Periodic Reporting for period 1 - EU-RISE (EUropean RobotIcs for Space Ecosystems)
Periodo di rendicontazione: 2023-12-01 al 2026-01-31
The growing need for global connectivity, enhanced monitoring capabilities, and deeper space exploration necessitates an increase in the number and complexity of space missions. To manage mission costs effectively and reduce the environmental impact, a new paradigm is required, shifting away from current spacecraft design and mission morphology. The future of space missions demands more cost-effective and flexible systems that are capable of in-orbit assembly and servicing.
The EU-RISE project lays a strong foundation for this paradigm shift through two distinct, objective-driven workstreams. This initiative is designed to establish a future European In-Orbit Servicing, Assembly, and Manufacturing (ISAM) capability, thereby positioning Europe as a key player in the evolving space ecosystem.
The first workstream defined the future space ecosystem by conducting a market analysis to identify robotic ISAM business opportunities and challenges. This led to the development of unique ISAM reference missions, which formed the basis for an end-to-end (E2E) laboratory demonstration scenario for testing and validating robotic ISAM technologies.
The second stream focused on maturing and developing key European robotic hardware and software technologies necessary for future ISAM activities and the E2E demonstration. These technologies were integrated into an E2E, hardware-in-the-loop (HIL) laboratory demonstrator, used for a comprehensive verification and validation campaign that consolidated and advanced the Technology Readiness Levels (TRLs) of key robotic technologies in a realistic environment.
The EU-RISE project lays a strong foundation for this paradigm shift through two distinct, objective-driven workstreams. This initiative is designed to establish a future European In-Orbit Servicing, Assembly, and Manufacturing (ISAM) capability, thereby positioning Europe as a key player in the evolving space ecosystem.
The first workstream defined the future space ecosystem by conducting a market analysis to identify robotic ISAM business opportunities and challenges. This led to the development of unique ISAM reference missions, which formed the basis for an end-to-end (E2E) laboratory demonstration scenario for testing and validating robotic ISAM technologies.
The second stream focused on maturing and developing key European robotic hardware and software technologies necessary for future ISAM activities and the E2E demonstration. These technologies were integrated into an E2E, hardware-in-the-loop (HIL) laboratory demonstrator, used for a comprehensive verification and validation campaign that consolidated and advanced the Technology Readiness Levels (TRLs) of key robotic technologies in a realistic environment.
In pursuit of the overarching goal of establishing a robust European In-Space Assembly and Manufacturing (ISAM) capability, which is essential for the future of space exploration and a sustainable space economy, the EU-RISE project team has achieved the following key outcomes:
1. Future Space Ecosystem Market Analysis: a comprehensive assessment of the ISAM market opportunities was conducted, identifying necessary capabilities and defining reference mission scenarios and requirements for future space ecosystem activities.
2. Development of an Open-Source Strategy: to further support future ISAM activities, the project drafted a sustainable, secure, and commercially viable strategy for future space exploration, leveraging open-source for sustainability, interoperability, and collaboration. This included analyzing business models, licensing, cost optimization, and best practices for an efficient “Open-source Strategy for the Future Space Ecosystem”
3. Maturation of Space Robotics Enabling Technologies: key European space robotic technologies for ISAM were matured and developed, including the Versatile In-Space and Planetary Arm (VISPA) (encompassing both software and hardware), the Standard Interface for Robotic Manipulation (SIROM), the Robotic System Control (RSC) framework for flight software orchestration, and the Ground Console for system monitoring and control.
4. Development of an End-to-End Laboratory Demonstrator: the matured/developed robotic software and hardware elements were integrated into an E2E laboratory demonstrator, effectively showcasing the capabilities of the integrated robotic system.
5. Verification and Validation of Integrated Robotics System: a verification and validation campaign was executed on the integrated robotic system within a realistic mission scenario, substantially advancing the viability of autonomous ISAM operations.
1. Future Space Ecosystem Market Analysis: a comprehensive assessment of the ISAM market opportunities was conducted, identifying necessary capabilities and defining reference mission scenarios and requirements for future space ecosystem activities.
2. Development of an Open-Source Strategy: to further support future ISAM activities, the project drafted a sustainable, secure, and commercially viable strategy for future space exploration, leveraging open-source for sustainability, interoperability, and collaboration. This included analyzing business models, licensing, cost optimization, and best practices for an efficient “Open-source Strategy for the Future Space Ecosystem”
3. Maturation of Space Robotics Enabling Technologies: key European space robotic technologies for ISAM were matured and developed, including the Versatile In-Space and Planetary Arm (VISPA) (encompassing both software and hardware), the Standard Interface for Robotic Manipulation (SIROM), the Robotic System Control (RSC) framework for flight software orchestration, and the Ground Console for system monitoring and control.
4. Development of an End-to-End Laboratory Demonstrator: the matured/developed robotic software and hardware elements were integrated into an E2E laboratory demonstrator, effectively showcasing the capabilities of the integrated robotic system.
5. Verification and Validation of Integrated Robotics System: a verification and validation campaign was executed on the integrated robotic system within a realistic mission scenario, substantially advancing the viability of autonomous ISAM operations.
The EU-RISE project has made significant progress beyond the state-of-the-art in space robotics and modular space systems. One of the key advancements is the development of a concept of a modular and scalable robotic system that can be adapted to different mission needs, unlike traditional mission-specific robotic solutions. This flexibility allows for reconfiguration and multi-mission compatibility, surpassing current rigid architectures.
The project has also advanced autonomy in space robotics by integrating decision-making meta-frameworks and adaptive control algorithms. This level of autonomy reduces reliance on ground operators and increases efficiency in space operations, going beyond existing semi-automated and teleoperated systems. Additionally, EU-RISE has achieved a holistic integration of key enabling technologies, including ground consoles, avionics, robotic software, and hardware elements. The seamless interaction between these components enhances reliability and operational readiness compared to current fragmented solutions that require extensive customization for different missions.
The project introduces a new methodology for space assembly and servicing by leveraging standardized interfaces (i.e. the Standard Interface for Robotic Manipulation (SIROM)) between the robotic arms and tools within a modular framework. This approach improves mission flexibility, making on-orbit maintenance, repair, and infrastructure construction more efficient than existing techniques. Through these advancements, the EU-RISE project is paving the way for a new generation of space technology, strengthening Europe’s position as a leader in space robotics and laying the foundation for a robust future space ecosystem.
The project has also advanced autonomy in space robotics by integrating decision-making meta-frameworks and adaptive control algorithms. This level of autonomy reduces reliance on ground operators and increases efficiency in space operations, going beyond existing semi-automated and teleoperated systems. Additionally, EU-RISE has achieved a holistic integration of key enabling technologies, including ground consoles, avionics, robotic software, and hardware elements. The seamless interaction between these components enhances reliability and operational readiness compared to current fragmented solutions that require extensive customization for different missions.
The project introduces a new methodology for space assembly and servicing by leveraging standardized interfaces (i.e. the Standard Interface for Robotic Manipulation (SIROM)) between the robotic arms and tools within a modular framework. This approach improves mission flexibility, making on-orbit maintenance, repair, and infrastructure construction more efficient than existing techniques. Through these advancements, the EU-RISE project is paving the way for a new generation of space technology, strengthening Europe’s position as a leader in space robotics and laying the foundation for a robust future space ecosystem.