We are providing a condensed overview of the tasks completed and key accomplishments achieved throughout this reporting period (RP). These accomplishments pertain to research and development efforts. The content is structured according to work packages, tasks, and the teams involved. Additionally, a detailed overview of the work performed and main achievements is available in Deliverable D8.3.
The primary objective of WP1 is to create a foundation for situational awareness in multi-agent systems (MASs). This involves developing a framework to represent awareness mathematically and a toolkit for building MASs with this awareness. It will also act as an integration hub, gathering input from other work packages. The logical characterization of awareness will be done using temporal logic. KTH in collaboration with other partners have provided different modeling techniques of MASs. Drawing inspiration from the existing framework of awareness (from Deliverable 5.1) within this project, we have already developed the first framework for awareness in MAS. In the first version of the proposed architecture, the situational awareness includes elements related to the system's situational awareness, encompassing aspects such as the system's state, intent, uncertainty, and risk. Furthermore, the framework in question combines various components, including knowledge, perception, communication, planning, control, the physical condition of the system, and interfaces for communication with human agents. MPI-SWS is leading the development of the tool which will implement the proposed architecture. The first version of the tool is already prepared and made public through GitLab.
The SymAware project developed and validated a comprehensive framework for situational awareness in mixed-autonomy systems, combining symbolic logic, formal verification, and data-driven methods to enable safe and trustworthy human–agent interaction.
In WP1, a foundational framework and open-source toolbox for situational awareness in multi-agent systems were established. The modular architecture integrates perception, communication, reasoning, and control, and supports symbolic verification and controller synthesis. WP2 introduced methods for spatiotemporal awareness using formal languages, enabling scalable task decomposition, distributed control, and adaptive planning under uncertainty. WP3 developed approaches for risk-aware decision-making, including probabilistic risk assessment and user-centered risk communication. WP4 advanced knowledge-aware systems by combining symbolic representations with learning-based methods and formal guarantees. The developed methods were validated in WP5 through aviation and automotive use cases, demonstrating improved safety and performance in avionics traffic management and autonomous driving scenarios. WP6 addressed ethical and human-centered aspects, including transparency, trust, and human oversight.
Across all work packages, the project achieved strong scientific outcomes, including numerous peer-reviewed publications and validated methodologies. The developed framework provides formal guarantees on safety, robustness, and task satisfaction, while remaining applicable to real-world scenarios.