SoCoBot: Social Context-aware Robot
This project looks at how mobile robots navigate as they move into a workplace (e.g., hospital or construction) and how social markers can assist the robot in these movements.
Background
The predicted massive update of mobile robots in the coming years [IFR World Robotics, oktober 2018] depends on sufficient handling of safety aspects - not just on the physical side but equally on the mental side. The latter is often greatly overlooked in healthcare, industry and the service sector alike, but is often key to successful robot integration and adoption. A way of addressing 'mental safety' is by enabling the robots to be 'context aware' - i.e. have an understanding of its surroundings so it can act safely and according to the required social setting. This project will attempt to elucidate the potential of some of such socially context-aware mobile robots, by addressing concrete end-user cases and testing technological components that will support it.
This project will utilize object detection to implement a social aware perception module that enables compliant navigation for mobile robots. The project will be exploring the use case of navigating in areas where humans are working and interacting with the goal of minimizing distraction. The use of a social context-aware robot can be applied in sectors were human-robot interaction is unavoidable, including but not limited to healthcare, construction, manufacturing, industry, etc.
Most of the current mobile robotic solutions uses path planning with the goal of calculating the shortest path to a specific location. Without any additional knowledge regarding human poses and social context, the robots will unknowingly interrupt human communication and at the same time breach their personal space by getting too close.
With novel artificial intelligence (Al) and computer vision algorithms, it is possible to detect poses (position and orientation) of humans in the surrounding environment. By extrapolating pose information, the navigation system will be able to avoid interruption of social contexts and increase the level of safety. Thus, allowing for smoother and compliant navigation of mobile robots in environments containing people.
Furthermore, ensuring that mobile robots respect the social interaction space of humans will advance the implementation in areas, where acceptance of mobile robots is harder to achieve. Examples of these areas are elderly care centres and hospitals, where both patients and workers can easily be disturbed by mobile robots, or a warehouse where a robot must execute an emergency stop in the presence of humans.
Purpose / Vision
Mobile robots are often working in environments were humans interact, but current solutions primarily detect objects as static and without context. These solutions will usually keep a minimum distance to the detected objects, while an optimal solution would be to increase the distance to humans, especially socializing groups.
An implementation of a social context-aware robot will further the physical and mental safety and efficiency of robots and help avoid collisions between humans and robots, while the robot continues its task uninterrupted.
Potential end users will provide proving grounds for the application and define appropriate rules of interaction for their specific work environment. Furthermore, they will have the chance to identify current limitations in their infrastructures and elucidate possible future use-cases. Implementing the examined perception module, technology provider partners participating in this project will expand their products' capabilities and widen their applications.
The successful completion of this project will endow the research partners with experience and tools leading one step closer in achieving autonomous navigation of mobile robots. Moreover, the exploration of cases provided by potential end users and synergies with the technology providers will assist in the pursuit of future funding opportunities.
Analyzing context-aware settings is not limited to mobile robots, as it could also be applied on drones. Implementation of this perception module on drones allows for scanning of greater areas. By combining this information with a mobile robot in the future, an even in cases that a more optimal path can be planned for the mobile robots.
Expected results
The outcome of the project will be a demonstration at TRL5 (Technology validated in relevant environment) which will serve as a proof-of-concept for application to national and international fundings. A collaboration for a project proposal for IFD Grand Solutions, is envisioned by the partners in the expected 2021 winter call for proposals. DTI will furthermore seek synergy with the DIH-RIMA activities helping pave the way fora stronger Danish SME participation. The technology will require further investigation and increase of TRL. It is expected that it will take at least 3 years to achieve commercialization of services with the developed technology. This will be done via technology transfer from academia and GTS to private companies and the sharing of knowledge will be open and with high visibility also by the general public.
Project participants
Teknologisk Institut Robotteknologi
Funding
RoboCluster has funded 110.000 DKK for the project.
The project will run from January 2020 – December 2020
Contact
Do you want to know more about the project?
Contact Jonas Bæch from TI at mail joba@teknologisk.dk
Want to learn more about this project?
For more information about this project, please contact Project Manager Ole.
Co-project Manager, Side Events