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Mohsen Asadnia - Artificial Intelligence and Data Science in Environmental Sensing

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Chapter 8: Tuning swarm behavior for environmental sensing tasks represented as coverage problems
Shadi Abpeikar, Kathryn Kasmarik, Phi Vu Tran, Matthew Garratt, Sreenatha Anavatti, and Md Mohiuddin Khan School of Engineering and Information Technology, University of New South Wales, Canberra, ACT, Australia
Abstract

In recent years, increases in industrial residue have become a significant environmental threat. These residues can cause problems for natural ecosystems and their inhabitants, including animals and humans. Environmental monitoring through sensing is one approach to predict or detect the presence of pollution from such residue. One of the emerging tools to do distributed sensing, and thus a novel approach to environmental sensing, is to use swarms of robots to carry sensors. Swarming robots are programmed to move like ants, birds, or other swarming or flocking organisms to distribute through and explore an environment. Swarm robots have advantages over other multiagent or single-agent systems because of their number and decentralized control strategies, which means they can carry multiple sensors and explore wide areas in a fault tolerant manner. However, there are challenges that remain before swarm robots can be applied productively in this scenario. This chapter addresses two of these challenges: (1) how swarming behavior can be achieved quickly on a given set of robots and (2) how the swarm can conduct environmental sensing. We present a novel system design that combines two algorithms: the first is a novel algorithm for autonomous tuning of swarm behavior and the second for conducting an environmental sensing task, represented as an area coverage problem. We show that the proposed system can tune the behavior of swarms, suitable for completing a coverage task more effectively than an untuned group of robots. We demonstrate the system in both point mass simulator and in simulated robots.

Keywords
Artificial intelligence; Bootstrapping swarm behavior; Coverage algorithms; Environmental sensing; Swarm robots
1. Introduction
In recent years, industrial residues in the environment have increased as the consequence of increasing industrial activities, their products, and consumers of these products [.
The remainder of this chapter is organized as follows. concludes the chapter and discusses some areas for future work.
2. Preliminaries
In this section fundamental methods for environmental sensing by swarm robots are discussed. To this end,
Comparison between reinforcement learning for swarm behavior automatic tuning (RL-SBAT) and the other related works.
Main goal of swarms for environmental sensingReferencesComparison to RL-SBAT
Navigation[]The proposed approach uses a general, organic behavior rather than a navigation, formation, or target search behavior.In addition, RL-SBAT has the ability to tune swarm behavior from a random behavior.
Formation control[]
Target search (source localization)[]
Leaderfollower[]In the proposed method all agents are equal (no leaders or followers).
Image collection for image processing[]The proposed approach focuses on feature-based sensing instead of image processing.
Bio-inspired swarms[]The proposed approach considers a diverse range of swarm behaviors.

21 Related work Environmental sensing aims to detect harmful changes in an - photo 1

2.1. Related work
Environmental sensing aims to detect harmful changes in an ecosystem [].
A multi-entity Bayesian network is used in Ref. [], in which a swarm of robots solves an optimal odor localization task.
Considering the ability and efficient performance of the mentioned related works, swarm robots can play a significant role in environmental sensing for industrial residue detection. The advantages of swarm robots in environmental sensing are as follows:
  1. Their autonomous movement reduces the need for human involvement in this task.
  2. The spatial and temporal changes of the environment can be better addressed by a swarm of robots than what can be done by human or other static sensors. This can be achieved by AI algorithms to optimize the environmental sensing, number of robots, and their distributed sensing.
  3. The sensing task can be done more accurately and with less energy consumption by the aid of coverage, mapping, and path planning solutions.
  4. Swarm robots can solve environmental sensing quickly, in cases where fast detection of contaminant resources is crucial.
In this chapter an RL approach is applied in a point-mass simulator to tune swarm behavior from random motions. The aim of swarm behavior is to keep robots in motion together in a way that they can communicate efficiently. However, the difficulty of making robots swarm lies in tuning parameters such as their vision angle, communication radius, and the weights of their preferences for different sub-behaviors. The work in this chapter addresses the question of how to tune robot behavior to achieve swarming. It further shows that such swarms can cover an environment more quickly than groups with untuned behavior. The RL method presented in this chapter is different from the works mentioned above, as it can automatically tune swarm behavior very quickly, when the best parameters of the system are initially unknown. The next section introduces the swarm model used in this chapter.
2.2. Reynolds' boid model
Swarm behavior refers to the way that schools of fish, herds of land animals, and flocks of birds move in nature. Inspired by these behaviors, Reynolds [] created one of the early computer models of swarming. This computer-based swarm is known as the boids (bird android) model, which works based on three simple rules. These rules are:
  • 1. Collision avoidance (repulsion): following this rule, each boid avoids collision with the other boids.
  • 2. Velocity matching (alignment): based on this rule, each boid should attempt to match its velocity with the other boids moving in its neighborhood.
  • 3. Flock centering (attraction): regarding this rule, the boids should attempt to move close to the other boids within their neighborhood.
Later extensions of the Reynolds' boid model were designed which could be applied in robots and unmanned aerial and ground vehicles. These extensions, called the Boid Guidance Algorithms (BGAs) []. The main limitations of these approaches are that BGAs need to be retuned for every new robotics platform to which they are applied. The work in this chapter provides a way to do the tuning automatically.
2.3. Reinforcement learning
RL is a sequence of decisions in a trial-and-error approach, which can learn to solve complex real problems over time [].
Artificial Intelligence and Data Science in Environmental Sensing - image 2 (8.1)
where Picture 3 is the reward signal of each step, and it is computed by
Picture 4 (8.2)
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