The advent of artificial intelligences and robots is inducing profound transformations in our societies. Isir researchers help to anticipate them by working on the autonomy of machines and their ability to interact with human beings.
Gathered in multidisciplinary teams, they create drones, micro-tweezers, bionic prostheses, social robots, surgical arms and all kinds of intelligent and interactive systems, physical, virtual or mixed reality. Their applications address major societal challenges: health, industry of the future, transport, personal services.
We develop models from these:
Engineering, to characterize the dynamic behavior of high mobility robots in complex physical interaction with their environment.
Neurosciences or human movement sciences, to describe the cognitive and sensory-motor functions of living beings and to exploit them in the control of robots.
Psychology, for the characterization of the socio-interactive behaviors of human beings, among themselves or with machines.
We design and produce:
Robotic systems, real or simulated, equipped with algorithms for the control and processing of information, to achieve sensorimotor, learning, or interaction capacities superior to those of the state of the art.
Interfaces, to optimize the interaction between people and their environments, digital, physical, or mixed.
We validate these proposals:
Through experiments which realistically reproduce the environment of the targeted applications, in order to verify their robustness (for example: health, factory of the future, all-terrain mobility).
Through experimental campaigns involving human people. For this, we define rigorous protocols to guarantee the scientific value of the results, in compliance with ethical rules and laws protecting the person.
ISIR is under the supervision of Sorbonne University which is a world-class multidisciplinary university. The laboratory is located on the Pierre and Marie Curie Campus within the Faculty of Science and Engineering. The laboratory is also under the supervision of the CNRS (the French National Centre for Scientific Research) which is one of the most important research institutions in the world.
Inserm, the French National Institute for Health and Medical Research, also supervises the AGATHE team for its medical research.
Valuation and transfert
The ISIR is involved in numerous collaborations with companies. We support our partners to strengthen their innovation capabilities and gain competitiveness on new markets opened by robotics and artificial intelligence in many sectors.
ISIR researchers are also at the origin of several start-ups, either because they are personally involved in their operation, or because they transfer technologies through the assignment of rights to exploit inventions or know-how.
Start-ups resulting from the Isir
Equipment and platforms
With more than 800 m² dedicated to experimental activities, the ISIR maintains one of the largest robot parks in Europe.
The experimental platforms support the activities of all teams. They are made up of commercially available devices, or made by the technical department in our workshops. You wish to use them for your R&D studies? It is possible, contact us.
Three platforms support federating projects selected by its Scientific Council and supported via shared resources at the ISIR:
- GRETA, a virtual avatar equipped with multimodal social interaction capabilities,
- CoVR, a unique combination of motion tracking and analysis, virtual or augmented reality, and the movement of the environment or the subject placed in immersion,
- Surgical Cockpit, a set of interfaces for assisting gestures in minimally invasive surgery.
- The Social Robotics Platform, which brings together, on the Jussieu campus and on the hospital sites of the Pitié Salpêtrière and Charles Foix in Ivry, many resources for the implementation and evaluation of social interaction mechanisms,
- The micro-robotics platform which integrates means of manipulation on microscopic scales and control interface with haptic feedback,
- The all-terrain robotics platform and its aerial, terrestrial or marine drones,
- The handling robotics platform, with single or double-armed handling devices covering a wide range of technologies.
Our 5 teams
Making a surgeon’s gesture safer and more precise, improving the mobility of a disabled patient, completing the limb of an amputee with a bionic prosthesis, these are the objectives of the researchers of the AGATHE team. Their approach: comanipulation, when the possibilities of the Human and the robot are combined in the realization of a gesture or a task.
Equipping robots with intelligence means, among other things, enabling them to learn to interact with their environment. As physical agents, they are confronted with problems similar to those faced by living beings. As a result, within the AMAC team, researchers from complementary disciplines collaborate: artificial intelligence and modeling of living things, including computational neuroscience. On the one hand, we allow robots to adapt, learn or evolve; on the other hand, we build and validate, thanks to the robot, theories explaining certain cognitive functions of living beings.
The objectives of the researchers of the IME team are to enable the manipulation of objects in digital, virtual, distant or microscopic worlds, to increase our perception of reality via visual or haptic stimuli, and to optimize multimodal interactions between a machine and the human. They produce interfaces, models and interaction scenarios for numerous applications, intended to enrich the vision of what the intelligent workshop of the future could be.
To be able to interact naturally with a human being, an avatar, whether physical or virtual, must integrate perception and communication skills that involve social interaction. The researchers of the PIRoS team are working on this with a focus on applications in the field of assistance for people with disabilities.
The main objective of the researchers of the SYROCO team is to equip high mobility robotic systems that will evolve in unfamiliar environments, with the capacity to adapt to these uncertainties. Their work is based on optimal mechanical design and automation, while integrating the numerical tools of simulation and artificial intelligence.