A WORLD LEADER IN STAR TRACKERS, OPTICAL INSTRUMENTS & SPACE OPTRONICS - #enablingyourambitions - Sodern
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FLIGHT HERITAGE A FEW EXAMPLES Earth LEO GEO Deep space OneWeb Angels DirectTV Kibo MicroCarb Eurostar NEO Auriga Hydra SED 26 & Horus KazEOsat 2 Japan’s « Planet C » Pléiades Lucy JPSS 2 Japan’s « Selene » ISS Resupply Korea’s « Pathfinder » India’s Mars Orbiter 03 03
HYDRA Hydra is a multiple-head star tracker with separate optical heads and electronic units. Enabled by its high degree of modularity, Hydra can be tailored to suit the need of every customer. Attributed to its exceptional robustness, Hydra can survive high mechanical loads and performs under very harsh conditions such as high slew rates, protons, stray-light to deliver accurate attitudes. HYDRA Baseline Hydra baseline is optimized for earth observation, telecommunications and science missions and can accommodate up to 4 optical heads and 2 electronic units. They trusted us: Latest generation US meteorological satellite GOES R* was launched by Lockheed Martin to GEO in 2016. It’s equipped with 3 Hydra baselines optical heads and 2 electronic units for real time weather forecast. The Earth Observation satellite Pleiades Neo, with 30cm resolution will be launched in 2021 by Airbus. It’s equipped with 3 Hydra baselines and 2 electronic units. Lucy is an interplanetary deep space probe that will explore 6 Jupiter Trojan asteroids. Lockheed Martin will build the spacecraft for NASA. The launch of Lucy is scheduled in October 2021. Cross strapping Optical Head: Electronic Unit: Data fusion • 166 x 160 x 283 mm (LxWxH) • 170 x 146 x 103 mm (LxWxH) CMOS/HAS-2 detector & 1 400 g & 1 800 g Exceptional robustness • Power consumption: < 1 W • Power consumption: < 7 W * GOES R: Geostationary Operational Environmental Satellite 04
HYDRA Centralized Processing [CP] Hydra CP hosts the software in spacecraft’s on board computer. The star tracker enables mass and cost optimization at platform level. Flight heritage: two exemples The first Earth Observation satellite KazEOsat-2* from Airbus Defence Space and its subsidiary SSTL was launched in 2014 with Hydra CP star tracker. The launch of the meteorological satellite JPSS 2** is scheduled in 2022. Northrop Grumman innovative system will build the spacecraft for NASA, NOAA to help to study global change. HYDRA Two Channels [TC] Hydra TC features 2 separate optical heads and 2 electronic units close-coupled within a single housing. Flight heritage: an example The high-power telecommunications satellite providing back up capacity and fleet expansion services for DirecTV was launched in May 2016 with Hydra TC star tracker. HYDRA M Hydra M is a two head star tracker. Hydra M has a low power consumption and a low mass. Flight heritage: an example MicroCarb, a CNES mission, is equipped with Hydra M. The spacecraft performs measurement of atmospheric spectra. * KazEOsat: Kazakhstan Earth Observation Satellite ** JPSS 2: Join Polar Satellite System 05
AURIGA Auriga is an innovative, cost competitive star tracker designed specifically for the small satellite market. Auriga features compact size, low weight, robustness, and low power consumption and over 100 units per month are being produced. As already demonstrated with its flight heritage on Airbus One Web Satellites, Auriga is the best star tracker available in its class. AURIGA Centralized Processing [CP] Auriga CP can accommodate up to three optical heads and comes with a software library that runs on the satellite’s On Board Computer. Image pre-processing is carried out within the FPGA close-coupled with the optical head. The software library is available for different processors on demand. Flight heritage, an example The Auriga CP is flight proven as demonstrated with its continued performance on board the One Web constellation. AURIGA Stand Alone [SA] Auriga SA can also accommodate up to three optical heads and includes one electronic unit hosting Sodern’s software and compute the attitude solution. Auriga SA features a plug-and-play solution with multiple head operation. Auriga SA achieved TRL-9 in December 2019 onboard CNES’ ANGELS satellite. Flight heritage: an example Sodern has equipped the CNES satellite ANGELS* with an Auriga SA. High volume production & quick delivery Optical Head: Design to cost & manufacture • 66 x 56 x 94 mm (LxWxH) & 205 g Easy to assemble • Power consumption: 0.8 W Up to 3 optical heads connected to their own electronic unit Electronic Unit: Fast acquisition and arcsec tracking • 91 x 117 x 25 mm (LxWxH) & 315 g Long lifetime in critical environment • Power consumption: 3.3 W * ANGELS: Argos Neo on a Generic Economical and Light Satellite 06
HORUS Horus is an autonomous and robust standalone star tracker, using innovative technologies to associate high performance and competitivity. Horus will be available in 2021. They have trusted us: Horus is already selected by Airbus Defence & Space for its GEO satcom Eurostar NEO platform. FAINSTAR (CMOS detector) Optical Head: • 141 x 141 x 250 mm (LxWxH) & 1 600 g • Power consumption: 7 W 07
OPTICAL COMMUNICATIONS & MODULAR PAYLOADS LASER LINKS Data transmission via laser links offers higher throughput & security than radio-frequency. A laser link terminal is made of 4 building blocks including a laser modem, a fine pointing device, a beam expanding telescope, & a coarse pointing gimbal, and connects satellites to the ground (feeder links) or to other satellites within a constellation. Gimbal (Under consideration) FINE POINTING DEVICE (UNDER DEVELOPEMENT) An optical sensor is used to track the received beams and actuate a fine steering mirror to optimize the transmission. Telescope Sodern leveraged its heritage with piezo Driving Electronic : • Ampli (Under development) mechanisms and optronic detection to • Laser Emitter & Pointing Acquisition & Tracking develop this device. Receiver (Under consideration) COARSE POINTING GIMBAL (UNDER DEVELOPEMENT) High data Its function is to point the larger beam on the other terminal according transmission to its coarse position. The gimbal has two axes of rotation in order to be able to reach any No interference other satellites. Compact design BEAM EXPANDER TELESCOPE (UNDER DEVELOPEMENT) The function of the telescope is to expand the diameter of the laser. A laser beam means that the laser energy is more concentrated by the emitting terminals, and more energy is collected by the receiving terminals. The telescope is manufactured thanks to advanced mirrors fabrication technologies and innovative integration methods. OPTICAL SWITCH (UNDER DEVELOPEMENT) The switch matrix is an innovative solution to manage photonic signals in a communication payload. The switch enables remote interconnection of a large number of fiber channels (up to 96 x 96) with very low insertion loss thereby providing a high degree of flexibility to the payload architecture. 1550 nm 1.5 dB insertion loss Up to 96 x 96 ports 08
CAMERAS & FILTERS ARAMIS (UNDER DEVELOPEMENT) The Approach and Rendez-vous Automated Multi-mission Integrated Sensor (ARAMIS) is a rendez-vous sensor that uses advanced algorithms for non-cooperative approach, proximity operation and docking. Non-cooperative vision-based navigation with 6 degrees of freedom Autonomous from long distance detection to the final approach High-Performance & robustness Smart design AURICAM (UNDER DEVELOPEMENT) Auricam is a compact, affordable camera designed spacecrafts’ surroundings. Several field of views are possible depending on customers needs. CMOS camera from 1 to 4 Mpixel Compact design 35 degree fields of view available STRIP FILTERS Strip filters are designed to be assembled on detectors to form a multi-spectral detection module for Earth Observation missions. Sodern offers high radiometric and spectral performance, high flexibility (design, spectral characteristics, number of stripes), and very high precision assembly. Multiple strips Very tight spectral precision 09
OUR CORE VALUES TRUST COMMITMENT INTEGRITY DARING EXCELLENCY Franck POIRRIER, CEO “ Our goal: combining technological excellence and competitiveness, to transform our customers’ ambitions into realities. “ Trusted partners 10
EQUIPEMENT FOR SATELLITES Our star trackers allow satellites and spacecraft to orient themselves by detecting, identifying and measuring the direction of the stars. Their role is thus essential to ensure that the satellites function correctly. Our rendez-vous sensors guide space vehicles to their destination in orbit, and make it possible to meet and dock between celestial objects. Our optronic technologies integrated into Earth observation satellites, contribute to our knowledge of the climate, the ecosystem, the geography and the wonders of our planet. NEUTRON ANALYSIS DEFENCE Our neutron exploration tools make it possible Our neutron sources to explore terrain with are designed to offer exceptional precision and an absolut guarentee unmatched speed. of reliability and These tools represent a security. tremendous opportunities to This imperative is revolutionize the mining and petroleum evidence of the technological expertise industries for both exploration and exploitation. of our teams. Using our optronic and Our material analysers enable precise neutron know-how, we provide the determination of the composition of raw defence authorities with earth material flows, which is particularly interesting observation instruments, hardened for cement applications. Our neutron generators star trackers, etc. We anticipate future provide science and industry players with the strategic issues for the armed forces: power and reliability of these particles. Sodern in particular, we develop solutions that produces nearly one hundred neutron tubes can replace GPS localization, or protect a year which are used by a wide variety of our vital infrastructure in space. companies and research institutes in more than forty countries around the world, reinforcing our position as the world leader in this market. SCIENTIFIC & SYSTEM EXPLORATION INSTRUMENTS We proudly participate in extraordinary programs pushing the envelope of humanity’s scientific knowledge. Examples include the PHARAO cesium atom clock which will be installed on the International Space Station, the heart of NASA InSight’s seismometer to study Martian seismology, and the Pockels cells for the Megajoule Laser. These instruments perfectly exemplify Sodern’s technological prowess and strong desire to innovate and seek solutions to challenging problems. We have applied this creativity and tenacity to improve our internal processes thereby revolutionizing our competitiveness and efficiency. 011
#enablingyourambitions SODERN 20 AVENUE DESCARTES 94451 LIMEIL-BRÉVANNES FRANCE www.sodern.com CREATED BY THE COMMUNICATIONS DEPARTMENT OF SODERN, SUBSIDIARY OF ARIANEGROUP
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