On Dec. 7, the European Geostationary Navigation Overlay Service (EGNOS) V3, a satellite-based navigation augmentation system designed by Airbus, passed the System Critical Design Review (CDR). EGNOS V3 supports safety-critical aircraft applications and will soon provide services to maritime and land users.
New services provided by EGNOS V3 are based on multiple frequencies from GPS and Galileo constellations and will provide protection against cyberattacks. As it successfully passed CDR, this multi-constellation and multi-frequency satellite-based navigation augmentation system is a step forward in improving EGNOS accuracy, robustness, and overall coverage in Europe.
EGNOS V3 relies on three operation centers and 44 monitoring stations across Europe. It monitors the signals from satellite navigation systems and generates augmentation messages broadcast to all users using transponders and geostationary satellites. Airbus is currently designing more Galileo satellites, which will further improve EGNOS accuracy and robustness and the resilience of its signal.
EGNOS is a component of the European Union Space Program and is managed in partnership with the European Commission’s Directorate-General for Defense, Industry and Space, the European Union Agency for the Space Programme (EUSPA) and the European Space Agency (ESA).
Europe’s regional satellite-based augmentation system (SBAS), EGNOS, has received upgrades to advance the reliability of GNSS positioning information, according to EUSPA.
Historically, EGNOS has provided safe, uninterrupted satellite navigation services to aviators, and some maritime, railroad, and land-based users in Europe. This system upgrade includes extending its service area, adding advanced functionalities, and reinforcing dual-frequency and multi-constellation services.
The EGNOS V242B system upgrade will expand services outside of its service area and enhance availability to users. Additionally, the upgrade ensures aviator access to lifesaving services such as Localizer Performance with Vertical Guidance (LPV)-200. The upgrade also includes more advanced data processing functions to cater to increased issues with peak solar activity and ionospheric phenomena that interfere with EGNOS signals and services.
Dual-frequency and multi-constellation services were also improved in the EGNOS upgrade. The improvements revamped EGNOS Version 2, and reinforced EGNOS services before launching EGNOS Version 3 (V3).
EGNOS delivers two frequencies and has amplified Galileo signals, hence creating a multi-constellation capability. When EGNOS V3 is launched, it will offer additional services and enhance protection against cyberattacks, further advancing EGNOS’ safety-critical applications across Europe.
EHang deployed its EH216 eVTOL for flight trials in Europe including the recent Air Mobility Urban-Large Experimental Demonstration. (Photo: EHang)
EHang will deploy its EH216 autonomous aerial vehicle in a European Union-funded project that is assessing how the European Geostationary Navigation Overlay Service (EGNOS) could be used for electric vertical-takeoff-and-landing (eVTOL) aircraft operations.
The fully autonomous, all-electric vehicle will be used for flight trials at Lleida-Alguaire Airport in Spain as part of the Satellite Based Augmentation System Adoption in Multicopter VTOL Aircraft (SAMVA) program.
As part of an initiative of the European Union Agency for the Space Programme (EUSPA), the SAMVA project is tasked with establishing how EGNOS could support planned air mobility services, including eVTOL air taxi flights. It is also intended to prepare for uncrewed vehicles to use the new U-Space concept for managing autonomous or remotely piloted aircraft.
Aeroports de Catalunya will help China-based EHang to establish an operational center at its Lleida-Alguaire facility in the Catalonian region of northeast Spain. The EH216 will use the EGNOS technology to conduct unmanned traffic management (UTM) tasks and to demonstrate how eVTOL aircraft could operate in urban environments, including to and from airports.
EHang is working to achieve Chinese certification for the two-seat EH216, which it intends to deploy with partners and customers for services such as air taxi and sightseeing flights. It also aims to get approval for its aircraft to operate in Europe and has been active in other air mobility partnerships in Europe, where it has provisional customers in places like Norway.
In October, EHang completed its participation in the European Union’s Air Mobility Urban-Large Experimental Demonstration (AMU-LED) with a series of flight tests in Spain. The company — one of 16 consortium members in the AMU-LED program — demonstrated the EH216 at the Rozas Airborne Research Center, which is part of Spain’s National Institute of Aerospace Technology.
“The SAMVA project will unleash EGNOS capabilities aboard EHang’s EH216 AAV to provide precise and integral navigation guidance and support U-Space airspace integration,” said Victoria Jing Xiang, the company’s chief operating officer for Europe and Latin America. “Our participation in this project reflects the meaningful progress we’ve made overseas with our strong technologies as our global footprint expands.”
Europe’s 2nd Horizon Europe call has been launched for European GNSS, Galileo and Earth observation projects, offering total funding of €48.1 million.
The Horizon program is managed by the European Union Agency for the Space Programme (EUSPA). It funds research and innovation by small and mid-size enterprises, academia, public actors and others that will stimulate development of space applications and solutions using EUSPA data and services.
The 2nd call aims to to strengthen downstream capabilities and modernize the EU public sector by offering cutting-edge solutions based on Galileo, Copernicus, EGNOS and GOVSATCOM.
Funding is being offered for projects that make use of Galileo and EGNOS in smart mobility applications. Other projects fuse Copernicus data with artificial intelligence to boost the European economy and help modernize the public sector. For the first time, the call seeks to deliver satellite communication use cases based on the forthcoming GOVSATCOM system.
Below is a breakdown of the funds’ distribution per thematic area.
Visit the EU’s funding & tender opportunities portal for detailed information about the EUSPA call and the topics available. The deadline for applications is March 2, 2023.
Galileo Second Generation Batch#1B satellites. (Image: ESA).
Technology multinational GMV has been awarded the NAVGUARD project by the European Commission.
NAVGUARD (Advanced Galileo PRS Resilience for EU Defence) will develop ground and space systems to detect illegal activities on GNSS frequencies and geolocate their sources. It also will build an information-management subsystem together with a user interface to provide a situational awareness picture.
The Galileo Public Regulated Service (PRS) is an encrypted navigation service for governmental authorized users and sensitive applications that require high continuity.
According to the EU Agency for the Space Programme (EUSPA), the PRS signal will ensure better continuity of service to authorized users when access to other navigation services may be degraded (resilience). In cases of malicious interference, PRS increases the likelihood of the continuous availability of the signal-in-space (robustness).
NAVGUARD is among various European Defence Fund (EDF) projects designed to sharpen the competitiveness of the European Union defense industry and strengthen the EU’s strategic autonomy. Besides navigation, the projects contracted to GMV will focus on developing missile defense system capabilities, systems for dismounted soldiers, avionics, command and control and cyber defense.
Contract signed with EUSPA to develop the next version of EGNOS
Thales Alenia Space, the joint venture between Thales (67%) and Leonardo (33%), has signed a new contract with the EU Agency for the Space Programme (EUSPA) to develop, qualify and deploy the new European Geostationary Navigation Overlay Service (EGNOS) version.
Thales Alenia Space has also just reached a new milestone in the Galileo program with the integration of a new satellite into Galileo’s Ground Mission Segment (GMS) which will improve positioning service for 3.3 billion users.
EGNOS Upgrade
Thales Alenia Space will provide EUSPA and the EU navigation community with a new version of EGNOS (V243). Its operations will be secured by a new state-of-the art Navigation Land Earth Station technology developed by Thales Alenia Space – NLES-G3.
The NLES transmits the EGNOS message containing all accuracy and integrity corrections to the geostationary satellites for broadcast to users such as aviation operators. Thales Alenia Space NLES-G3 will be integrated with a new geostationary satellite, GEO3, which will enhance the EGNOS system and its end-to-end performance.
Certification and commissioning of this latest version is slated for 2024.
Galileo Milestone
Thales Alenia Space also is the prime contractor for Galileo First Generation’s Ground Mission Segment. Galileo has achieved a milestone with the Galileo constellation approaching final steps before its completion with the GSAT0223 satellite. GSAT0223 will increase the operational constellation to 23 satellites for positioning and 25 for search and rescue.
The new satellite has successfully been positioned in orbit and its payload signals inserted in the Ground Mission Segment (GMS) operational chain of Galileo. The GMS is generating the world’s most accurate satellite ephemerids, enabling decimetric ranging accuracy.
With the entry in service of this satellite, the GMS now serves more than 3,3 billion Galileo users who will benefit from an enhanced positioning and timing service.
The EU Agency for the Space Programme (EUSPA) is set to launch a new Fundamental Elements call, with a dedicated online workshop June 30. The workshop is an opportunity to learn about the new call and hear from successful projects funded during the last call.
Fundamental Elements is a research and development funding mechanism designed to support the development of innovative chipset, antenna and receiver technologies in which industry would not yet invest on its own initiative. In doing so, the program helps accelerate the integration of European GNSS (EGNSS) into market-ready devices and solutions.
Projects funded by Fundamental Elements play a key role in EUSPA’s mission of driving the development and market uptake of Galileo-enabled receivers. For example, the GEARS project, which was funded during the initial call, developed a super accurate and highly robust Galileo-enabled receiver capable of providing both time and frequency data for critical infrastructure.
The new Fundamental Elements call builds on success of projects by:
integrating Galileo’s key differentiators into receiver technologies, including OSNMA, high-accuracy frequency, triple frequency, Early Warning Service, CAS and ARAIM
leveraging disruptive technologies such as machine learning and artificial intelligence
exploring potential synergies with Copernicus and the forthcoming GovSatCom.
More details about these points and the call in general will be made available during EUSPA’s upcoming Fundamental Elements online Workshop via Webex. Scheduled for June 30, the workshop will include in-depth information on the funding program and the application process.
The event will also feature project teams funded during the first Fundamental Elements call, who will share their experiences, best practices and advice for putting together a successful project.
Image: GPS World; outdoor, Andriy Solovyov/Shutterstock.com; indoor, Rade Kovac/Shutterstock.com
\Registration is now open for the fifth GNSS Raw Measurements Task Force meeting, which will take place on May 17. Participation is online, where participants will gain access to Task Force members’ experience and learn about progress on using raw measurements in Android devices.
The aim of the EUSPA’s Raw Measurements Task Force is to bridge the knowledge gap between raw measurement users. The meetings of the task force are a key element in this effort, providing a forum for stakeholders to share experience and knowledge around raw measurements use.
Following a welcome address from Fiammetta Dianithe, EUSPA’s head of Market, Downstream and Innovation (MADI) Department, the opening session will include a keynote presentation from Google`s Frank Van Diggelen and Mohammed Khider. Updates on EGNSS opportunities from the Galileo programme will be provided by members of the MADI team.
After the break, the agenda will be dedicated to presentations from Task Force members, targeting their innovative work using raw measurements. The last session focuses on testing results and implementation of EGNSS differentiators. For the full draft agenda, click here.
Since its launch in 2017, the task force has expanded from a handful of experts to a community of more than 100 agencies, universities, research institutes and companies. Membership is open to anybody interested in GNSS raw measurements. To join the task force, contact [email protected].
EUSPA’s mission is to link space to user needs. Over the past year, EUSPA has increased access to EU space data and services around the world, launched new Galileo satellites, and put in place additional satellite navigation services.
EUSPA operates Europe’s satellite navigation systems Galileo and EGNOS. It is also the gatekeeper to a secure EU Space Programme, providing end users with the confidence of knowing that the space-derived data they depend on is safe and secure.
The agency plays a central role in the market uptake of the data and services offered by the EU Space Programme components. EUSPA also manages the development of GOVSATCOM hubs, which will provide secure, cost-efficient communication capabilities to security and safety-critical governmental missions, operations and infrastructure.
the entry into service of a new Galileo satellite for additional accuracy to end-users
publishing the EO and GNSS Market Report, a comprehensive market intelligence study providing trends for the entrepreneurs and investors.
3.1 billion Galileo-enabled smartphones sold globally since 2016.
“I am more than proud of what EUSPA has achieved in a year. I am also proud to be at the helm of an organization staffed with dedicated professionals, with a service-oriented mindset who work to make EU Space accessible to citizens,’’ said Rodrigo da Costa, EUSPA executive director. “EUSPA remains committed to helping the union and its citizens maximize the socio-economic benefits of space.”
Galileo-supported E112 will result in faster response times and more lives saved. (Image: EUSPA)
As of March 17, all smartphones sold in the European Union must be leveraging Galileo signals in addition to other GNSS for calls to the European 112 (E112) emergency number.
Using Galileo enhances pinpointing locations of 112 calls in Europe, resulting in faster response times and more lives saved, according to the EU Agency for the Space Programme (EUSPA).
The 112 emergency number is operational in nearly all EU Member States, as well as other countries. People in danger can call it 24/7 to reach the fire brigade, medical assistance and the police.
Most calls to the 112 emergency number are placed from mobile phones. These calls already support the sending of location information to emergency services. However, this information was not based on GNSS capabilities until recently.
Three years ago, the Commission Delegated Regulation anticipated measures to take advantage of GNSS and Wi-Fi location capabilities in smartphones placed on the European Union market, starting March 17.
GNSS versus cell-ID
Until now, the 112 caller’s location information was established through identification technology based on the coverage area of a cellular network tower (cell-ID). The average accuracy of this information varies from two to 10 kilometers, which can lead to significant search errors following emergency calls.
By contrast, GNSS location information pinpoints the call within a few meters. This level of accuracy will have a major impact in terms of response times, ultimately allowing for quicker intervention in emergency situations.
Galileo 112 rollout
The ability for 112 to communicate a caller’s location to emergency services automatically is already being rolled out. The protocol — Advanced Mobile Location (AML) — is being deployed across the European Union. When a caller dials 112 from their smartphone, AML uses the phone’s integrated functionalities and data from Galileo to accurately pinpoint the caller’s location and transmit it to a dedicated endpoint, usually a Public Safety Answering Point (PSAP), which makes the caller location available to emergency responders in real time.
According to the European Emergency Number Association (EENA), at least 18 EU Member States have already completed AML deployment, while others are in the process of doing so. This implementation is because of EU initiatives and projects such as the Help 112 project, which was set up to evaluate the merits of handset-based technologies in improving the location of emergency callers.
The 216-page report is designed to help anyone who seeks to make EU space technologies part of their business plan, develop new space downstream applications, and see a tangible return on investment.
More than ever society relies on innovative solutions to deal with the big data paradigm, respond to and mitigate climate change, natural and man-made disasters, curb the spread of diseases and strengthen a global supply chain that underpins our daily lives.
Download report here.
Earth observation and GNSS data is becoming increasingly important to innovative solutions for climate change, disaster and disease response, and global supply chain management. Dozens of applications are emerging or already in use by citizens, businesses, governments, industry, international organizations, NGOs, and researchers around the world.
The report provides analytical information on the dynamic GNSS and EO markets. In 2021, GNSS and EO downstream markets generated more than €200 billion in revenues and are set to reach almost half a trillion over the next decade.
The report also offers in-depth analyses of global trends and developments through illustrated examples and use cases. Using advanced econometric models, it also offers market evolution forecasts of GNSS shipments or EO revenues spanning to 2031.
Green Investments
EUSPA is committed to helping the EU deliver on the Green Deal agenda and the fight against climate change, starting with embedding space data and services into professional activities. According to EUSPA, accelerating Europe’s engagement in space is pivotal to enabling the green transition and reaching climate neutrality by 2050.
The report emphasises how users of EO and GNSS contribute to compliance, monitoring and efficiency of green investments, benefiting companies, regulators and society as a whole. It focuses on concrete examples across the 17 identified market segments.
For instance, Galileo can provide smart power grids with robust timing and synchronization down to a nanosecond, improving their performance. In another example, EU space plays a role in green energy, as Copernicus helps optimize performance of tidal power generators by providing tidal current prediction systems.
Key Report Findings
Global GNSS- and EO-enabled revenues crossed €200 billion in 2021 and are set to reach almost €500 billion over the next decade.
The global installed base of GNSS devices in use will reach more than 10 billion units in 2031.
The market for Earth observation applications is boosted by a large pool of value-added services (85% of global revenue).
The European EO industry is dominated by SMEs and start-ups; from a supply perspective, European companies hold more than 41% of the global EO market.
The downstream space application market accompanied by the EU Space Programme will continue growing and thereby effectively contributing to European policies (such as the European Green Deal and EU’s Digital Decade), as well as global policies (such as the United Nation’s Sustainable Development Goals and the Paris Agreement) in combination with other technologies.
Galileo Second Generation Batch#1A satellites. (Image: ESA).
Successful European Cooperation
Galileo is Europe’s civil global satellite navigation constellation and a major success, being the world’s most precise satnav system and offering meter-scale accuracy to more than two billion users around the globe.
The signature of the Financial Framework Partnership Agreement (FFPA) on June 22, 2021, further strengthened effective cooperation between the European Commission (EC), the European Union Agency for the Space Program (EUSPA), and the European Space Agency (ESA) — key to successfully achieving a crucial EU Space Program component like Galileo in the current EU Multi Financial Framework (2021–2028).
The EC is the program manager, with EUSPA acting as the exploitation manager and ESA as the system development prime.
Stable Service Performance
Galileo continues to deliver excellent service performance every month in a safe, secure and seamless manner. Delivery of Galileo services is managed by EUSPA, as the Galileo service provider, with industrial partner SpaceOpal, the Galileo service operator prime contractor. The performance of Galileo services is independently monitored by the Galileo Reference Center (GRC) and regularly published on the GNSS Service Center (GSC) web portal at www.gsc-europa.eu — both agencies were developed by GMV. The security of the Galileo System is monitored by the Galileo Security Monitoring Centers (GSMC), operated by EUSPA.
With 22 satellites in service, the open service is already delivering more than 99% availability of PDOP <= 6 worldwide. This, together with the excellent ranging accuracy, suggests that most Galileo dual-frequency users are typically experiencing positioning accuracy in the order of only 2 to 3 meters.
Timing users also continue to receive accurate (in the order of 5 ns) access to Galileo System Time, which they can trace to Universal Coordinated Time (UTC) through the corresponding offset parameters transmitted by the satellites.
The SAR/Galileo service, contributing to COSPAS/SARSAT, continues to deliver both the Forward Link Service (FLS) and the Return Link Service (RLS) with more than 99% availability, allowing users in distress not only to issue an alert and be located within a few minutes, but also be notified that the alert was successfully processed and rescue is on the way. The SAR/Galileo control center is located in Toulouse (France) and operated by CNES under the authority of EUSPA. The excellent performance of the service has been demonstrated both through several rescue exercises and real-life emergencies.
Performance of Galileo positioning services. (Credit: EUSPA)
Performance of Galileo positioning services. (Credit: EUSPA)
Galileo Launch 11
Soyuz launcher VS-26 lifted off from French Guiana with the first pair of Galileo Batch 3 satellites on Dec. 5, 2021, at 01:19 CET. This marks the 11th Galileo launch of operational satellites in 10 years: a decade of hard work by Europe’s Galileo partners and European industry. With these satellites, the robustness of the constellation has increased, guaranteeing a higher level of service.
Thanks to an upgrade of the Ground Control Segment, the Launch and Early Orbit Phase has been for the first time conducted directly from the Galileo Control Center, rather than requiring an external mission control site. This version of the ground segment increases overall reliability and cybersecurity and opens the way to significant expansion of the Galileo constellation, allowing command and control of up to 38 satellites. The development has been performed by an industrial consortium led by GMV, harnessing state-of-the-art technology using the latest solutions on the market.
Galileo launch 11 from Europe’s spaceport in French Guyana. (Photo: ESA)
On Route to Full Operational Capability
This year will pave the way toward Full Operational Capability of Galileo services.
Industrial prime contractor OHB Systems has nearly completed production of the additional 10 recurrent satellites belonging to Galileo Batch 3. Six of them are undergoing final acceptance testing at the ESA satellite test center, and the other four are under integration at the satellite prime facilities.
Preparation for Launch 12 has already started, with the satellites’ acceptance for a launch date planned in the first months of 2022, followed by Launch 13 in autumn. This is leading toward completion of the Galileo constellation, providing an increased availability of the Galileo signal in space for both GNSS and search-and-rescue users.
Performance of Galileo timing and search-and-rescue services. (Credit: EUSPA)
Performance of Galileo timing and search-and-rescue services. (Credit: EUSPA)
From 2023 onward, the remaining Batch 3 satellites will be launched with the new Ariane 62 launch vehicle, a variant of Ariane 6 with two strap-on solid boosters. The launcher is undergoing the final stages of development, led by prime contractor ArianeGroup.
The Galileo Ground Mission Segment will undergo a complete technological refresh, including hardware virtualization and porting of several million lines of code, performed by an industrial consortium led by Thales France. A series of improvements will be introduced to increase system resilience, including an extended mode of operation to improve service continuity and robustness.
Cybersecurity monitoring of all the ground assets will be introduced as an overlay to the current ground infrastructure. The upgrade will undergo a rigorous level of qualification testing followed by worldwide deployment in a seamless way in both Galileo control centers, in both Galileo security monitoring centers, and at all remote locations without affecting continuity of service.
The service facilities that contribute to the delivery of Galileo services (the European GNSS Service Center, the Galileo Reference Center, and the SAR data service providers) will also evolve to support not only the transition from Initial Services to Full Operational Capability, but also the early roll-out of service evolutions. In this regard, extensive work is ongoing to deliver an exciting set of improvements, some of which are already in development or testing, to reach the users in the year to come:
Improvements of the I/NAV signal to increase robustness and time-to-first-fix, while assuring full backward compatibility with legacy receivers.
OS Navigation Message Authentication (OS-NMA) to support applications that require trust in the authenticity of the data transmitted by the Galileo satellites (a public observation campaign was launched in November 2021 to engage stakeholders and collect their feedback before moving to the initial service provision).
An initial phase of the High Accuracy Service, delivering corrections in the Galileo E6 signal and over terrestrial network to allow users to perform precise point positioning over Europe; test signals were already transmitted with promising results.
A Search and Rescue Beacon Command Service complementing the SAR Return Link, providing improved capabilities to timely locate beacons under authorized emergency situations (such as the disappearance of Flight MH370 in the Indian Ocean in 2014).
A first implementation of an Emergency Warning Service over Europe, allowing the authorized national emergency-management authorities of the EU Member States to relay alert messages through Galileo signals, which can reach target areas even in case of disrupted terrestrial communications (such as due to floods or earthquakes).
Galileo worldwide ground segment. (Credit: ESA)
Second Generation in the Making
The FFPA will bring Galileo to the next level with the development of the second generation, a further step forward with the use of many innovative technologies to guarantee the system’s unprecedented precision, robustness and flexibility.
In parallel to the completion of the first generation of Galileo, Europe has conducted in recent years preparation activities for the Second Generation (G2). Elaborating on market, user and exploitation needs collected by EUSPA, ESA identified a number of system evolution scenarios, which were discussed among relevant EU stakeholders to select the second-generation mission and services baseline to build the system infrastructure.
The evolution of Galileo capabilities will not only provide better services through advanced technical solutions identified by ESA, but will also ensure continuity of service and backward compatibility for
first-generation legacy users.
Two parallel contracts to develop and manufacture each of the six Galileo Second Generation Batch#1 satellites were kicked off in the first half of 2021 with Thales Alenia Space (Italy) and Airbus Defence & Space (Germany). The new G2 satellites will be constructed on a short time scale, with their first launch via Ariane-62 expected in less than four years, allowing them to commence operations in space as soon as possible. Both contracts have already undergone preliminary design reviews.
Development of the G2 satellites is supported by the Galileo Payload Test Bed, which provides an early proof-of-concept of the advanced G2 payload architecture. These satellites will provide, among others, the following key innovations:
Reconfigurable fully digital navigation payload.
Point-to-point connection between satellites by Inter-Satellite-Link for command and control and ranging functionalities.
Electric propulsion for orbit-raising capabilities.
Advanced jamming and spoofing protection mechanisms to safeguard Galileo signals.
System and Ground Segment definition studies, together with the associated technology pre-developments, have been performed, leading to the definition of the preliminary design and technical requirement baseline for the G2 system, a project involving most of Europe’s space industrial partners.
The G2 In-Orbit Validation Ground Segment and System Test Bed have been defined and relevant procurement procedures are ongoing, with these objectives:
G2 Batch#1 satellites launch and early orbit phase, in-orbit testing and enhanced legacy services provision.
G2 new capabilities in-orbit validation, including prototyping and validation of all the novel technologies that can exploit the full capabilities of the G2 Batch#1 satellites.
Galileo Second Generation Batch#1B satellites. (Image: ESA).
Definition activities for the G2 Initial Orbit Capability (IOC) are progressing well and are expected to converge in the first half of 2022, in order to establish the future roadmap for new G2 services provision in the years to come.
2022 will be a key year for the evolution of Galileo Second Generation activities, through the consolidation of the first batch of G2 satellite design and development activities and the start of development of associated G2G IOV Ground Segment and System Test Beds.
A bright future awaits Galileo, both through the completion of its Final Operational Capability and the start of evolution towards Galileo Second Generation.
Guerric Pont is Galileo Exploitation Program manager for the European Union Agency for the Space Program (EUSPA).
Marco Falcone is Galileo First Generation Project manager for the European Space Agency (ESA).
Miguel Manteiga Bautista is Galileo Second Generation Project manager for the European Space Agency (ESA).
