
Smart Edge Computing
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Starting with operation research methodologies with foundations, applications and research challenges in edge computing and an overview of digital education, this book continues with an exploration of applications in the health sector using IoT, intelligent payment procedures and performance measurement of edge computing, using edge computing and operation research. Smart or AI-based applications are also explored further on and the book ends with insight into ultralightweight and security protocols with solutions for IoT using blockchain.
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Persons
Rajdeep Chakraborty is Associate Professor in Computer Science and Engineering at the University Institute of Engineering, Chandigarh University, India.
Anupam Ghosh is Professor of Computer Science and Engineering at Netaji Subhash Engineering College in Kolkata, India, and is Head of the same department.
Jyotsna Kumar Mandal is Professor of Computer Science and Engineering at the University of Kalyani, India.
Tanupriya Choudhury is Professor at Symbiosis Institute of Technology, Lavale Campus of Symbiosis International University in Pune, India.
Prasenjit Chatterjee is Professor of Mechanical Engineering and Dean (Research and Consultancy) at MCKV Institute of Engineering, India.
Content
Preface xiii
Rajdeep CHAKRABORTY
Acknowledgments xvii
Chapter 1 Introduction to Operations Research Methodologies 1
Trishit BANERJEE and Arup DASGUPTA
1.1 Introduction 1
1.2 Decision-making framework/models for operations research 3
1.3 Operations research in IoT, IIoT, edge and smart edge computing, sensor data 8
1.4 Paradigms and procedures 11
1.5 Conclusion 18
1.6 References 19
Chapter 2 Edge Computing: The Foundation, Emergence and Growing Applications 25
P.K PAUL
2.1 Introduction 25
2.2 Objective of the work 27
2.3 Methods adopted 27
2.4 Edge computing and edge cloud: basics 27
2.5 Edge computing and edge devices 29
2.6 Edge computing: working fashions, buying and deploying and 5G 29
2.7 Functions and features of edge computing 30
2.8 Edge computing: applications and examples 32
2.9 Drawbacks, obstacles and issues in edge computing 38
2.10 Edge computing, cloud computing and Internet of Things: some concerns 39
2.11 Future and emergence of edge computing 41
2.12 Conclusion 42
2.13 Acknowledgment 43
2.14 References 43
Chapter 3 Utilization of Edge Computing in Digital Education: A Conceptual Overview 47
Ritam CHATTERJEE
3.1 Introduction 47
3.2 Objectives 48
3.3 Methodology used 49
3.4 Digital education 49
3.5 Education and information science 49
3.6 Edge computing 51
3.7 Conclusion 61
3.8 Acknowledgment 61
3.9 References 61
Chapter 4 Edge Computing with Operations Research Using IoT Devices in Healthcare: Concepts, Tools, Techniques and Use Cases 65
Shalini RAMANATHAN, Mohan RAMASUNDARAM, Tauheed KHAN MOHD and Anabel PINEDA-BRISENO
4.1 Overview 66
4.2 The smartness of edge across artificial intelligence with the IoT 68
4.3 Promising approaches in edge healthcare system 74
4.4 Impact of smartphones on edge computing 77
4.5 Tools, techniques and use cases 84
4.6 Significant forthcomings of edge healthcare IoT 89
4.7 Software and hardware companies developing healthcare tools 90
4.8 Summary 90
4.9 References 91
Chapter 5 Performance Measures in Edge Computing Using the Queuing Model 97
Shillpi MISHRRA
5.1 Introduction 97
5.2 Methodology 100
5.3 Conclusion 109
5.4 Future scope 109
5.5 References 109
Chapter 6 A Smart Payment Transaction Procedure by Smart Edge Computing 113
Animesh UPADHYAYA, Koushik MUKHOPADHYAY, Amejul ISLAM, Shaon Kalyan MODAK and Debdutta PAL
6.1 Introduction 113
6.2 Related works 115
6.3 Ethereum 116
6.4 Ethereum's components 118
6.5 General-purpose blockchains to decentralized applications (DApps) 120
6.6 Ether currency units 121
6.7 Ethereum wallet 121
6.8 A simple contract: a test Ether faucet 123
6.9 Ethereum clients 125
6.10 Conclusion 129
6.11 References 129
Chapter 7 Statistical Learning Approach for the Detection of Abnormalities in Cancer Cells for Finding Indication of Metastasis 133
Soumen SANTRA, Dipankar MAJUMDAR and Surajit MANDAL
7.1 Introduction 133
7.2 Edge computation: a new era 137
7.3 Impact of edge computation in cancer treatment 138
7.4 Assessment parameters operational methodologies 139
7.5 Shape descriptor analysis: statistical approach 141
7.6 Results and discussion 141
7.7 Conclusion 145
7.8 References 146
Chapter 8 Overcoming the Stigma of Alzheimer's Disease by Means of Natural Language Processing as well as Blockchain Technologies 149
Kaveri BANERJEE, Priyanka BHATTACHARYA, Sandip ROY and Rajesh BOSE
8.1 Introduction 150
8.2 Alzheimer's disease 152
8.3 Alzheimer's disease types 153
8.4 NLP in chat-bots/AI companions 155
8.5 Proposed methodologies for reduction of stigma 158
8.6 Blockchain technology for securing all medical data 160
8.7 Conclusion 170
8.8 Future scope 170
8.9 Acknowledgments 171
8.10 References 171
Chapter 9 Computer Vision-based Edge Computing System to Detect Health Informatics for Oral Pre-Cancer 175
Animesh UPADHYAYA, Vertika RAI, Surajit BOSE, Dipankar BHATTACHARYA and Jayanta CHATTOPADHYAY
9.1 Introduction 175
9.2 Related works 177
9.3 Materials and methods 177
9.4 Results 183
9.5 Conclusion 185
9.6 References 186
Chapter 10 A Study of Ultra-lightweight Ciphers and Security Protocol for Edge Computing 189
Debasmita PAUL, Aheli ACHARYA and Debajyoti GUHA
10.1 Introduction 189
10.2 Ultra-lightweight ciphers 192
10.3 Ultra-lightweight security protocols 203
10.3.4 Comparison between LEAP, MIFARE and RFB protocols 210
10.4 Conclusion 211
10.5 References 213
Chapter 11 A Study on Security Protocols, Threats and Probable Solutions for Internet of Things Using Blockchain 215
Debajyoti GUHA
11.1 Introduction 216
11.2 IoT architecture and security challenges 217
11.3 Security threat classifications 218
11.4 Security solutions for IoT 221
11.5 Blockchain-based IoT paradigm: security and privacy issues 224
11.6 IoT Messaging Protocols 226
11.7 Advantages of edge computing 230
11.8 Conclusion 231
11.9 References 231
List of Authors 237
Index 241
1
Introduction to Operations Research Methodologies
The domain of operational research involves various techniques applied for complex problemsolving and arriving at decisions. Operations research methodologies are applied by organizations to solve real-life problems, as they assist in managing all operations efficiently. Hence, operations research has emerged as a scientific method for problem-solving by engaging quantitative information for enhanced decision-making methodologies of operations research including probability, statistics, simulation and optimization. This study provides an introduction to the use of methods from operations research in scientific decision-making, design, analysis and management. It also includes a guide to using these approaches. The objective of this project was to produce a text that is both comprehensible and practical. An in-depth investigation into the mathematical models and the tried-and-true and cutting-edge approaches to problem-solving that lie at the foundation of today's software tools for quantitative research and deliberation has yielded insights that are both theoretically sound and practically applicable. While probability and statistics enable us to arrive at predictable solutions applicable in risk scenarios by applying mathematical algorithms, simulation allows the construction of models for solution testing before applying them. Optimization allows us to achieve optimum results within a given condition. Arriving at suitable solutions using operations research follows several steps by way of problem identification, construction of the mathematical model, deriving solutions from the model constructed, testing of the model, establishing control over solutions and finally arriving at the solution to implement them. The scope of this chapter will explore all such methodologies in detail and evaluate concepts that can be reliably applied in cases of smart edge computing.
1.1. Introduction
The use of quantitative techniques for the purpose of assisting analysts and decision-makers in the process of creating, assessing and improving the performance or operation of various types of systems is what is known as "operations research". It does not matter whether the systems studied are monetary, scientific or industrial in nature; all of them can be examined within the rigorous framework of the scientific method (Gupta et al. 2021). When used logically, the analytical techniques from many different disciplines that make up operations research can aid decision-makers in problem-solving and maintaining optimal control over the workings of systems and organizations. If a system is poorly defined or understood, operations researchers can use their methods to better understand its behavior and, perhaps more importantly, identify which parts are within their control. Quantitative decision problems, especially those involving the management of scarce resources, are the primary focus of operations research, an applied discipline that focuses on optimization. Industrial companies, banks, hospitals, transit systems, power plants and governments all face such challenges in their daily operations. Operations research analysts create and use mathematical and statistical models to help analyze and solve complex decision-making problems. They are problem formulators and solvers, just like engineers. Mathematical modeling, analysis and prediction of outcomes under many scenarios are central to their work. Techniques for mathematical optimization, probability and statistical approaches, experimentation and computational modeling can be used in the investigation.
Furthermore, systems whose behavior is already well known can be optimized with the use of operations research techniques. After all, the purpose of using mathematical, computational, and analytical tools and devices is to simply provide information and insight; ultimately, it is the human decision-makers who will use and implement what has been learned through the analysis process in order to achieve the best possible performance of the system (Conboy et al. 2020). The management of businesses can benefit from the use of the analytical approach known as operations research (OR), which is used to solve problems and make decisions. In the field of operations research, issues are first deconstructed into components before being addressed using mathematical analysis in predetermined processes. The procedure of operations research can often be summarized as follows:
- determine the nature of the issue that requires resolution;
- develop a model for the issue at hand that is reflective of the external factors and the world as a whole (Thies et al. 2019);
- apply the model to provide potential solutions for the issue;
- conduct tests of each solution on the model and evaluate how well it works (Kraus et al. 2020);
- put the solution to use so that it can address the real problem.
During World War II, many military strategists came up with the idea that would later become known as operations research. After the war, the methodologies that were developed via their operations research were used to find solutions to issues that arose in the realms of industry, the government and society (Hubbs et al. 2020). In the years leading up to World War II, operations research developed into a distinct academic field. During the 1930s, the primary focus of the expansion of the British military was on the creation of new weapons, gadgets and other forms of support equipment. However, the build-up was of unprecedented magnitude, and it became clear that there was also an urgent need to develop systems that would ensure the most advantageous deployment and management of materials and manpower.
Gonçalves et al. (2020; Hsu et al. 2020) state that the goal of operations research is to optimize system performance such that it functions at its highest level possible given the constraints of the problem. Comparison and elimination of potentially useful solutions are also part of the optimization process. Compared to traditional software and data analytics tools, a better way to make decisions is provided by the field of operations research. Businesses can benefit from enlisting the help of operations research experts when it comes to collecting more comprehensive datasets, weighing all their options, making more accurate predictions and estimating their level of risk.
This chapter is organized into four areas, beginning with an introduction to the areas of operations research in the modern field of computing. Second, the application of operations research in the IIoT (Industrial Internet of Things), smart edge computing and sensor data is discussed. Subsequently, paradigms and procedures are represented. Finally, the chapter concludes with a summary of the applications of operations research.
1.2. Decision-making framework/models for operations research
Operations research is a science that focuses on problem-solving as well as decision-making, and it is widely regarded as a valuable tool for assisting in the resolution of management issues. Making decisions that have a significant impact on many people may be quite challenging. A decision-maker must carefully consider their options after considering several factors that interact with one another (Pokrovsky 2009). Making a choice is sometimes referred to as a cognitive process. This word is used in cognitive psychology to describe the action of thinking and relates to the processing of information. Each decision that is made ultimately leads to a real consequence, which can take the form of a choice or an action. Decision-making begins with the definition of a problem and concludes with the evaluation of the efficiency of the proposed solutions, whether they are concrete or alternative (Huang et al. 2022).
According to scholars, operations research is closely related to both computer science and analytics due to the computational and statistical aspects that are prevalent in most of both subjects (Bozanic et al. 2020). Researchers in operational research who are presented with a new challenge have the responsibility of determining which of these methods is the most applicable, given the characteristics of the system, the objectives for its development and the limitations of both time and processing capacity. The issue of decision-making is of significant practical importance in a wide variety of domains involving human actions. Probabilistic techniques form the basis for most of the decision-making methods that are currently in use, since it is common to have some uncertainty in the parameters of a real-life system. It is possible that our lack of assurance may be communicated via one of these other forms (Pereira et al. 2020).
Erdogan et al. (2019) claimed that OR is the only option for decision-making (DM), it delivers the facts to managers and allows managers to make correct choices; the problems found were broken down into their fundamental components in order to solve the difficulties. It is also known as a programming approach or applied decision-making, and decision-makers use it as a model-building tool. Researchers put it in a nutshell that OR models eventually became the primary driving factor for the operation of computer tools. According to Liao et al. (2022), the processes of knowledge management include three primary activities: generation, transfer and storage of information. They went into technical detail on how operational research is an applied decision-making theory that involves...
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