Studies of Computational Intelligence Based on the Behaviour of Cockroaches

Studies of Computational Intelligence Based on the Behaviour of Cockroaches

Amartya Neogi (Dr. B. C. Roy Engineering College, India)
Copyright: © 2015 |Pages: 48
DOI: 10.4018/978-1-4666-8291-7.ch004
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Abstract

In this chapter, the author expands the notion of computational intelligence using the behavior of cockroaches. An introduction to cockroach as swarm intelligence emerging research area and literature review of its growing concept is explained in the beginning. The chapter also covers the ideas of hybrid cockroach optimization system. Next, the author studies the applicability of cockroach swarm optimization. Thereafter, the author presents the details of theoretical algorithm and an experimental result of integration of robot to some cockroaches to make collective decisions. Then, the author proposes his algorithm for traversing the shortest distance of city warehouses. Then, a few comparative statistical results of the progress of the present work on cockroach intelligence are shown. Finally, conclusive remarks are given. At last, the author hopes that even researchers with little experience in swarm intelligence will be enabled to apply the proposed algorithm in their own application areas.
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1. Introduction

Swarm intelligence (SI) as an emerging research area, has attracted many researchers’ attention since the concept was proposed in 1980s. It has now become an interdisciplinary frontier and focus of many disciplines including artificial intelligence, economics, sociology, biology, etc. It has been observed a long time ago that some species survive in the cruel nature taking the advantage of the power of swarms, rather than the wisdom of individuals. The individuals in such swarm are not highly intelligent, yet they complete the complex tasks through cooperation and division of labour and show high intelligence as a whole swarm which is highly self-organized and self-adaptive.

The growing complication of real life problems has encouraged computer scientists to investigate for proficient problem-solving techniques. The behavior of ants, termites, bird’s fishes, bees slime, moulds, and other creatures have enthused swarm intelligence investigators to create new optimization algorithms. Decentralized control and self-organization for those creatures are extraordinary features of swarm-based systems. Such decentralized consensus building behaviors are observed in a variety of social organisms, including ants (Pratt et al. 2002), honeybees (Britton et al., 2002) and cockroaches (Ame et al. 2006) and have inspired much research on the development of self-organized task allocation strategies for multi-robot systems.

During the past decade, a number of new computational intelligence (CI) algorithms have been proposed. Unfortunately, they spread in a number of unrelated publishing directions which may hamper the use of such published resources. Those provide the author with motivation to analyze the existing research for categorizing and synthesizing it in a meaningful manner. The mission of this chapter is really important since those algorithms are going to be a new revolution in computer science. The author hopes that it will stimulate the readers to make novel contributions or to even start a new paradigm based on nature phenomena.

Swarm intelligence is a soft bionic of the nature swarms, i.e. it simulates the social structures and interactions of the swarm rather than the structure of an individual in traditional artificial intelligence. The individuals can be regarded as agents with simple and single abilities. Some of them have the ability to evolve themselves when dealing with certain problems to make better compatibility (Wang et al. 2005). A swarm intelligence system usually consists of a group of simple individuals autonomously controlled by a plain set of rules and local interactions. These individuals are not necessarily unwise, but are relatively simple compared to the global intelligence achieved through the system. Some intelligent behaviors never observed in a single individual will soon emerge when several individuals begin cooperate or compete. The swarm can complete the tasks that a complex individual can do while having high robustness and flexibility and low cost. Swarm intelligence takes the full advantage of the swarm without the need of centralized control and global model, and provides a great solution for large-scale sophisticated problems.

The idea computational intelligence may come from observing the behavior of creatures. Ant colony Optimization (ACO) was presented by studying the behavior of ants, and Particle Swarm Optimization (PSO) was presented by of examining the movements of flocking gulls. Through inspecting the behavior of the cockroach, Cockroach Swarm Optimization (CSO) is proposed in this chapter. Cockroach optimization is a new development under SI paradigm; cockroach optimization algorithms are inspired by collective cockroach social behavior. The artificial structure can be viewed as the model for modeling the common behavior of cockroaches. CSO somehow belongs to the swarm intelligence.

Key Terms in this Chapter

Dispersing Behavior: A biological dispersal refers to both the movement of individuals (animals, plants: fungi, bacteria, etc.) from their birth site to their breeding site, as well as the movement from one breeding site to another. Dispersal is also used to describe the movement of propagules such as seeds and spores.

Traveling Salesman Problem: Given a list of cities and the distances between each pair of cities, what is the shortest possible route that visits each city exactly once and returns to the origin city? It is an NP-hard problem in combinatorial optimization, important in operations research and theoretical computer science. The TSP has several applications even in its purest formulation, such as planning, logistics, and the manufacture of microchips. Slightly modified, it appears as a sub-problem in many areas, such as DNA sequencing. In these applications, the concept city represents, for example, customers, soldering points, or DNA fragments, and the concept distance represents travelling times or cost, or a similarity measure between DNA fragments. In many applications, additional constraints such as limited resources or time windows may be imposed.

Hybrid Cockroach System: Used to study the neuromechanical control architecture in running cockroaches and improve the performance of legged robots using fuzzy logic, evolutionary algorithm etc.

Hunger Behavior: Hunger is a sensation experienced when one feels the physiological need to eat food. In contrast, satiety is the absence of hunger; it is the sensation of feeling full. Appetite is another sensation experienced with eating; it is the desire to eat food. There are several theories about how the feeling of hunger arises.

Swarm Intelligence: Swarm intelligence (SI) is the collective behavior of decentralized, self-organized systems, natural or artificial. The concept is employed in work on artificial intelligence. The expression was introduced by Gerardo Beni and Jing Wang in 1989, in the context of cellular robotic systems. Examples in natural systems of SI include ant colonies, bird flocking, animal herding, bacterial growth and fish schooling. It is based on the collective behavior of decentralized, self-organized systems.

Cockroach Swarm Optimization: It is an optimization algorithm inspired by the behaviors of cockroach swarm foraging. CSO is constructed mainly through imitating the chase-swarming behavior of cockroach individuals, to search the global optimum.

Shortest Distance City Warehouse: Approximation Algorithms for the k-center Problem: An experimental/ informally, given a set of cities, with intercity distances specified, one has to pick k cities ... so as to minimize the maximum distance of any city from its closest warehouse.

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