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Collective perception for tracking people with a robot swarm

Miquel Kegeleirs, David Garzón Ramos, Guillermo Legarda Herranz, Ilyes Gharbi, Jeanne Szpirer, Olivier Debeir, Ken Hasselmann, Lorenzo Garattoni, Gianpiero Francesca, Mauro Birattari

TL;DR

A preliminary experiment on the collective tracking of people using a robot swarm is presented, showing significant promise in monitoring dynamic environments.

Abstract

Swarm perception refers to the ability of a robot swarm to utilize the perception capabilities of each individual robot, forming a collective understanding of the environment. Their distributed nature enables robot swarms to continuously monitor dynamic environments by maintaining a constant presence throughout the space.In this study, we present a preliminary experiment on the collective tracking of people using a robot swarm. The experiment was conducted in simulation across four different office environments, with swarms of varying sizes. The robots were provided with images sampled from a dataset of real-world office environment pictures.We measured the time distribution required for a robot to detect a person changing location and to propagate this information to increasing fractions of the swarm. The results indicate that robot swarms show significant promise in monitoring dynamic environments.

Collective perception for tracking people with a robot swarm

TL;DR

A preliminary experiment on the collective tracking of people using a robot swarm is presented, showing significant promise in monitoring dynamic environments.

Abstract

Swarm perception refers to the ability of a robot swarm to utilize the perception capabilities of each individual robot, forming a collective understanding of the environment. Their distributed nature enables robot swarms to continuously monitor dynamic environments by maintaining a constant presence throughout the space.In this study, we present a preliminary experiment on the collective tracking of people using a robot swarm. The experiment was conducted in simulation across four different office environments, with swarms of varying sizes. The robots were provided with images sampled from a dataset of real-world office environment pictures.We measured the time distribution required for a robot to detect a person changing location and to propagate this information to increasing fractions of the swarm. The results indicate that robot swarms show significant promise in monitoring dynamic environments.

Paper Structure

This paper contains 2 sections, 2 figures.

Table of Contents

  1. INTRODUCTION
  2. EXPERIMENTS

Figures (2)

  • Figure 1: Simulated environments with a 12.0-robot swarm.
  • Figure 2: Empirical cumulative distribution of the time required to a) detect an event, and propagate it to b) 25% of the swarm, c) 50% of the swarm, and d) 75% of the swarm, for the three different swarm sizes.