As the ARISE project advances toward realizing advanced robotic solutions in support of the European Green Deal, it is essential to take a closer look at the structural backbone that makes this progress possible.

Building autonomous robots for complex sectors such as Energy (solar panel installation) and Agriculture (hydroponic harvesting) requires more than advanced hardware—it requires a rigorously defined system logic. Early in the project, and led by the work of our partner UBITECH, a comprehensive framework was established to ensure that ARISE robots can operate reliably in the unpredictable conditions of the real world.

Here is a look at the two pillars that form the architecture of the ARISE system.

1. Built on Real-World Needs
   From the very beginning, we knew that technology for technology’s sake would not suffice. The current capabilities of the ARISE platform are the direct result of an in-depth functional analysis of real end-user requirements.
   By collaborating closely with industrial partners, we translated high-level goals—like the delicate handling of lettuce and the heavy manipulation of solar panels—into strict functional requirements. This “user-first” blueprint continues to guide every step of our development, ensuring that the system specifications remain aligned with the actual operational needs of solar farms and greenhouses.
2. A Unified Hardware and Software Architecture
   To support complex, contact-rich manipulation, the ARISE system relies on a sophisticated hardware and software architecture designed for flexibility and intelligence.
   We determined an architectural approach that seamlessly integrates diverse robotic modules. This structure supports:
   High-Performance Edge AI: Enabling the robot to process data and make autonomous decisions on-site, without heavy reliance on external cloud delays.
   Knowledge Introspection: A framework that allows the system to understand its own capabilities, facilitating smoother interaction between human workers and robots.
   Modular Hardware: A physical setup capable of adapting to different tasks while maintaining the robustness required for outdoor and industrial environments.
   Together, these elements allow the same robotic platform to be adapted across multiple use cases while preserving consistent system behavior and reliability.

The Foundation for Future Results
This established architecture is what currently allows our technical teams to integrate new algorithms and sensors with confidence. Because the “brain” and “body” of the system were defined with precision, we are now able to focus on refining the autonomous behaviors that will define the future of industrial robotics.
Stay tuned as we continue to test and validate these systems in the field.