ADE brings together the European industrial and research leaders in space robotics autonomy. The proposed team represents the adequate matching between bringing within OG10 the results of the SRC2016 and including new partners that will complete and add an external point of view to solutions and/or choices done during the PERASPERA project.
More specifically, GMV (ESP and UK) has coordinated three over six of the SRC 2016 OGs, namely OG1, OG2 and OG6 and made the most relevant efforts in the field of autonomous frameworks with the ERGO GOAC and GOTCHA projects; King´s College London (UK) represents world-wide renowned institutes in the field of planning; TAS-I (I) is the ExoMars mission prime and such such will bring its expertise in the area of system requirements definition, Airbus (UK) is the prime contractor of the ExoMars Rover project, and as such is responsible for the rover Guidance; University of Oxford (UK) is probably the most experienced European partner in opportunistic science and rover navigation and localization; UGA-Verimag (FR) is responsible of the BIP system used for formal Verification and Validation in most space robotic programs; Magellium (FR) will add to the team its expertise in rover navigation and localization&mapping also coming from the OG3, Joanneum Research Institute (A) has a long standing reputation in the area of planetary robotics vision, Trasys (B) has extensive experience in rover simulators and ground station, they are working with GMV implementing of ExoMars ROCC or LUCID. DFKI (D) is a key element of the European robotics, which will be in charge of the rover and rover simulator. Additionally the consortium will rely on the excellence of two universities, the University of Malaga (ESP) for implementing a coupled control rover-robotic arm for sample catching, and University of Salento (IT) and Politecnico di Bari (IT) for soil navigability estimation.
Company | Role in ADE |
GMV | Overall coordination and Interface with other operational grants
Coordination of technology review and SOA Overall ADAM SW and HW architecture, design, validation and integration within the rover avionics ERGO and ESROCOS adaptation to OG10 Maintenance of OG2 Responsibility for demonstrator testing facilities detailed design Simulation and field tests V&V Field test organization |
GMV-UK | ADAM deliberative layer adaptation, prototyping, coding and final validation |
DFKI | Rover integration
Support to new avionic integration on rover Rover simulator and simulation toolsets Contribution to field tests |
KCL | ADAM deliberative layer adaptation, prototyping, coding and final validation |
TAS-I | Mission and Technology Review and SOA
System and demonstrator scenario and Requirements OG4 review and SOA |
UGA | ADAM Formal validation and Verification |
Airbus | Rover Guidance and navigation adaptation, prototyping, coding and final validation |
OXF | Opportunistic science both for high resolution time and thermal camera
Training of images recognition for a nuclear scenario |
JR | Ground truth
Scientific target characterization ADE test plan definition |
MGL | Localization and mapping as from OG3 adaptation, prototyping, coding and final validation |
UMA | Couple control motion rover-robotic arm |
US | Soil navigation estimation |
TRSY | Rover Control Station |
POLIBA | Support to Soil navigation estimation |
Table 1: Consortium responsibilities per partner