Hypermaps | Closing the complexity gap in robotic mapping

4-year research fellowship on multi-layer and semantic spatial representations for robotics

abstract

Environmental awareness is a crucial skill for robotic systems intended to autonomously navigate and interact with their surroundings.

Robots access knowledge about their environment through maps. However, currently we see a big “complexity gap” in robotic mapping: while in recent years advances in computer vision have given us the ability to perceive our surroundings like never before through object detection and people tracking, robots still rely on maps containing only enough information for them to be able to navigate, but insufficient for many other tasks required by advanced autonomy. For example, most maps do not host semantic or dynamic information about the environment, needed for any application where interaction with people or specific objects is required. Until this gap is bridged, mobile robots will not be able to operate autonomously in dynamic environments.

Hypermaps lays the groundwork for the next level of interaction between robots and their environment by closing the complexity gap. In this project, we propose to go beyond today’s multi-layer maps by a new formalism, called hypermaps, where spatio-temporal knowledge (e.g., occupancy, semantics through deep object recognition, people movement in the environment) is stored and processed through advanced artificial intelligence to offer the robot task-specific maps to complete its missions. The core hypothesis of the project is that such a formalism will leverage the interplay between different maps to extract even more information and allow deeper reasoning. Anomalies in one map will be detected and corrected by looking at its correlation with the other maps, and information not visible in any single map will be made visible when the information of the layers is combined.

Closing the complexity gap constitutes a fundamental step towards the development of general, fully autonomous robots, able to execute high-level tasks and interact with us and their environment.

conference articles

  1. IROS
    iros_1_24.jpg
    Bayesian Floor Field: Transferring people flow predictions across environments
    Francesco Verdoja, Tomasz Piotr Kucner, and Ville Kyrki
    In 2024 IEEE/RSJ Int. Conf. on Intelligent Robots and Systems (IROS), Oct 2024
    accepted

workshop articles

  1. ICRA
    icra_2_24.png
    Evaluating the quality of robotic visual-language maps
    Matti Pekkanen, Tsvetomila Mihaylova, Francesco Verdoja, and Ville Kyrki
    May 2024
    Presented at the “Vision-Language Models for Navigation and Manipulation (VLMNM)” workshop at the IEEE Int. Conf. on Robotics and Automation (ICRA)
  2. ICRA
    icra_4_24.jpg
    Using occupancy priors to generalize people flow predictions
    Francesco Verdoja, Tomasz Piotr Kucner, and Ville Kyrki
    May 2024
    Presented at the “Long-term Human Motion Prediction” workshop at the IEEE Int. Conf. on Robotics and Automation (ICRA)