Abstract

A significant increase in System-of-Systems (SoS) is currently observed in the social and technical domains. As a result of the increasing number of constituent system components, Systems of Systems are becoming larger and more complex. Recent research efforts have highlighted the importance of identifying innovative statistical and theoretical approaches for analyzing complex systems to better understand how they work. This paper portrays the use of an agnostic two-stage examination structure for complex systems aimed towards developing an information theory-based approach to analyze complex technical and socio-technical systems. Towards the goal of characterizing system complexity with information entropy, work was carried out in exploring the potential application of entropy to a simulated case study to illustrate its applicability and to establish the use of information theory within the broad horizon of complex systems. Although previous efforts have been made to use entropy for understanding complexity, this paper provides a basic foundation for identifying a framework to characterize complexity, in order to analyze and assess complex systems in different operational domains.

Highlights

  • Complex systems are referred to as systems that are composed of many independent system elements playing a key role in the whole system’s behavior

  • The simulated case study considered in this paper considers complex networks

  • To examine the use the information theoretic approach, we mapped the similarity of a complex network to a general communication channel

Read more

Summary

Introduction

Complex systems are referred to as systems that are composed of many independent system elements playing a key role in the whole system’s behavior. As an attempt to contribute to the scientific body of knowledge that addresses understanding systems complexity, this paper illustrates a framework to characterize complex systems based on the concept of Information Entropy, using a two-stage examination method. The novelty of the proposed approach lies in establishing a translatable framework across complex system domains to use information entropy This includes incorporating a well-established and validated statistical foundation that shall be able to assess the relationships between sub-systems/components of a complex system, provide information to understand a system, assess and identify the interaction patterns of components/subsystems in a system, and be able to differentiate between the input and output information of a system.

Agnostic Two-Stage Examination Structure for Complex Systems
Understanding Entropy—An Overview
Complex Networks—An Overview and Definition
Entropy to Understand Interaction Dynamics
Simulation Models Used to Apply the Metrics
Preferential Attachment Networks
Small World Networks
Discussion and Conclusions
Full Text
Published version (Free)

Talk to us

Join us for a 30 min session where you can share your feedback and ask us any queries you have

Schedule a call