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Astrium


Astrium was a European aerospace manufacturer and subsidiary of the European Aeronautic Defence and Space Company (EADS) that developed and produced civil and military space systems, including satellites, launchers, and orbital infrastructure.
Formed in 2000 by merging the space divisions of Aerospatiale Matra (France), DaimlerChrysler Aerospace (Germany), and Matra Marconi Space (Franco-British joint venture), Astrium integrated operations across France, Germany, and the United Kingdom to become Europe's preeminent space enterprise.
The company served as prime contractor for critical European Space Agency programs, such as the Ariane 5 heavy-lift rocket, the Columbus laboratory module for the International Space Station, and the Automated Transfer Vehicle resupply spacecraft, alongside leading satellite projects for telecommunications, Earth observation, and navigation.
Astrium's innovations supported over 300 satellite missions and contributed significantly to Europe's independent access to space, with annual revenues exceeding €5 billion by 2011.
In late 2013, amid EADS's restructuring and rebranding to Airbus Group, Astrium was combined with the Cassidian defence division and Airbus Military to establish Airbus Defence and Space.

Formation and Corporate Evolution

Founding in 2000

Astrium was formed in 2000 through the merger of Marconi Space—a Franco-British established in 1996 between Aerospatiale () and GEC-Marconi (, later )—with the space division of DaimlerChrysler Aerospace (, ). The initiative was announced on October 19, 1999, as a strategic to create Europe's preeminent space company, with operations commencing early in the year alongside the broader formation of the European Aeronautic Defence and Space Company (EADS) in July 2000. This trinational structure integrated capabilities in satellite systems, launchers, and orbital infrastructure, drawing on the complementary expertise of the involved entities without initial direct inclusion of Spain's CASA Espacio, whose space assets were incorporated into EADS frameworks but aligned with Astrium activities in later phases. Initial ownership was structured as a 50-50 split between the Marconi Space consortium (representing French and British interests) and (German interests), emphasizing private-sector efficiency under the emerging EADS holding company to avoid fragmented national subsidies. This balanced equity reflected the equal valuation of contributed assets, including Matra Marconi Space's and satellites alongside DASA's and manned technologies, while positioning the venture for full EADS consolidation as shareholder dynamics evolved post-2000. The founding responded to post-Cold War pressures on Europe's sector, including declining budgets, market globalization, and dominance by U.S. conglomerates like and in commercial launches and production. By merging overlapping operations, Astrium aimed to reduce redundancies, pool R&D resources, and achieve for bidding on contracts, thereby fostering causal efficiencies in supply chains and amid a shift toward dual-use (civil-) applications. This rationalization effort prioritized empirical competitiveness over protected national industries, enabling to challenge U.S. in an era of privatized services.

Integration within EADS

Astrium, formed as a between EADS and , achieved full integration into EADS following the acquisition of ' 25% stake on June 16, 2003, for £84 million, granting EADS sole ownership and enabling streamlined management and strategic alignment within the conglomerate. This divestiture, finalized after regulatory approvals, allowed Astrium to be fully consolidated in EADS' financials starting in 2003, fostering synergies across EADS' , , and divisions by centralizing space systems expertise. In the mid-2000s, further embedding occurred through reorganizations, such as the 2006 rebranding and expansion of EADS Space Transportation into EADS Astrium, incorporating activities from Marconi Space and enhancing operational cohesion. This period marked Astrium's growth phase, leveraging EADS' resources for market positioning in and launch systems, with full ownership facilitating unified decision-making and investment in European infrastructure. Astrium extended its services portfolio in 2011 by acquiring Vizada, a global communications provider, for €673 million (approximately $877 million at closing), integrating , aeronautical, and networks to broaden EADS' end-to-end offerings. The deal, completed in December after regulatory clearances, added about 700 employees and strengthened synergies in managed communications services, positioning Astrium as a key driver of EADS' revenue diversification. Contributions to launcher successes propelled Astrium's revenue, with the division reporting nearly €5 billion in turnover by 2011 and solidifying EADS' space unit as Europe's preeminent entity through reliable heavy-lift capabilities and backlog growth. This integration enhanced EADS' competitive stance in global markets, emphasizing cost efficiencies and technological leverage from consolidated operations.

Merger into Airbus Defence and Space

On 31 July 2013, the European Aeronautic Defence and Company (EADS) announced a comprehensive plan that included merging its Astrium division with the Cassidian defence and security unit and division to create a unified entity, coinciding with EADS's rebranding to . The primary motivations were to streamline operations amid persistent declines in European defence spending, achieve cost savings through consolidation, and better position the group to compete in evolving commercial aerospace and markets where growth outpaced military sectors. This followed the collapse of a proposed merger with earlier in the year, which had highlighted internal governance and strategic misalignments. The merger became effective on 1 January 2014, integrating Astrium's satellite, launch vehicle, and orbital infrastructure capabilities directly into the new division without disruption to core operations. Immediate impacts included the transfer of Astrium's specialized workforce and ongoing projects, such as Ariane 5 production contracts awarded in December 2013 for 18 additional launchers, which proceeded under the Airbus Defence and Space banner to ensure continuity in European launch services. To address redundancies and enhance competitiveness, EADS disclosed on 9 December 2013 plans to eliminate 5,800 positions across the nascent division—primarily through voluntary departures and non-replacement of retirees—with approximately 2,500 cuts targeted at Astrium's space activities to rationalize overlapping functions. These measures aimed to reduce administrative layers and adapt to a defence market contracting by up to 5% annually in Europe, while preserving technical expertise for commercial space initiatives.

Organizational Structure and Operations

Key Divisions

Astrium's organizational structure centered on three core divisions, each specializing in distinct aspects of systems and operations to leverage synergies across the . These divisions—Satellites, Space Transportation, and Orbital Infrastructure—enabled focused expertise while supporting integrated capabilities under EADS oversight. The Satellites Division concentrated on the design, development, and production of platforms suitable for , , and other trajectories, encompassing structural, propulsion, and payload integration elements. This unit managed the full lifecycle from concept to assembly, testing, and delivery, drawing on facilities equipped for and environmental simulations to ensure reliability in harsh conditions. The Space Transportation Division specialized in launcher systems, particularly the development, integration, and upper-stage production for the Ariane family of rockets, which facilitated reliable access to for payloads. Responsibilities included advancements, such as cryogenic engines, and system-level to optimize capacity and flexibility, with a emphasis on cost-effective reusability studies and international collaborations. The Orbital Infrastructure Division addressed in-orbit operations, including servicing concepts, exploration vehicle subsystems, and technology demonstrators for future space architectures like automated transfer vehicles and habitat modules. This division pursued advancements in rendezvous and docking mechanisms, integration, and modular infrastructure to support sustained , often in with agencies like the .

Global Facilities and Workforce

Astrium operated a distributed of facilities across , centered in , , the , and , to leverage specialized capabilities in systems, , and orbital infrastructure. This geographic spread supported the 's role as Europe's leading manufacturer, enabling efficient resource allocation and pan-European industrial participation. In , Astrium's key sites included , focused on prime contracting, design, assembly, , and testing, and Les Mureaux near , dedicated to development, , and mission-specific such as the Automated Vehicle. Germany's facilities encompassed for satellite platforms, structures, and in-orbit servicing technologies, and for space transportation systems, including upper stages and operations of elements. The contributed through sites in for spacecraft systems design, platform engineering, and assembly, and for payload manufacturing and electronics, employing around 1,200 and 1,400 staff respectively at these locations. In , operations centered on near via the CRISA subsidiary, specializing in onboard electronics, software, and control systems for and . Astrium's workforce peaked at approximately 18,000 employees in , concentrated in these countries with expertise in , precision manufacturing, and systems integration, supplemented by smaller presences in the and . This trinational framework, extended to include Spanish contributions, facilitated cross-border skills transfer, diversified risk from national-specific disruptions, and aligned with objectives for balanced industrial returns.

Core Technologies and Capabilities

Satellite Manufacturing

Astrium's satellite manufacturing operations centered on the and production of versatile buses, particularly for geostationary orbits, enabling reliable power generation, , and attitude control systems. The company produced buses capable of supporting payloads up to several kilowatts, with structures designed to withstand launch vibrations and long-term orbital stresses. These buses integrated subsystems such as arrays, batteries, and systems, often customized through scalable architectures to meet mission-specific mass and power requirements. A of Astrium's output was the family of platforms, originating from the Eurostar-2000 series and advancing to the E3000 variant, which emphasized for efficient adaptation to diverse payloads. This design approach allowed for rapid configuration changes, reducing development timelines and costs by reusing proven central modules while adjusting peripheral elements like antenna supports and thruster placements. By 2013, satellites had amassed over 500 years of cumulative in-orbit operation, underscoring their durability with multiple units exceeding 20-year service lives beyond initial specifications. In parallel, Astrium contributed to heavier-lift platforms like Alphabus through collaborations, incorporating advanced for enhanced and extended mission durations. Precision components, including star trackers for attitude determination accurate to arcsecond levels, were integrated into these buses to ensure stable pointing for payload operations. Reliability metrics for Astrium-built GEO satellites reflected low failure rates, with systems alone supporting over 50 units in trouble-free service, attributed to rigorous testing protocols and redundant designs. Modular advancements further facilitated cost reductions by standardizing interfaces, enabling faster assembly and verification processes across production lines in facilities like and .

Launch Vehicles and Propulsion

Astrium's Space Transportation division played a central role in the engineering and development of the heavy-lift launcher, including contributions to upper stage systems such as the thrust chamber for the VINCI cryogenic engine, designed for enhanced restart capability and efficiency in the ESC-A and future variants. The division also supported structural components integral to launcher performance, emphasizing modular designs to accommodate diverse payloads while prioritizing system integration for operational reliability. In parallel, Astrium contributed to the small-lift vehicle through the development and qualification of the roll and attitude control subsystem, a thruster-based mounted on the launcher to ensure precise during ascent. Additionally, the company conducted conceptual studies for advanced upper stages, exploring propulsion architectures to extend payload capacity into higher orbits without compromising the vehicle's lightweight design ethos. Looking toward next-generation systems, Astrium initiated feasibility studies and preliminary development for precursors, focusing on shared elements with upgrades like the ME variant, including refinements to the VINCI engine for improved thrust and management. These efforts underscored an emphasis on scalable technologies, with exploratory work into cost-reduction strategies that laid groundwork for potential reusability in European launchers, though primarily through engine-level innovations rather than full-vehicle recovery. Throughout, Astrium's approach integrated rigorous testing protocols to bolster reliability, drawing on validations to mitigate risks inherent in high-thrust cryogenic systems.

Orbital Systems and Infrastructure

Astrium advanced in-orbit servicing capabilities through the DEOS (Deutsche Orbital Servicing) mission, a technology demonstrator for autonomous satellite maintenance and disposal. Contracted by the in 2012, Astrium led the development of a servicing equipped with advanced for rendezvous, capture, and manipulation of non-cooperative targets in . The system incorporated a seven-degree-of-freedom designed for grasping, inspection, and repair tasks, enabling operations such as component replacement or transfer on target satellites. Complementing these efforts, Astrium's Automated Transfer Vehicle (ATV) series established foundational orbital infrastructure by demonstrating transfer and station-keeping services for the . The ATV docked autonomously using GPS and laser ranging systems, then transferred hypergolic fuels—such as and nitrogen tetroxide—directly into ISS tanks via fluid lines, with missions like in 2008 delivering over 1,000 kg of for reboost maneuvers that raised the station's by up to 4 km. This capability supported extended ISS operations and laid groundwork for concepts like orbital fuel depots, where stored propellants could refuel multiple spacecraft. In parallel, Astrium addressed challenges with integrated mitigation technologies emphasizing active removal and remediation. Their four-pillar strategy encompassed prevention via design-for-demise practices, passivation of spent systems, remediation through robotic intervention, and removal via de-orbiting mechanisms. Key developments included suites for detecting and assessing tumbling debris, robotic capture tools like harpoons for securing targets, and stabilization systems prior to controlled re-entry; Astrium also prototyped sails for passive upper-stage disposal, as studied for the 2016 mission to ensure compliance with orbital lifetime limits under 25 years. These efforts highlighted robotic and as critical for sustainable orbital environments, though full-scale deployments remained conceptual pending regulatory and funding advancements.

Major Programs and Projects

Telecommunications Satellites

Astrium specialized in the design and manufacture of geostationary satellites, leveraging its platform as the primary bus for commercial payloads requiring high reliability and long operational lifespans exceeding 15 years. The series, particularly the E3000 variant, supported fixed and broadcast services, mobile communications, and broadband applications, with cumulative in-orbit operation surpassing 500 satellite-years by the early 2010s, demonstrating exceptional durability in . A key commercial focus was the Astra satellite series for SES, where Astrium secured contracts in December 2009 for multiple multi-mission spacecraft, including , 2F, and 2G, launched between 2011 and 2014 to reinforce coverage at 28.2° East for direct-to-home broadcasting and expanded services. , delivered in 2014, enhanced SES's capacity for distribution across and the Nordic regions, utilizing Ku-band transponders for robust signal delivery. These deployments bolstered SES's market position in video distribution, with Astrium's contributions enabling reliable, high-throughput operations that supported broadband-like services in underserved areas. For higher-power demands, Astrium co-developed the Alphabus platform in partnership with under an ESA and initiative started in 2001, targeting payloads up to 20 kW for advanced missions. The inaugural Alphabus satellite, Alphasat for , launched on July 25, 2013, from , , via , providing L-band mobile services across , , Asia, and the while validating the platform's scalability for future high-throughput satellites. Astrium also built Ka-band focused satellites like Eutelsat's Ka-Sat, operational from December 2010, which pioneered dedicated broadband internet capacity for European users, marking a shift toward multi-gigabit data services in commercial telecom markets.

Military and Reconnaissance Systems

Astrium contributed to military through its of optical satellites for the French program, which provided high-resolution imagery for and strategic . The 2A satellite, launched on December 18, 2004, aboard an from , , utilized an advanced electro-optical payload derived from the SPOT series, achieving a ground resolution of approximately 0.5 meters for military users. 2B followed on August 18, 2009, enhancing France's independent capability to monitor conflict zones, enforce , and support tactical operations without reliance on foreign systems. These satellites formed a core element of France's space-based infrastructure, prioritizing national sovereignty in gathering. In parallel, Astrium supported secure military communications via the Skynet constellation, designed to deliver beyond-line-of-sight X-band connectivity for UK and allied forces. Astrium served as prime contractor for Skynet 5D, launched on March 19, 2012, by Ariane 5, which extended the system's capacity for encrypted voice, data, and video links across NATO operations, mitigating dependencies on U.S.-controlled networks like the Wideband Global SATCOM. This hardened geostationary satellite bolstered operational resilience in contested environments, with ground stations integrated for real-time command and control. The program's emphasis on sovereign control underscored Europe's push for self-reliant defense space assets amid geopolitical tensions. Astrium also advanced radar-based reconnaissance for through contracts for the (Satellite-based Reconnaissance with Active Radar) system, a successor to aimed at all-weather, day-night surveillance for applications. In 2013, Astrium secured a deal from OHB to build SARah-3, featuring a high-performance phased-array (SAR) antenna capable of sub-meter resolution for target identification and maritime patrol. This technology enabled persistent monitoring of dynamic threats, including ground movements and naval assets, with data products tailored for exploitation. Such systems facilitated transfers, enhancing export potential while strengthening European in joint defense missions. These efforts extended to dual-use platforms like , where Astrium's X-band instrument supported defense tasks such as border security and with military overlap, though primary funding was civil. Export successes included components for allied programs, reducing transatlantic dependencies and fostering indigenous innovation in payload integration and .

Earth Observation Missions

Astrium contributed to Earth observation through high-resolution optical satellite systems, primarily via the French-led SPOT and Pléiades programs, enabling applications in land monitoring, agriculture, urban planning, and disaster management. The company served as prime contractor for SPOT-6, launched on September 9, 2012, from the Guiana Space Centre aboard a Vega rocket, and its twin SPOT-7, launched on April 30, 2014, via Ariane 5; these satellites provided 1.5-meter panchromatic and 6-meter multispectral resolution over a 60-kilometer swath, with a design life of 10 years, supporting commercial data services coordinated with earlier SPOT assets. Pléiades-1A, launched December 17, 2011, on a Soyuz rocket, and Pléiades-1B, launched August 2, 2012, also on Soyuz, formed a CNES-commissioned constellation offering 0.5-meter panchromatic resolution and a 20-kilometer daily revisit capability at mid-latitudes, with Astrium responsible for the satellite bus, payload integration, and control systems for this dual civil-defense system. Astrium extended its expertise to the GMES initiative (predecessor to Copernicus) by securing a €105 million contract in March 2010 to build the second satellite for multispectral land imaging, alongside developing the C-SAR instrument for to enable all-weather monitoring, contributions that proceeded amid debates over program funding and sustainability. These missions generated verifiable datasets used in precision agriculture for crop yield assessment, forestry inventory, and rapid post-disaster mapping, with Pléiades and SPOT imagery integrated into operational services for environmental monitoring and security.

Scientific and Exploration Ventures

Astrium GmbH in Friedrichshafen, Germany, served as the prime contractor for the European Space Agency's (ESA) Rosetta mission orbiter, leading an industrial consortium of over 50 contractors from 14 countries to develop the spacecraft platform. Launched on March 2, 2004, aboard an Ariane 5 rocket from Kourou, French Guiana, the Rosetta spacecraft was designed to rendezvous with comet 67P/Churyumov–Gerasimenko, deploy the Philae lander, and conduct long-term observations of the comet's nucleus, coma, and plasma environment to study the solar system's origins. Astrium's responsibilities included the orbiter's structure, propulsion, and attitude control systems, with Astrium Ltd. in the UK contributing to the platform assembly and Astrium SAS in France providing avionics subsystems. In support of Mars exploration, Astrium contributed key subsystems to the UK-led lander, which was deployed from ESA's orbiter on December 25, 2003. The company designed, manufactured, and tested a high-performance lightweight parachute system for the lander's entry, descent, and landing phase, enabling deployment under the mission's tight timeline and budget constraints. EADS Astrium also provided sponsorship and technical expertise to the project, which aimed to search for evidence of past or present microbial through surface and subsurface analysis using instruments like a gas chromatograph and mass spectrometer. Astrium participated in early phases of ESA's ExoMars program, securing a €900,000 contract in the mid-2000s to conduct feasibility studies for a European Mars rover capable of traversing the planetary surface to search for signs of life. These studies informed the design of the Rosalind Franklin rover, focusing on mobility, drilling capabilities for subsurface sampling up to 2 meters deep, and autonomous navigation to investigate geological and biological traces. Building on this, Astrium UK was contracted by ESA to develop the Solar Orbiter spacecraft, launched in February 2020, to study the Sun's polar regions and heliosphere dynamics through in-situ measurements and high-resolution imaging.

Navigation and Positioning Services

Astrium contributed significantly to the European Union's Galileo global navigation satellite system (GNSS), designed to deliver high-precision positioning independent of the ' GPS, thereby supporting Europe's strategic autonomy in critical navigation infrastructure. As lead contractor in a with , Astrium developed and integrated the first four In-Orbit Validation (IOV) satellites, launched between October 2011 and November 2012, which validated Galileo's core satellite platform, navigation payload, and system interoperability with other GNSS constellations. These satellites incorporated advanced atomic clocks and technologies enabling positioning accuracy down to the meter level for open services and decimeter-level for authenticated high-precision applications. Astrium also secured the prime contract for the Galileo Full Operational Capability (FOC) ground control segment in 2011, encompassing the development of ground stations, mission control centers, and uplink systems to manage the constellation's operations, signal integrity, and service performance. This segment included augmentation capabilities for enhanced regional accuracy, such as integration with ground-based reference networks to mitigate atmospheric errors and support applications requiring sub-meter precision, including approach procedures and precise timing for networks. Through its services division, Astrium formed a with Allsat in 2008 to provide commercial and positioning services across , leveraging GNSS signals augmented by terrestrial stations for centimeter-level accuracy in real-time applications. These services targeted civilian sectors such as for automated machinery guidance, utility infrastructure mapping, and transport , reducing reliance on foreign systems and promoting EU-based in GNSS-dependent technologies. In parallel, Astrium developed testing tools like GNSS signal generators compatible with Galileo signals, facilitating receiver validation for high-reliability uses in and timing synchronization.

Servicing and Emerging Concepts

Astrium pursued on-orbit servicing technologies through the DEOS mission, contracted by the (DLR) in September 2012, to demonstrate robotic capture, refueling, and controlled disposal of satellites in . The project developed a chaser-servicer equipped with vision-based , robotic arms, and fluid transfer systems capable of extending satellite lifespans by replenishing propellants and addressing end-of-life deorbiting to mitigate orbital debris accumulation. As part of broader debris remediation efforts, Astrium advocated a four-pillar strategy encompassing prevention during new launches, passivation of upper stages, active removal of large defunct objects, and enhanced tracking, with DEOS serving as a for and towing non-cooperative targets to reduce collision risks in crowded orbits. These capabilities aimed to enable mission extensions for geostationary and assets while supporting sustainable space operations by targeting objects larger than 1 meter, which pose the greatest fragmentation threats upon collision. In emerging commercial applications, EADS Astrium unveiled a suborbital vehicle concept in June 2007, featuring a reusable, rocket-powered designed for up to 20 passengers on ballistic flights reaching 100 kilometers altitude, with operations enabling short-notice bookings via horizontal takeoff and landing at conventional airports. The aluminum-carbon fiber prioritized reusability for up to 100 flights annually per vehicle, targeting initial fares around €200,000 per seat to democratize access beyond government-sponsored missions. Astrium also led ESA-funded studies on satellites (SPS), including the SPS-REPOSE assessment completed in 2004, which evaluated modular photovoltaic arrays in for beaming gigawatt-scale power to support deep-space , lunar bases, and interplanetary vehicles facing solar flux diminution beyond . These concepts emphasized ground receivers and phased-array transmission efficiencies exceeding 50%, positioning SPS as a baseload source for exploration architectures requiring continuous high-power delivery independent of terrestrial weather or atmospheric attenuation.

Achievements and Technical Contributions

Successful Launches and Deployments

Astrium played a central role in the program as the prime contractor responsible for manufacturing key components, including the upper stages and integration, contributing to the launcher's high reliability after early developmental challenges were addressed post-2003. By , had achieved its 70th successful mission, demonstrating consistent performance in deploying heavy payloads to . Overall, recorded 117 launches with a 96% success rate across its operational history, underscoring the engineering advancements led by Astrium in launcher production and mission execution. The company's satellite platforms further highlighted deployment successes, particularly with the series, where 56 units were successfully delivered to since the first launch of Inmarsat-2 F1 in 1990, accumulating over 500 years of in-orbit operation by the early and with 41 satellites still active at that milestone. These satellites frequently exceeded their designed lifespans, with many operating beyond 15 years due to robust power and systems. Examples include the Inmarsat-4 F2 and F3 satellites, built by Astrium and successfully deployed in 2008 via , providing global mobile communications coverage. In dual-launch configurations, Astrium's contributions enabled efficient orbital insertions, as seen in the 47th Ariane 5 mission in 2009, which successfully placed two Astrium-built satellites into , reinforcing the launcher's capability for payloads. Metrics from these operations included on-time deliveries for over 90% of contracted missions in peak years and payload masses routinely exceeding 10 metric tons per launch in geostationary configurations, validating Astrium's processes.

Innovations in Space Technology

Astrium pioneered advancements in satellite platform architecture with the Alphabus system, co-developed with under ESA and auspices starting in 2001. This modular platform supported payloads delivering 12 to 18 kW of power, enabling geostationary telecommunications satellites with enhanced capacity for high-throughput communications, marking Europe's first standardized heavy-lift bus for such demands. In propulsion technology, Astrium integrated electric systems to optimize and mission duration. These included xenon-based thrusters and , such as the Radio-Frequency (RITA), scalable from 500 W to 6 kW input power and delivering thrusts of 10 to 175 mN for station-keeping and orbit raising on medium-to-large satellites. Over 50 satellites deployed Astrium's plasma propulsion units, reducing propellant mass compared to chemical alternatives while maintaining precise control. Astrium employed advanced composite materials to achieve structural lightweighting without compromising rigidity. Carbon fiber reinforced polymer (CFRP) sandwiches formed the basis for optical reflectors and frameworks, as in elliptical off-axis mirrors where CFRP facesheets over cores minimized mass for high-precision applications like and science missions. These designs leveraged CFRP's high stiffness-to-weight ratio to endure launch vibrations and thermal extremes. For autonomous systems, Astrium developed enabling independent exploration in challenging environments. Contributions included configurations with joint trajectory tracking and direct modes for planetary mobility, alongside autonomous for lunar landers requiring precise soft landings via integrated sensors and . These technologies supported reconfigurable teams for sample return concepts, integrating wheeled bases with manipulators for unstructured terrains.

Economic and Strategic Impacts

Astrium's operations generated substantial economic value for , with annual revenues reaching approximately €5 billion by 2011 and direct employment for around 18,000 workers primarily in , , the , , and the . These figures supported high-skilled jobs in , , and R&D, contributing to regional GDP through supply chains and induced economic activity; for instance, Astrium's activities alone underpinned broader sector contributions estimated at £5.2 billion to GDP via commissioned economic analyses. Satellite exports, a core output, bolstered the EU's by capturing global market share in commercial and governmental segments, with European manufacturers like Astrium deriving up to 50% of sales from international demand. Strategically, Astrium advanced sovereignty in space access and by leading development of the launcher, which enabled independent deployment of civil and military payloads without reliance on U.S. or Russian systems, thereby mitigating risks of foreign vetoes or disruptions. Its role in the reconnaissance program provided , , and allied nations with autonomous optical and capabilities, reducing dependence on U.S. sharing and enhancing operational independence in defense scenarios. This countered U.S. dominance in space technology markets, where American firms held majority shares in satellites and launches, fostering a balanced industrial base capable of sustaining national security assets amid geopolitical tensions. Through ESA-led collaborations, Astrium bolstered and capabilities by integrating its systems into multinational frameworks, such as providing secure satellite communications and navigation without exclusive U.S. interoperability requirements, thus promoting diversified alliances while preserving strategic flexibility. These efforts aligned with broader European goals of resilience, as evidenced by Astrium's contracts for ground support and upgrades that ensured sustained operational readiness for allied forces.

Challenges, Failures, and Criticisms

Notable Mission Shortcomings

The maiden flight of the ECA launcher, designated V157, ended in failure on December 11, 2002, when a rupture in the hydrogen insulating pipe of the Vulcain 2 main engine's cooling circuit caused a leak, leading to loss of thrust and vehicle destruction 94 seconds after liftoff from , . EADS Astrium, as a core contributor to the Ariane 5 program through its role in structural and propulsion system integration, participated in post-failure investigations that identified inadequate sealing and thermal stresses as root causes, prompting redesigns of the cooling architecture for subsequent flights. In satellite propulsion systems, EADS Astrium encountered reliability issues with pyrovalves supplied by Conax Florida Corp., where dual initiator firings led to premature valve activation or failure to open, compromising fuel isolation and thruster performance in multiple units delivered between 2001 and 2005. Astrium initiated litigation in 2007, seeking €24.5 million in damages for operational disruptions and rework across affected spacecraft, with Conax conceding valve defects but contesting the full liability scope in U.S. District Court. These incidents underscored vulnerabilities in pyrotechnic component redundancy, influencing NASA and ESA guidelines to avoid simultaneous initiator firing in future designs. The W2M communications satellite, jointly developed by EADS Astrium and and launched on August 20, 2009, aboard an , suffered a critical power subsystem failure in January 2010 due to a anomaly, rendering it inoperable shortly after reaching . Investigations attributed the loss to imported component degradation under thermal cycling, highlighting risks in hybrid international supply chains for high-reliability electronics, though the exact battery failure mechanism remained undisclosed publicly. This event prompted Astrium to enhance qualification testing protocols for power systems in subsequent geostationary payloads.

Commercial and Political Hurdles

Astrium's commercial viability was constrained by its dependence on public funding from the (ESA) and national governments, particularly for programs like the Global Monitoring for Environment and Security (GMES), which evolved into Copernicus. Funding structures for GMES created disparities across , with the 's approach—lacking the infrastructure-like stability seen in and —leading to shortfalls that undermined Astrium's UK operations and profitability in the . Unresolved EU-level funding debates for GMES further delayed commitments, forcing Astrium to navigate uncertain revenue streams despite its role in building satellites. Intensifying global competition exacerbated these issues, as U.S. firms, bolstered by industry consolidations such as and mergers, captured dominant shares in the commercial satellite market. Astrium, established in 2000 partly to challenge U.S. dominance through , still faced difficulties securing contracts against American exporters, particularly in where rivals like advanced rapidly. Emerging capabilities in satellite manufacturing and launches added pressure by mid-decade, undercutting European pricing in segments like , though Astrium retained edges in high-end telecom systems. Politically, EU bureaucratic delays in approvals and processes hampered project timelines, as seen in the protracted Galileo navigation program where Astrium served as a key contractor amid governance bottlenecks. disputes in collaborative efforts, such as the Mars lander, restricted design oversight and integration due to restrictive rights clauses and interface conflicts with partners. Shrinking defense budgets post-2010 prompted widespread job reductions at EADS Astrium, with hundreds of positions cut by 2013 amid reduced support and rising barriers. These factors highlighted Astrium's vulnerability to policy shifts, contrasting with more agile U.S. competitors less encumbered by multinational coordination.

Technical and Supply Chain Issues

In 2005, defects were identified in pyrovalves supplied by to Astrium for use in systems, where these pyrotechnic-initiated valves regulate flow. Conax acknowledged the failures but contested the extent of , prompting Astrium to pursue 24.5 million euros in through legal and , reflecting the high costs associated with rectifying supplier-induced component shortcomings. A similar vendor-related issue arose in dealings with , where TRW withheld information on a coating's non-compliance with Astrium's specifications despite direct inquiries, potentially compromising integrity and necessitating rework or redesign efforts. Astrium's reliance on external suppliers for specialized components exposed vulnerabilities in the , particularly for precision-engineered parts like valves and coatings essential to and launcher subsystems, which could cascade into program delays and escalated expenses when defects emerged late in integration. These dependencies highlighted risks from limited qualified vendors in niche markets, where material sourcing for high-reliability applications often involved single-source providers prone to lapses or disclosure failures. To counter such exposures, Astrium pursued by developing and certain critical valves in-house, as seen in designs for xenon feed systems in electric , thereby reducing external dependencies and enhancing control over quality and timelines.

Legacy and Post-Merger Influence

Astrium's merger into in 2014 preserved and expanded its core competencies in systems, space transportation, and , forming the foundation of the new division's space activities. The integration combined Astrium's and launcher expertise with defense technologies from Cassidian and military aviation from , enabling synergies in overhead costs and cross-divisional projects as articulated by EADS Harald Wilhelm. This restructuring supported continuity in critical programs, such as the December 2013 contract for Astrium to produce 18 additional ECA upper stages for , which transitioned seamlessly into operations. Post-merger, Astrium's influence manifested in the sustained delivery of high-resolution satellites like SPOT-6 and SPOT-7, launched in 2012 and 2014 respectively, with operations and data services continuing under Airbus Defence and Space's geo-intelligence portfolio. The division also unified governmental and commercial communications under a single entity, retaining Astrium Services' full portfolio of , maritime, and defense solutions without interruption. These elements underscored Astrium's enduring role in bolstering in space access and . The merger's long-term impact included enhanced competitiveness through integrated R&D, as leveraged Astrium's heritage in modular satellite platforms and propulsion systems for subsequent contracts in and constellations. However, it also reflected broader pressures for amid declining public budgets, with the new structure prioritizing efficiency over standalone specialization. Astrium's legacy thus permeates Airbus's contributions to programs like development and OneWeb satellite production, maintaining Europe's position in global markets.

References

  1. [1]
    EADS Astrium | Science Museum Group Collection
    EADS Astrium was a satellite manufacturer, a subsidiary of EADS, formed in 2000. It later became part of Airbus Defence and Space.
  2. [2]
    Astrium To Shed 2,000 Jobs as Part of Broader Transformation
    Jan 19, 2023 · Its principal divisions are Astrium Space Transportation, which is prime contractor for Europe's Ariane 5 heavy-lift rocket and the French ...
  3. [3]
    EADS / ASTRIUM REGULATION (EEC) No 4064/89 MERGER ...
    Astrium was formed in 2000 by the combination of the activities of Matra Marconi. Space (“MMS”) and all the DASA activities performed in its subsidiary ...
  4. [4]
    Astrium gets green light from European Commission - Aviation Week
    Mar 23, 2000 · The European Commission has approved the formation of Astrium, a merger of the space businesses of Germany's DaimlerChrysler Aerospace (DASA) ...
  5. [5]
    THE ROAD TO ASTRIUM - Via Satellite
    Jul 26, 2000 · EADS is of course a broad-spectrum aerospace/defence entity; “Space” products account for only 11.16 per cent of its pro-forma (back-calculated) ...
  6. [6]
    ISS: Columbus Module - eoPortal
    Jun 7, 2012 · The construction of the Columbus module was done by the European industry with EADS-Astrium as prime contractor. After being assembled in Bremen ...
  7. [7]
    Five years of Columbus in space - SpaceNews
    Mar 27, 2013 · Columbus will be in service until at least 2020. Alongside the Automated Transfer Vehicle (ATV) supply spaceship, Columbus is the latest ...Missing: projects | Show results with:projects
  8. [8]
    Astrium space company on 'stable' course - BBC News
    Jan 19, 2012 · Astrium had "stable" revenues of 5bn euros (£4.2bn) in 2011, with new contract wins valued at 3.6bn euros. These new orders included four ...Missing: history | Show results with:history
  9. [9]
    Earnings Call Shows Why Astrium Is Being Merged into Airbus ...
    Nov 14, 2013 · Wilhelm said merging Astrium with Cassidian into the new Airbus Defence & Space unit will enable the two entities to share overhead and other ...
  10. [10]
    Astrium is now part of Airbus Defence and Space - Geospatial World
    Feb 8, 2014 · Astrium is now part of Airbus Defence and Space ... – Airbus Helicopters, including all commercial and military helicopter activities. During this ...
  11. [11]
    [PDF] eads-annual-report-2000.pdf - Airbus
    EADS is in the leading position in. Europe's space industry with Astrium, formed earlier in 2000 from the merger of Matra Marconi Space and. DaimlerChrysler ...
  12. [12]
    [PDF] Aerospatiale Matra - Archived 9/2001 - Forecast International
    Sep 3, 2000 · Originally announced in mid-1999, Astrium included the space assets of Matra Marconi Space of France,. DaimlerChrysler Aerospace of Germany, and ...
  13. [13]
    https://www.wsj.com/articles/SB940281976180056768
  14. [14]
    Astrium business to split into satellite and launcher arms - FlightGlobal
    Mar 26, 2001 · Under the new move, the satellite business, dubbed 'New Astrium Satellites', will receive parts of ELV and CASA Space, with the launcher ...
  15. [15]
    Astrium | European company - Britannica
    Astrium was the first trinational space company, with facilities in France, Germany, and Great Britain. Its activities covered the whole spectrum of the space ...
  16. [16]
    [PDF] From cooperation to integration: defence and aerospace industries ...
    By completely changing conditions in the armaments market, the political, economic, financial and technological challenges of the post-Cold War era. Page 11 ...
  17. [17]
    CIAO Case Study: The European Defense Industry
    The European defense industry has transformed since the Cold War, with cuts in production, changes in structure, and a shift to integration after 1989.Missing: post- | Show results with:post-
  18. [18]
    25 years of Airbus as an integrated company
    Jul 10, 2025 · In 2003 and 2006 respectively, EADS acquired BAE Systems' shares in Astrium and Airbus. 2014 would see major organisational developments: EADS ...
  19. [19]
    Airbus Group - Companies History
    Jul 4, 2013 · On 16 June 2003 EADS acquired BAE's 25 % share in Astrium, the satellite and space system manufacturer, to become the sole owner. EADS paid £84 ...<|separator|>
  20. [20]
    [PDF] To New Levels - Financial Statements and Corporate ... - Airbus
    Astrium was fully consolidated by EADS beginning in fiscal year 2003. On ... and MBDA resulted in a dilution of EADS' economic ownership in Airbus, MBD ...
  21. [21]
    Heritage - Ariane Group
    The company became EADS Launch Vehicles in 2000, then EADS Space Transportation and later EADS Astrium in 2006, and included the activities of Matra Marconi ...
  22. [22]
    Astrium Completes Vizada Acquisition at $877 Million Closing Price
    Dec 20, 2011 · European space company Astrium received the necessary regulatory approvals to complete its acquisition of global satellite communications ...
  23. [23]
    Vizada Acquisition Drives Growth at Astrium - SpaceNews
    May 16, 2012 · The 673 million euro Vizada acquisition, meanwhile, added 700 employees to Astrium Services' work force, which now stands at about 3,700, and ...
  24. [24]
    Astrium successfully completes 50th consecutive Ariane 5 launch
    Jul 15, 2024 · In 2011, Astrium had a turnover close to O5 billion and 18,000 employees worldwide, mainly in France, Germany, the United Kingdom, Spain and the ...
  25. [25]
    [PDF] AT A GLANCE - Airbus
    In 2011, EADS, comprising Airbus, Eurocopter, Astrium and Cassidian, exceeded expectations, with revenues at € 49.1 billion and EBIT* at € 1.7 billion. 2011 ...
  26. [26]
    EADS to restructure and change name to Airbus - France 24
    Jul 31, 2013 · European aerospace group EADS is to change its name to Airbus and shake up its corporate structure as part of push to give its civil aviation division more ...
  27. [27]
    EADS to reorganize in three units, combine defence assets | Reuters
    Jul 25, 2013 · The reorganization comes nine months after EADS was forced to abandon a bid to merge with UK defence firm BAE Systems , which was opposed by the ...
  28. [28]
    EADS to Adopt Airbus Name to Reflect Aircraft Unit's Role - Bloomberg
    The changes are part of an effort to reshape a company that relies increasingly on civil airliners for growth as its military business suffers from European ...
  29. [29]
    EADS to cut more than 5000 jobs and sell Paris headquarters
    Dec 9, 2013 · Airbus Military, space division Astrium, and cyber-security business Cassidian will be merged into one defence and space division and ...
  30. [30]
    Astrium to build 18 new Ariane 5 ECA launchers for Arianespace
    Dec 14, 2013 · Effective from January 1, 2014, Astrium will be integrated into Airbus Defence and Space together with Airbus Military and Cassidian.Missing: merger announcement
  31. [31]
    Ad-hoc release, 9 December 2013: Enhancing ... - Airbus
    EADS (stock exchange symbol: EAD) today presented a restructuring plan for its future Airbus Defence and Space Division (Airbus DS) to the European Works ...
  32. [32]
    EADS Restructuring To Eliminate Nearly 2500 Astrium Jobs
    Dec 10, 2013 · The job cuts will mainly involve negotiated voluntary departures and the nonreplacement of retiring employees, EADS officials said in a ...
  33. [33]
    EADS to cut 5,800 jobs – DW – 12/09/2013
    Dec 9, 2013 · The job cuts come as Europe's largest aerospace company was seeking to merge the three units into one new entity called the Airbus Defense and ...
  34. [34]
    Astrium Americas Established to Provide World-Class Space ...
    Nov 14, 2012 · Astrium Americas Established to Provide World-Class Space Capabilities to the North American Market.
  35. [35]
    Astrium reorganizes its satellite activities - SpaceNews
    Jun 20, 2002 · A new business division “Equipment and Subsystems” has been established to provide them with avionics, space equipment, subsystems and services ...
  36. [36]
    Astrium - Marine Electronics
    The company, originally started in 1968 as a member of the Fokker group, was established as an independent company in 1995, and has nowadays about 210 employees ...
  37. [37]
    Europe's most complex spacecraft
    The company EADS Astrium Space Transportation in Les Mureaux, France, is responsible for the development of the ATV on behalf of ESA. German companies have an ...
  38. [38]
    Collocation of ESA ATV management team and Prime Contractor ...
    Jun 29, 2002 · ... Astrium subcontractors, have been located on the same site, at EADS-LV's facilities in Les Mureaux, 50 km west of Paris. “Now, after one ...
  39. [39]
    Astrium wins DEOS contract to demonstrate in-orbit servicing
    Sep 14, 2012 · Astrium is carrying out the project at Friedrichshafen and Bremen with a joint team from both locations. It is also being supported by a ...
  40. [40]
    Astrium - Graces Guide
    Jul 8, 2025 · Astrium (a subsidiary of Airbus Group) is the largest space company in Europe and employs around 2,700 people in the UK. It has sites at ...
  41. [41]
    CRISA (Computadoras, Redes e Ingeniería, S.A.) - Spain - ASDSource
    CRISA, a fully owned subsidiary of EADS Astrium, is a Spanish company ... Tres Cantos, 28760. Madrid Spain +34.91.806.8600. email this organisation ...
  42. [42]
    [PDF] Eurostar E3000 Satellite On-Board Software Development of ... - HAL
    Aug 25, 2019 · All the family was developed with a very modular design for efficient customised solutions covering a broad range from medium size (3 KW to 6 KW.
  43. [43]
    Astrium celebrates 500 years of successful Eurostar satellite ...
    The Eurostar geostationary communications satellites, designed, developed and manufactured by Astrium, have achieved a remarkable record of reliability in ...
  44. [44]
    First Astrium Eurostar satellite sets in-orbit longevity record
    May 1, 2013 · Launched in October 1990, Inmarsat 2 F1 was the first ever Astrium's Eurostar satellite, and the first commercial satellite in the world to rely ...Missing: manufacturing | Show results with:manufacturing
  45. [45]
    Development status of the VINCI engine for Ariane 5 upper stage
    Astrium is responsible for the development of the thrust chamber. Major thrust chamber parts have also been produced. Copper liners have been manufactured using ...Missing: fairings | Show results with:fairings
  46. [46]
    Ariane 5 - Airport Technology
    Jul 10, 2001 · The Sylda 5 structure is housed inside Ariane 5's payload fairing, and allows the vehicle to carry two primary payloads on a single flight. ...
  47. [47]
    ESA - Contract for Vega roll and attitude control subsystem signed
    With the signing of this contract, Astrium GmbH will become fully responsible for the qualification of the subsystem and for the delivery of the flight unit ...
  48. [48]
    Astrium Wins Study For New Vega Upper Stage - Space Travel
    Astrium has won a contract from the German Aerospace Center (DLR) in Cologne to investigate concepts for a new upper stage for the European launcher Vega.
  49. [49]
    Astrium wins ESA contracts for Ariane 6 and Ariane 5 ME
    Jan 30, 2013 · This will allow Astrium to organise the development of the elements that Ariane 5 ME and Ariane 6 have in common, including the Vinci(R) ...
  50. [50]
    Astrium starts work on Ariane 6 heavy lift rocket
    Astrium has started to conduct feasibility studies for its planned heavy-lift Ariane 6 launcher after receiving funding from the European Space Agency.
  51. [51]
    Ariane 5: Unrivaled performance and reliability - ArianeGroup
    Dec 28, 2020 · Ariane 5 is today the world reference for launcher reliability, with a near-perfect mission success rate, and its modular (single/dual/multiple launch) capacity
  52. [52]
    Russian fuel flows in Jules Verne's veins - European Space Agency
    ATV will be carried into orbit by a special version of the Ariane 5 launch vehicle called the Ariane 5 Evolution Storable upper stage Automated Transfer Vehicle ...
  53. [53]
    ISS: ATV-5 (Automated Transfer Vehicle-5, Georges Lemaître)
    Jan 26, 2015 · The ATV-5 was built for ESA by ADS (Airbus Defence and Space), formerly Astrium, as system leader of a European consortium. The ATV is ...
  54. [54]
    [PDF] Astrium perspective on space debris mitigation & remediation - eucass
    This is far away from the real world: for example only 76% (13 out of 17) GEO satellites have succeeded their PMD in 2011 [5] in LEO the success rate is even ...Missing: built | Show results with:built
  55. [55]
    [PDF] the aerobraking sail for launcher upper stage deorbiting
    ABSTRACT. From 2004, Astrium Space Transportation is working with CNES on a solution for space debris mitigation in the frame of the Microscope Satellite ...<|separator|>
  56. [56]
    [PDF] Effectiveness analysis of active technologies for the geo
    A harpoon developed by Airbus Defence & Space. (formerly Astrium) [7], is considered the most appropriate technology for space debris capture among all the.
  57. [57]
    EUROSTAR E3000 Large Mechanical Platform Development
    The project is to develop two large variants of the mechanical platform of the EADS Astrium Eurostar 3000 telecommunications spacecraft.
  58. [58]
    Astra 2E, 2F, 2G - Gunter's Space Page
    Jun 2, 2025 · SES S.A. and Astrium announced in December 2009 that SES has ordered four multi-mission satellites from Astrium to provide replacement as ...Missing: partnerships | Show results with:partnerships
  59. [59]
    Astra 5B Communication Satellite - Airport Technology
    Mar 24, 2014 · Astra 5B is a communication satellite designed and manufactured by Astrium and operated by SES. The satellite will provide direct to home (DTH) ...
  60. [60]
    ESA - Alphabus/Alphasat - European Space Agency
    Alphasat is being built in partnership between ESA and European operator Inmarsat by Astrium. It is the first satellite to use Alphabus, the new European high- ...
  61. [61]
    Alphabus - CNES
    Jan 20, 2025 · Initiated in 2001 by CNES and ESA, the Alphabus programme was developed in partnership with EADS Astrium (now Airbus Defence & Space) and Thales ...
  62. [62]
    ESA - Flawless launch of Alphasat, Europe's largest and most ...
    Alphasat, Europe's largest and most sophisticated telecommunications satellite, was launched into its planned orbit today from Kourou, French Guiana.Missing: projects Astra
  63. [63]
    Helios 2A, 2B - Gunter's Space Page
    Jun 2, 2025 · The Helios program is Europe's military optical reconnaissance system consisting of both a space and a ground segment, which commenced service in 1995.Missing: Skynet | Show results with:Skynet
  64. [64]
    Helios-2 A/B - eoPortal
    Apr 14, 2023 · Helios-2A and -2B aim to provide high resolution for a range of missions, including enforcing disarmament treaties, planning and executing ...Missing: Astrium Skynet
  65. [65]
    Astrium 2012: a year of successes and transformation - SpaceNews
    Jan 30, 2013 · Astrium is a wholly owned subsidiary of EADS, a global leader in aerospace, defence and related services. In 2011, the Group – comprising Airbus ...Missing: history | Show results with:history
  66. [66]
    Skynet | Military Satellite Communications - Airbus
    A hardened X-band constellation of satellites and accompanying ground network, SKYNET provides all Beyond Line of Sight communications to the UK military.
  67. [67]
    OHB Taps Astrium To Build a German Radar Satellite and Launch it ...
    Sep 23, 2013 · OHB AG of Germany on Sept. 18 contracted with its German rival, Astrium Satellites, to build the only phased-array radar reconnaissance satellite planned.Missing: applications | Show results with:applications
  68. [68]
    Astrium to develop German military's third SARah reconnaissance ...
    Sep 19, 2013 · OHB System has awarded a contract to Astrium for production and delivery of a high performance radar satellite to the German Armed Forces.Missing: applications | Show results with:applications
  69. [69]
    Military satellite communications and surveillance | Airbus
    Airbus' space-based assets ensure constant communication, connectivity and surveillance for military operations on land, at sea, in the air and in orbit.Missing: Astrium projects
  70. [70]
    SPOT-6 and SPOT-7 (Azersky) - eoPortal
    SPOT-6 & -7 are twin commercial Earth observation satellites operated by Airbus Defence and Space (previously as Astrium Services), launched in 2012 and in ...
  71. [71]
    Pléiades - CNES
    Sep 19, 2025 · The Pleiades system complements the observing capabilities of the SPOT satellites, which have a wider field of view than Pleiades but lower ...
  72. [72]
    Astrium's SPOT 6 ready for launch | UN-SPIDER Knowledge Portal
    Sep 9, 2012 · SPOT 6 has a 60-km swath and will deliver imagery products with a resolution down to 1.5 metres. The satellite will stay on orbit for 10 years.
  73. [73]
    Astrium's SPOT 6 ready for launch campaign - SpaceNews
    Jul 23, 2012 · As soon as they are validated in orbit, SPOT 6 and SPOT 7 will be operated by Astrium Services in coordination with the two Pleiades satellites ...
  74. [74]
    Pléiades-HR 1, 2 - Gunter's Space Page
    Jun 2, 2025 · Astrium is prime contractor for Pléiades satellite bus, including all functions dedicated to satellite control and monitoring as well as payload ...
  75. [75]
    Pleiades-HR (High-Resolution Optical Imaging Constellation of CNES)
    Pleiades is a two satellite constellation of CNES, the space agency of France, consisting of identical twin satellites, Pleiades-1A and Pleiades-1B.
  76. [76]
    Astrium to build ESA's second Sentinel-2 satellite for GMES
    Mar 31, 2010 · ESA has awarded a contract worth €105 million to Astrium to build the second Sentinel-2 satellite. Once both are operational, this pair of satellites will ...
  77. [77]
    S1 Mission - SentiWiki - Copernicus
    The C-SAR instrument is designed and developed by EADS Astrium GmbH of Germany. The instrument provides an all-weather, day and night imaging capability to ...
  78. [78]
    Copernicus Space Programme - eoPortal
    The C-SAR instrument carried by all Sentinel-1 satellites was designed and developed by European Aeronautic Defence and Space (EADS) Astrium GmbH of Germany.
  79. [79]
    ESA - Rosetta Media factsheet - European Space Agency
    Prime contractor was Astrium GmbH, Friedrichshafen, Germany, the leader of an industrial team involving more than 50 contractors from 14 European countries and ...
  80. [80]
    Industrial involvement in the Rosetta mission
    Major subcontractors were Astrium Ltd. who built the spacecraft platform, Astrium France who supplied the spacecraft avionics and Alenia Spazio, Turin, Italy, ...
  81. [81]
    Astrium Develops New High Performance Parachute For Beagle 2
    Astrium decided to then recruit its own team to design, develop, manufacture, test and deliver a new lightweight parachute for the lander in under five months - ...
  82. [82]
    EADS Astrium sponsors Beagle 2 - SpaceNews
    Jul 28, 2003 · EADS Astrium sponsors Beagle 2. ... Lander, today announced that it has become Beagle 2's first commercial sponsor.
  83. [83]
    EADS Astrium Wins Study For First European Mars Rover
    EADS Space has been awarded a EUR900k study by ESA to carry out the first definition of a Rover to explore the Martian surface and search for life.
  84. [84]
    ESA contracts Astrium UK to build Solar Orbiter
    Solar Orbiter will investigate how the Sun creates and controls the heliosphere, the extended atmosphere of the Sun. Prof. Alvaro Giménez Cañete, ESA Director ...
  85. [85]
    ESA - Galileo partners - European Space Agency
    The Galileo IOV satellites have been provided by EADS Astrium leading a consortium with Thales Alenia Space Italy responsible for integrating the satellites and ...
  86. [86]
    Astrium awarded Galileo Full Operational Capability Ground Control ...
    Jun 29, 2011 · Astrium has been selected by the European Space Agency and the European Union as prime contractor for the Galileo Full Operational ...
  87. [87]
    Astrium Services and Allsat form JV for European Navigation and ...
    Feb 26, 2008 · Precise navigation and positioning services use satellite navigation signals in combination with terrestrial networks to offer very accurate ...
  88. [88]
    Astrium-Allsat JV Launches GNSS Reference Network Services ...
    Mar 6, 2008 · Precise navigation and positioning services support a host of applications in numerous sectors including agriculture, utilities, transport, ...
  89. [89]
    Galileo Receiver Testing with the GNSS Signal Generator NSG 5100
    EADS Astrium has developed a GNSS signal generator for Galileo, GPS, EGNOS and WAAS signals. It is a flexible and modular signal generation unit for ...
  90. [90]
    DLR Selects Astrium as Prime Contractor for In-Orbit Servicing Project
    Sep 20, 2012 · Astrium has been selected by the DLR Space Administration as the prime contractor for the definition phase of the German orbital servicing ...
  91. [91]
    Astrium To Build Robotic Satellite Servicing Craft - SpaceNews
    Sep 18, 2012 · Astrium Satellites of Friedrichshafen, Germany, and Astrium Space Transportation of Bremen, Germany, will lead the work, with subcontractors ...
  92. [92]
    [PDF] Mr. Claude Cougnet EADS Astrium, France Mr. Bernard Gerber
    The On-Orbit Servicing of a fleet of geostationary satellites is currently analysed in an ESA funded study named Satellite Servicing Building Block. This paper ...
  93. [93]
    EADS Astrium Seeks Investors for Suborbital Space Tourism Venture
    Jun 21, 2007 · The Astrium space division of Europe's biggest aerospace company, EADS, disclosed June 13 the basic design of a space plane it proposes to build ...
  94. [94]
    The Suborbital Space Tourism Project of EADS Astrium - AIAA
    Aug 5, 2009 · In addition the operations concept of the EADS Astrium project will allow customers to fly on very short notice. V. The Rocket Propulsion ...
  95. [95]
    Science/Nature | Firm rockets into space tourism - BBC NEWS
    Jun 13, 2007 · The aerospace company EADS Astrium says it will build a plane to take fare-paying passengers on sub-orbital space rides.
  96. [96]
    [PDF] solar power satellites sps-repose - European Space Agency
    Sep 8, 2004 · This technical note summarises the work done in the WP 2000, 3000 and 4000. It has been prepared by the SPS-REPOSE team with EADS-Astrium ...
  97. [97]
    [PDF] SOLAR POWER SATELLITES FOR SPACE EXPLORATION AND ...
    This paper reviews the main results of an ESA funded study, led by EADS Astrium with the support of the Université of La Réunion, which assessed the utilisation ...
  98. [98]
    Solar Power Satellites for Space Exploration and Applications - ADS
    Interplanetary exploration vehicles face the problem of distance to the Sun, especially when large amount of power may be needed. Large infrastructures on Moon ...
  99. [99]
    Success as 70th Ariane 5 Delivers Alphasat and Insat-3D Perfectly ...
    Jul 25, 2013 · It marked the first commercial customer to utilize the new “Alphabus” platform, which has been developed jointly by Astrium and Thales Alenia ...
  100. [100]
    Goodbye to Ariane 5 | National Air and Space Museum
    Jul 11, 2023 · Its 117 launches over more than 20 years boasted a 96 percent success rate, making Ariane 5 one of the more reliable launchers on the market.Missing: Astrium involvement
  101. [101]
    Astrium-built Inmarsat-4 F3 satellite successfully deployed in orbit ...
    Sep 9, 2008 · Astrium-built Inmarsat-4 F3 satellite successfully deployed in orbit EADS Astrium. ... London, Toulouse, 9 September 2008 – Further to its launch ...
  102. [102]
    EADS Astrium-Built Inmarsat-4 F2 Satellite Successfully Deployed In ...
    The first satellite was launched earlier this year and is already in service, covering Europe, Africa, the Middle East and Asia, as well as the Indian Ocean. A ...
  103. [103]
    The triple crown for Astrium: 47th launch of Ariane 5 a success with ...
    Oct 2, 2009 · The triple crown for Astrium: 47th launch of Ariane 5 a success with two satellites placed in orbit EADS Astrium.<|separator|>
  104. [104]
    Development of Alphabus, the new line of platforms for high-power ...
    Jun 16, 2005 · The Alphabus platform was designed for telecom satellites delivering payload power of 12 to 18 kW. Alphabus will contribute to the replacement ...Missing: details patents
  105. [105]
    Plasma Propulsion Systems for Astrium Telecommunications Satellites
    The electric propulsion technologies generally available to a satellite manufacturer are of either the ion thruster or Hall effect thruster type. Both use Xe.
  106. [106]
    [PDF] RITA Ion Propulsion Systems for Commercial and Scientific ... - eucass
    Astrium can offer ion propulsion systems for medium and large satellites for powers between 500 W and 6 kW in the thrust range between 10 mN and 175 mN at.
  107. [107]
    Recent Developments Of Advanced Structures For Space Optics At ...
    Astrium has chosen for both reflectors, Primary and Secondary, a classical lightweight sandwich design for the elliptical off-axis reflectors with CFRP ...
  108. [108]
    EADS Astrium Rover Configuration The rover has a thermal control ...
    So far, mobile, robotic exploration of celestial bodies has been performed solely with wheeled systems, making access to highly unstructured, compressible, and ...
  109. [109]
    Astrium Investigates Automatic Landing At The Moon's South Pole
    Essential to its soft and precise landing are advanced technologies such as an autonomous navigation system and a sophisticated propulsion system. After landing ...
  110. [110]
    House of Commons - Science and Technology - Seventh Report
    In June 2006, Oxford Economic Forecasting produced a report commissioned by EADS Astrium ... contribution to GDP in the region of £5.2 billion.[233]. 135 ...<|separator|>
  111. [111]
    [PDF] Globally competitive Space Systems | Research and innovation
    Today, the. European industry exports an average of EUR 200 million worth of EO satellites, addressing the global commercial demand (50% of its exports) and ...
  112. [112]
    Astrium To Lead Studies of Successor to Ariane 5 - SpaceNews
    Jul 7, 2010 · The successor rocket would permit European governments to launch civil and military Earth observation satellites weighing up to 4,000 kilograms ...Missing: strategic sovereignty Helios
  113. [113]
    Astrium wins Helios through life support contract extension
    The most recent Helios satellite, Helios 2B, was launched in December 2009 by Ariane 5, also developed under Astrium prime contractorship. For more than 30 ...Missing: strategic sovereignty
  114. [114]
    https://www.spacenews.com/astrium-nabs-267m-contract-maintain-helios-ground-system/
  115. [115]
    Astrium Nabs $267M Contract to Maintain Helios Ground System
    Mar 7, 2012 · Astrium will maintain and upgrade the ground-based user segment for the Helios 2 military reconnaissance satellite and its successor system under a 6-year ...Missing: strategic sovereignty Ariane
  116. [116]
    Ariane 5 explosion caused by fault in main engine cooling system
    Ariane 5 explosion caused by fault in main engine cooling system. Following the explosion of the Ariane 5 ECA space rocket on 11 December 2002 over the Atlantic ...
  117. [117]
    [PDF] NESC tech bulletin - NASA
    The bulletin states that simultaneous firing of dual initiators in pyrovalves is the primary cause of failure, and dual simultaneous firing should be avoided.Missing: Astrium disputes
  118. [118]
    Astrium Seeks 24.5 Million Euros from Conax - SpaceNews
    May 12, 2008 · According to the U.S. District Court, Conax “concedes that its pyrovalves failed, but it disputes the scope of its liability.” But Conax's ...
  119. [119]
    Profile: GMES Decision Hits EADS Astrium UK's Bottom Line
    Jan 19, 2023 · The problem is with the structure of U.K. space funding. In France and Germany, space is considered an infrastructure program to be funded ...Missing: 2010s | Show results with:2010s
  120. [120]
    Despite Unresolved Funding, ESA To Move Forward on GMES
    and in particular how much of its ...
  121. [121]
    Astrium Services Girds for Competition with DigitalGlobe-GeoEye ...
    Oct 15, 2012 · Astrium Services is counting on two Earth observation satellites in final assembly here to give it sufficient firepower in 2013 to do battle with the merged ...
  122. [122]
    https://nesdis.noaa.gov/s3/2021-12/North_Raven_Brief_on_Foreign_Space_Policies.pdf
  123. [123]
    Military Quarterly | European Space Agency, OHB Blamed for ...
    European Commission Vice President Antonio Tajani laid equal blame for the delays in Europe's Galileo satellite positioning, navigation ...
  124. [124]
    [PDF] Beagle-2: Lessons Learned and Management and Programmatics
    ... Intellectual Property Rights (IPR) issues however prevented complete oversight of the probe design by the whole Beagle 2 team, particularly on issues relating.
  125. [125]
    House of Commons - Science and Technology - Written Evidence
    Beagle 2 represented at its conception a unique opportunity for the UK to explore Mars. Funding, development problems and interface constraints caused many ...
  126. [126]
    EADS under fire over job cuts in defence shake-up | Reuters
    Dec 10, 2013 · ... issues. Enders said EADS had acted to head off even worse job cuts in the face shrinking European defence budgets and rising competition and ...
  127. [127]
    CONAX FLORIDA CORP. v. ASTRIUM LTD | 499 F. Supp. 2d 1287
    The defendant agreed to purchase from the plaintiff 406 pyrovalves, which were to be manufactured in four batches between April 2001 and June 2005 (Kovacik Aff.
  128. [128]
    Astrium, Sas v. Trw, Inc., 254 F. Supp. 2d 1129 (C.D. Cal. 2003)
    According to Astrium, Defendants failed to disclose the problem despite express questions from Astrium regarding the coating's compliance with specifications.
  129. [129]
    [PDF] THE XENON REGULATED FEED SYSTEM FOR ELECTRIC ...
    The valves are an EADS Astrium own design and are manufactured in-house. These valves are fitted with into a valve block. This arrangement minimizes the.
  130. [130]
    Astrium Services Renamed as Airbus Defence and Space
    Feb 14, 2014 · Earlier this year, EADS became Airbus Group, with three distinct divisions: Airbus, Airbus Defence and Space, and Airbus Helicopters.Missing: organizational | Show results with:organizational
  131. [131]
    Astrium Services Renamed Airbus Defence And Space - Marine Link
    Feb 13, 2014 · The change from Astrium Services to the new Airbus Defence and Space is part of a rebranding throughout the wider EADS organization. Earlier ...Missing: history | Show results with:history