thruster.
EdgeSAT explores the applicability and implementation of edge networking concepts in satellite networks in order to identify and characterise the resulting opportunities for Satellite Network and Service providers as well as Satellite terminal manufacturers. As part of this mission, it specifies and validates a SatCom enabled edge node.
PERSILS from Aerospacelab in Belgium is an inter-satellite link solution for persistent connectivity to LEO satellites. It consists of a Ku-band terminal that leverages existing assets in GEO to relay Telemetry and Telecommand data.
AAC Clyde Space, in collaboration with their partners, are working on a 3-year project as part of the European Space Agency (ESA) ARTES Pioneer partnership programme, developing an innovative satellite constellation service, including the manufacturing of 10 spacecraft. xSPANCION is transformational, laying the groundwork for AAC Clyde Space to provide space data and services quickly, at low cost, to organisations who are eager to harness the power of satellites to tackle problems on-earth.
The objective of SATNEX V is to study medium/long term directions of Space and Satellite Telecommunication Systems for any of the Commercial or Institutional applications that can be considered appealing to key players in the space technologies domain but that are still not mature enough for attracting industry or initiating dedicated ESA R&D activities.
The activity aims to prototype DOG-1, a multi-mode receive modem, compliant to the optical CCSDS specifications and able to process up to 10Gb/s. The modem addresses both high and low intensity laser reception by using hard decision decoding and state-of-the-art soft decision decoding. DOG-1 will address the market need for very high bandwidth CCSDS compliant optical receive modem which can be deployed in a varienty of missions: LEO Earth observation to deep space data relays.
ARTES3-4 High Power Solar Array program purpose is to develop a Solar Array product family with enhanced performances and competitiveness. The different Solar Array configurations – from 4 to 6 panels per wing, with Small or Large panel size - allow to fit with the power range of the new generation of full electric geostationary satellites (Spacebus NEO).
SCNE simulator enables the design of the future LEO satellite communication constellations, but also the study and assessment of protocol and algorithm performances ranging from low-speed data collection and mobile communications to broadband and broadcast services.
The objective of this activity is to establish a framework for soliciting calls for 5G Non-Terrestrial Network over-the-air demonstrations to increase the Technology Readiness Level (TRL), giving the necessary technical support, and, finally, disseminating the results. This would allow to set the basis for future operative implementations of space segment based 5G networks and their integration with Terrestrial Networks.
Romantica provides an Advanced Radio Resource Management software that fully exploits the new generation of VHTS payload flexibility (in terms of frequency, power, beam layout and position assessment). This approach means that this advanced RRM algorithms solution is able to optimize at the same time the system resource planning and the packet scheduling management.
The MSMO study lays on the upstream integration of telecommunication services with different space-based applications, aiming at identifying new end-user services which so far do not exist. What if the Star-Trackers of a telecom satellite had sufficient resolution to track space debris? What if, with the relay of a distress beacon in S&R operations, images of the area could be provided in near real time?
The aim of the activity is the study of a cost-effective on-board Radio Frequency Interference (RFI) geo-location solution, to be embarked on SATCOM satellites, with accuracy performance in the same order or better than the ones of state-of-the-art solutions.
The project aims at defining, designing and validating a machine-learning-based method for the detection of radio-frequency anomalies, and for the identification of the associated root causes. The main purpose is to accelerate the diagnostic activity of domain experts in their analysis throughout the whole development and test phases of an antenna system.
The MRC-SAT Project, featuring the introduction of technology advances in return access technology, extends similar advantages as the HRC Mx-DMA into the SOHO and consumer traffic environment. A new improved architecture is based on a physical layer that has been prototyped and risk-mitigated in the Mx-SAT ARTES Programme.
QUIC is a new encrypted-by-default Internet transport protocol that accelerates HTTP traffic and which has the intention to eventually replace TCP. The project objectives are to identify the root causes of any shortfalls in QUIC performance over satellite, influence and propose changes to the specification, and evaluate them using a real-time emulation test bed. The results of this work are contributed to the IETF.
The frequency converter and MRO/ Clock technology developed can be used in realising down and up conversion pre and post digital processor and the master reference oscillator or clock for telecommunications payloads
The Flexible Compact Array (“FCA”) is new type of solar array that is currently being developed. It has an unprecedented performance in terms of stowed volume, mass in the high power spectrum (10 kW - 35 kW). To enable reliable deployment of the blanket, two types of mechanisms are developed and verified. A wing demonstrator is realized to enable full functional testing of these mechanisms.
Countries located in tropical climates are particularly interested in satellite communication systems, because they can provide telecommunication services to vast regions without the need to install large and costly terrestrial networks. The operation of current satellite multimedia communication systems is moving to Ka-, Q/V- and W-band. However, those frequency bands are severely affected by the atmospheric propagation of electromagnetic waves.
The accuracy of atmospheric and channel models is critical for the design of satellite communication systems, with the actual performance of propagation models for higher frequencies in tropical regions still not being reliably assessed.
The climatic difference to moderate climate can affect several design propagation parameters, including gaseous, cloud and rain attenuation, sky noise emission, site diversity, fade duration and fade slope. The propagation models currently recommended by the ITU-R for global predictions are based on empirical assumptions and on the use of Earth Observation or Numerical Weather Prediction data that cannot provide the same resolution (both in time and space) and accuracy as achievable through direct measurements.
The propagation experiments at these bands are the base for developing accurate propagation models to improve the utilization of the propagation impairments mitigation techniques (PIMTs), such as uplink power control (UPC), adaptive coding and modulation (ACM) and link diversity, which require the knowledge of first and second order statistics of rain attenuation.
The propagation campaign presented in this activity aims to assess the accuracy of current prediction models with focus on rain attenuation and to improve the models for second order statistical parameters such as fade slope, fade duration and site diversity gain.
This project deals with the development and qualification of the next generation of Digital Transparent Processor (DTP) based on 28nm ASIC and optical high speed serial links technologies. Such DTPs will be able to process up to 2500 MHz useful band per access and to present high modularity for offering total capacity compatible of applications ranging from FSS/BSS, HTS & V-HTS needs.
The project focuses on developing a simulator, for analyzing interference scenarios related to Non-geostationary (NGSO) satellite systems. The main objective of this simulator will be to test and validate satellite system designs, including mitigation techniques, against various interference scenarios in which NGSO constellations and/or GSO satellites operate, with the definition of interference mitigation strategies, aimed at enable the coexistence of different systems in the same frequency bands.
SATBETT-5G aims to develop an integrated set of consultancy, prototyping and certification services in the context of 5G private mobile networks over satellite. The long-term goal is the commercial offer of a network-as-a-service platform, driven by the virtualization of terrestrial and non-terrestrial networks and a slicing of the network to tailor the consumer needs. The short-term goal is to provide consultancy services and training to entities planning to build satellite backhauling infrastructures.
The project’s outcomes deal with the design, implementation, test and demonstration of a prototype backhauling solution (satellite terminal, satellite gateway and NB-IoT network functions) which is capable of providing NB-IoT backhauling services. The purposes of this activity is using the latest satellite backhauling technologies and standards in order to provide a more efficient backhauling of NB-IoT cells over satellite. The prototype is embedded in a testbed which represents a realistic environment with regard to a future deployment.
This activity developed and then demonstrated in-orbit, on a commercial spacecraft, a fully Flexible Transparent Digital Processor. This project is another step along the path to fully flexible commercial telecommunications satellites for Europe.
Development of a family of user terminals for Ka band MEO and LEO constellations that can be sold at a low enough price-point to enable operators to provide satellite broadband affordably to the large, transient and growing requirement for global connectivity. The scope in this project is to develop the low-cost terminal for the Methera constellation.
The idea is to propose and to investigate a thin flat antenna for home applications (i.e. DVB-S), which it allows to be easily installed and aligned in a good-looking manner, suggesting innovative and cost/power efficient solutions to implement beam steering or custom solutions with a specific pre-pointing.
The goal of the project is to generate additional data for optimization of assets in satellite communication based on available recorded signal quality data from VSAT networks. This business intelligence data is used for daily work in payload operations as well as for optimizing the business case by leveraging cost reduction opportunities in orbit and on ground.
The European Optical Nucleus Network is the first commercially available Optical Network integrating KSAT’s own optical ground station (OGS) and partner stations. The ESA-ESOC ELRS at Tenerife, the DLR-GSOC at Almeria and the KSAT station at Nemea in Greece (called the Nucleus stations) will be connected to the KSAT Tromsø Network Operations Centre (TNOC). Terrestrial optical communication has changed the way we work, but spaceborne optical links are still not standardized and Direct to Earth Links are not used in an operational environment. The project realizes a first commercial network of optical stations that can be used for supporting optical payloads on any spacecraft.
In 2016 EHP has gained a heat pipes contract for the megaconstellation OneWeb, which represented a challenge in terms of volume and recurring price. An industrialization phase was needed. This industrialization phase has been successfully performed and, since 2015, our number of delivered heat pipes has doubled every year, to reach 2350 items in 2020 and now 3500 items in 2021.
Data in the chart: status is at the date of 24th June 2021
The enhanced Deployable Panel Radiators (eDPR) is a major feature of the OneSat innovative, fully reconfigurable; software defined, and standardized satellite for commercial telecommunication missions in geostationary orbit. This product is one of the major OneSat innovation providing the thermal system with an unprecedented heat rejection capability and efficiency thanks to its ecliptic mechanism (Airbus patent) keeping the panels out of the sun exposure. This is essential to the OneSat platform to reach the required heat rejection due to Active Antenna dissipation in addition to fixed radiators while preserving the Spacecraft compactness.
Development of two Highly-Integrated Single-Chip Frequency Converter MMICs (SCFC) capable of supporting various frequency translation schemes, at Ku and Ka bands, to be exploited in future LEO and MEO constellations.