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Mobility Strategies for Swarms of Unmanned Aerial Vehicles using Artificial Potential Fields and Global Path Planning

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HAL Id: hal-01828732

https://hal.archives-ouvertes.fr/hal-01828732

Submitted on 3 Jul 2018

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Mobility Strategies for Swarms of Unmanned Aerial Vehicles using Artificial Potential Fields and Global

Path Planning

Ema Falomir, Serge Chaumette, Gilles Guerrini

To cite this version:

Ema Falomir, Serge Chaumette, Gilles Guerrini. Mobility Strategies for Swarms of Unmanned Aerial Vehicles using Artificial Potential Fields and Global Path Planning . Séminaire des doctorants, Société Informatique de France, Jun 2018, Paris, France. �hal-01828732�

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Mobility Strategies for Swarms of Unmanned Aerial Vehicles using Artificial Potential Fields and Global Path Planning

Ema Falomir, Serge Chaumette, Gilles Guerrini

Motion Decision Mission

Each UAV has a mission

represented by its own objective map, evolving all along the mission.

The UAVs collaborate to create a shared constraints map, updated all along the mission.

Surveillance Detection

Reconnaissance Identification Tracking

Evolving & Local Objective Common Constraints

Collision Avoidance Embedded Sensors Parameters

Information Sharing UAVs Kinematics Mission: detect suspicious events and

Suspiscious Behaviour Detection

‐ Without human intervention

‐ In unknown areas

‐ Quickly

Resilient

Considered as a unique entity Quick intervention

Precision due to low altitude

Single drone Swarm vs.

Context

Some uses of swarms of UAVs

‐ Firemen Assistance

‐ Pesticides Spraying

‐ Park Cleaning

‐ Area Surveillance

‐ Search And Rescue

Some path planning methods

Artificial Potential Fields

‐ Virtual Forces

‐ Genetic Algorithms

‐ Chaotic Processes

‐ Particle Swarm Optimization

Related Work

Principle of Our Mobility Strategy

Contact Information

Ema Falomir

efalomir@u-bordeaux.fr

Pr. Serge Chaumette, Director

schaumette@labri.fr

Dr. Gilles Guerrini, industrial coordinator

gilles.guerrini@fr.thalesgroup.com

Publication & Patent

E. Falomir, S. Chaumette and G. Guerrini. Mobility Strategies based on Virtual Forces for Swarms of Autonomous UAVs in Constrained Environments.

14th International Conference on Informatics in Control, Automation and Robotics, July 2017.

E. Falomir, G. Guerrini, P. Garrec, Essaim constitué d'une pluralité de drones volants légers.

Trajectories of 3 UAVs composing a swarm in an unknown environment.

Cell width: 8m

Cell width: 2m

Some Illustrative Results Objectives

Principle of Artificial Potential Fields (APF) from the perspective of each UAV

A UAV has to reach a target while avoiding the obstacle.

Calculation of the APF related to the target and to the obstacle.

Deduction of the path.

Our Approach

‐ The environment is discretized into square cells.

‐ The UAVs trajectories depend on the cells width.

‐ Addition of a potential field for the obstacle avoidance anticipation to the repulsive field around the obstacles (see figure below).

‐ Calculation of a global path for several iterations.

‐ Speed proportional to distance of next waypoint.

Objectives Whole project

Allow autonomous Unmanned Aerial Vehicles (UAVs) to quickly perform collaborative tasks, such as wide area surveillance. The UAVs communicate between each other and have similar characteristics:

they make a swarm. They are considered as a unique entity as seen by an operator permitting to decrease workload of the operator.

PhD goal

Develop & validate a distributed mobility model for a swarm of autonomous UAVs which takes into account the embedded sensors capacities to allow the realization of a mission.

Artificial potential field resulting from our proposal, showing an anticipation of collision avoidance.

UAV

Target Obstacles Avoidance anticipation area

‐ The UAV moves within an APF and goes towards the lowest potential.

‐ The APF is a combination of an attraction towards a target and a repulsion from obstacles.

Lowest potential Highest potential

Unknown area

Known area

Estimated path Waypoints

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