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Produktbild: Distributed Time-Sensitive Systems

Distributed Time-Sensitive Systems

205,99 €

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Beschreibung

Produktdetails

Einband

Gebundene Ausgabe

Erscheinungsdatum

03.06.2025

Herausgeber

Tanupriya Choudhury + weitere

Verlag

Wiley

Seitenzahl

400

Gewicht

680 g

Sprache

Englisch

ISBN

978-1-394-19772-9

Beschreibung

Produktdetails

Einband

Gebundene Ausgabe

Erscheinungsdatum

03.06.2025

Herausgeber

Verlag

Wiley

Seitenzahl

400

Gewicht

680 g

Sprache

Englisch

ISBN

978-1-394-19772-9

Herstelleradresse

Libri GmbH
Europaallee 1
36244 Bad Hersfeld
DE

Email: GPSR Kontakt

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  • Produktbild: Distributed Time-Sensitive Systems
  • Preface xix

    Acknowledgement xxiii

    1 Analytical Survey of AI Data Analysis Techniques 1
    Divyansh Singhal, Roohi Sille, Tanupriya Choudhury, Thinagaran Perumal and Ashutosh Sharma

    1.1 Introduction 2

    1.2 Survey on Various AI Techniques in Multiple Data Inputs 2

    1.2.1 AI Techniques in E-Commerce 2

    1.2.1.1 Benefits of Using AI in Ecommerce Companies 4

    1.2.1.2 AI Use Cases in E-Commerce 5

    1.2.2 AI Techniques in Healthcare 10

    1.2.2.1 Machine Learning 11

    1.2.2.2 Natural Language Processing (NLP) 13

    1.2.2.3 Rule Based Expert Systems 14

    1.2.2.4 Physical Robots 14

    1.2.2.5 Robotic Process Automation 15

    1.2.2.6 Administrative Applications 15

    1.2.2.7 AR/VR 16

    1.2.2.8 Ways on How AI Will Create an Impact in Healthcare Industry 18

    1.3 Conclusion 20

    References 22

    2 Heart Rate Prediction Analysis Using ML and DL: A Review of Existing Models and Future Directions 25
    Rimjhim Gupta, Roohi Sille and Tanupriya Choudhury

    2.1 Introduction 26

    2.2 Literature Review 28

    2.2.1 ARIMA (Auto Regressive Integrated Moving Average) 29

    2.2.2 Linear Regression 29

    2.2.3 KNN (K-Nearest Neighbor) 29

    2.2.4 Decision Tree 30

    2.2.5 Random Forest 31

    2.2.6 Support Vector Regression 31

    2.2.7 Support Vector Machine 32

    2.2.8 Long Short-Term Memory Network Model 32

    2.2.9 Extreme Gradient Boosting (XGBoost) 33

    2.3 Applications of Machine Learning (ML) and Deep Learning (DL) Model 35

    2.4 Conclusions and Future Perspective 36

    References 37

    3 Implementation of High Speed Adders for Image Blending Applications 43
    P. Vanjipriya, K. N. Vijeyakumar, E. Udayakumar and S. Vishnushree

    3.1 Introduction 43

    3.2 Area and Delay Analysis of Addition Algorithm 45

    3.2.1 Carry Select Addition 45

    3.2.2 Carry Lookahead Addition 45

    3.2.3 Kogge Stone Addition 46

    3.3 Design of High Speed Adder 48

    3.3.1 Carry Select Adder 49

    3.3.2 Carry Lookahead Adder 49

    3.3.3 Kogge Stone Adder 51

    3.4 Results and Discussion 53

    3.4.1 ASIC Implementation Results 53

    3.5 FPGA Implementation in Digital Image Processing 58

    3.5.1 Image Blending 58

    3.6 Conclusion 61

    References 61

    4 Smart Factories and Energy Efficiency in Industry 4.0 63
    S.C. Vetrivel, T.P. Saravanan and R. Maheswari

    4.1 Introduction 64

    4.1.1 Background of Industry [4.0] and Its Impact on Manufacturing 64

    4.1.2 Importance of Energy Efficiency in Smart Factories 65

    4.1.3 Objectives and Scope of the Paper 66

    4.1.3.1 Objectives 66

    4.1.3.2 Scope 66

    4.2 Industry 4.0: Concepts and Technologies 67

    4.2.1 Overview of Industry 4.0 and its Key Principles 67

    4.2.2 Smart Factories and their Role in Industry 4.0 69

    4.2.3 Technologies Enabling Smart Factories (e.g., IoT, Bigdata, AI) 69

    4.3 Energy Efficiency in Manufacturing 71

    4.3.1 Significance of Energy Efficiency in the Manufacturing Sector 71

    4.3.2 Opportunities and Obstacles to Enhancing Energy Efficiency 73

    4.3.3 Benefits of Energy-Efficient Practices in Smart Factories 75

    4.4 Integration of Energy Management Systems in Smart Factories 76

    4.4.1 Introduction to Energy Management Systems (EMS) 76

    4.4.1.1 Key Components of an Energy Management System 77

    4.4.1.2 Benefits of Energy Management Systems 77

    4.4.2 Role of EMS in Achieving Energy Efficiency in Smart Factories 78

    4.4.3 Key Components and Functionalities of EMS in Industry 4.0 80

    4.5 Energy Monitoring and Optimization in Smart Factories 82

    4.5.1 Importance of Real-Time Energy Monitoring in Smart Factories 82

    4.5.2 Sensor Technologies and Data Collection for Energy Monitoring 82

    4.5.3 Optimization Techniques for Energy Consumption in Manufacturing Processes 83

    4.6 Intelligent Control Systems for Energy Efficiency 85

    4.6.1 Application of AI & AL in Energy Management 85

    4.6.2 Intelligent Control Systems for Optimizing Energy Usage 86

    4.6.3 Case Studies Showcasing the Effectiveness of Intelligent Control Systems 87

    4.7 Energy Storage and Renewable Energy Integration 88

    4.7.1 Utilization of Energy Storage Systems in Smart Factories 88

    4.7.2 Integration of Renewable Energy Sources in Manufacturing Processes 88

    4.7.3 Benefits and Challenges of Incorporating Energy Storage and Renewable 89

    4.7.3.1 Benefits of Incorporating Energy Storage and Renewables 89

    4.7.3.2 Challenges of Incorporating Energy Storage and Renewables 90

    4.8 Smart Grid Integration and Demand Response 91

    4.8.1 Smart Grids' Contribution to Smart Industries' Increased Energy Efficiency 91

    4.8.2 Demand Response Strategies for Managing Energy Consumption 93

    4.8.3 Synergies Between Smart Factories and Smart Grids 94

    4.9 Case Studies and Best Practices 95

    4.9.1 Case Studies Highlighting Successful Implementation of Energy Efficiency Measures in Smart Factories 95

    4.9.2 Best Practices for Achieving Energy Efficiency in Industry 4.0 in Indian Scenario 96

    4.10 Challenges and Future Directions 98

    4.10.1 Challenges and Barriers to Implementing Energy Efficiency in Smart Factories 98

    4.10.2 Emerging Trends and Future Directions in Smart Factories and Energy Efficiency 99

    4.10.3 Policy Implications and Recommendations for Industry Stakeholders 100

    4.11 Conclusion 101

    References 102

    5 AI in Computer Vision with Emerging Techniques and Their Scope 105
    Pawan K. Mishra, Shalini Verma, Jagdish C. Patni and Rajat Dubey

    5.1 Brief Introduction of Computer Vision 106

    5.1.1 Define Computer Vision 106

    5.1.2 A Brief History 106

    5.1.3 Chapter Overview 107

    5.2 A Pictorial Summary of Image Formation 108

    5.2.1 Image Formation 108

    5.2.2 Geometric Primitives and Transformations 111

    5.2.3 Photometric Image Formation 114

    5.2.4 The Digital Camera 114

    5.3 Sampling and Aliasing 115

    5.3.1 Sampling of Pitch 116

    5.3.2 Fill Factor 116

    5.4 Feature Detection 116

    5.4.1 Points and Patches of the Image 118

    5.5 Image Segmentation 119

    5.5.1 Active Contour Level Sets 120

    5.6 Computational Photography 122

    5.6.1 Radiometric Response Function Value 122

    5.6.2 Vignetting of the View 124

    5.6.3 Optical Blur (Spatial Response) Estimation 124

    5.7 Recognition 125

    5.7.1 High Dynamic Range Imaging 126

    5.7.1.1 Tone Mapping 126

    5.7.1.2 Super-Resolution and Blur Removal 126

    5.7.2 Face Detection 127

    5.8 Visual Tracking of the Object 128

    5.9 Conclusion 129

    References 130

    6 Revolutionizing Car Manufacturing the Power of Intelligent Robotic Process Automation 133
    Amit K. Nerurkar and G. T. Thampi

    6.1 Introduction 134

    6.1.1 Differences Between RPA vs IPA? 135

    6.1.2 AI Enabled Robots 135

    6.1.3 Artificially Intelligent Robots 135

    6.1.4 Ethical Issues Involved in Integration of AI Technologies and Robotics in Assembly Line 136

    6.1.5 Current State of Car Manufacturing in India 137

    6.2 Literature Survey 139

    6.3 Exploratory Analysis 143

    6.4 The Manufacturing Process in India 146

    6.5 Degree of Integration for Using Robotic Process Automation Automotive Sector 147

    6.6 Complexities and Solution to Integrate AI in Current RPA 148

    6.7 What Next in Indian Car Manufacturing? 150

    6.8 Conclusion 150

    References 151

    7 Industry 5.0 and Artificial Intelligence: A Match Made in Technology Heaven? Unleashing the Potential of Artificial Intelligence in Industry 5.0 153
    Bhanu Priya, Vivek Sharma and Rahul Sharma

    7.1 Introduction 154

    7.2 Review of Literature 155

    7.2.1 Background of Industry 5.0 155

    7.2.2 Definition of Industry 5.0 157

    7.2.3 Artificial Intelligence and Industry 5.0 158

    7.3 Research Model of How AI Works in Industry 5.0 159

    7.3.1 Artificial Intelligence Tools 159

    7.3.1.1 Machine Learning 160

    7.3.1.2 Robotics 162

    7.3.1.3 Conversational Interfaces 164

    7.3.1.4 Intelligent Agents 165

    7.3.1.5 Edge Computing 167

    7.3.2 Integration of AI with Other Advanced Technologies 169

    7.3.2.1 Digital Twins 169

    7.3.2.2 6G Technology 169

    7.3.2.3 Explainable Artificial Intelligence 170

    7.3.2.4 Blockchain 171

    7.3.2.5 Security Cover by AI 172

    7.4 Smart Factories and Manufacturing Processes 173

    7.4.1 Predictive Maintenance, Quality, and Supply Chain Synergy 174

    7.4.1.1 Predictive Maintenance 174

    7.4.1.2 Quality Control and Defect Detection 175

    7.4.1.3 Supply Chain Optimization 176

    7.4.2 Industrial Internet of Things (IIoT) and Data Analytics 176

    7.4.2.1 Real-Time Monitoring and Analysis 177

    7.4.2.2 Predictive Modeling and Forecasting 177

    7.4.2.3 Asset Tracking and Management 178

    7.4.3 Robotics and Automation 178

    7.4.3.1 Collaborative Robots (Cobots) 178

    7.4.3.2 Autonomous Vehicles and Drones 179

    7.4.3.3 Human-Robot Collaboration 180

    7.5 Outcomes of AI in Industry 5.0 181

    7.5.1 Sustainability 181

    7.5.1.1 Environmental Sustainability 182

    7.5.1.2 Society 5.0 183

    7.5.2 Resilience and IR 5 187

    7.5.3 New Business Models 188

    7.6 Challenges of Industry 5.0 189

    7.7 Conclusion 190

    References 191

    8 A VLSI-Based Multi-Level ECG Compression Scheme with RL and VL Encoding 203
    P. Balasubramani, S. Swathi Krishna and E. Udayakumar

    8.1 Introduction 204

    8.2 Literature Survey 204

    8.3 Proposed System 205

    8.4 Proposed Multi-Level ECG Compression Architecture 207

    8.5 Results and Analysis 212

    8.6 Conclusion 216

    References 216

    9 Using Reinforcement Learning in Unity Environments for Training AI-Agent 219
    Geetika Munjal and Monika Lamba

    9.1 Introduction 219

    9.2 Literature Review 221

    9.3 Machine Learning 221

    9.3.1 Categorization of Machine Learning 222

    9.3.1.1 Supervised Learning 222

    9.3.1.2 Unsupervised Learning 222

    9.3.1.3 Reinforcement Learning 223

    9.3.2 Classifying on the Basis of Envisioned Output 224

    9.3.2.1 Classification 224

    9.3.2.2 Regression 224

    9.3.2.3 Clustering 224

    9.3.3 Artificial Intelligence 224

    9.4 Unity 225

    9.4.1 Unity Hub 225

    9.4.2 Unity Editor 225

    9.4.3 Inspector 225

    9.4.4 Game View 225

    9.4.5 Scene View 226

    9.4.6 Hierarchy 226

    9.4.7 Project Window 226

    9.5 Reinforcement Learning and Supervised Learning 227

    9.5.1 Positive Reinforcement 228

    9.5.2 Negative Reinforcement 228

    9.5.3 Model-Free and Model-Based RL 228

    9.6 Proposed Model 230

    9.6.1 Setting Up a Virtual Environment 231

    9.6.2 Setting Up of the Environment 231

    9.6.2.1 Creating and Allocating Scripts for the Environment 232

    9.6.2.2 Creating a Goal for the Agent 232

    9.6.2.3 Reward Driven Behavior 233

    9.7 Markov Decision Process 234

    9.8 Model Based RL 234

    9.9 Experimental Results 235

    9.9.1 Machine Learning Models Used for the Environments 235

    9.9.2 PushBlock 236

    9.9.3 Hallway 236

    9.9.4 Screenshots of the PushBlock Environment 236

    9.9.5 Screenshots of the Hallway Environment 242

    9.10 Conclusion 245

    References 245

    10 A Review of Digital Transformation and Sustainable International Agricultural Businesses in Africa 249
    Shadreck Matindike, Stephen Mago, Flora Modiba and Amanda Van den Berg

    10.1 Introduction 249

    10.1.1 Background 251

    10.1.1.1 Digitalization in Agriculture and SDGs 253

    10.1.1.2 International Agricultural Businesses and Sustainable Development 254

    10.1.1.3 Research Questions and Objectives 255

    10.1.1.4 Significance of the Study 256

    10.2 Methodology 256

    10.2.1 Research Strategy 256

    10.2.2 Search Strategy 257

    10.2.2.1 Database Identification 257

    10.2.2.2 Search Strings 258

    10.2.2.3 Exclusion and Inclusion Criteria 259

    10.3 Findings 260

    10.3.1 Literature Landscape without Filters 260

    10.3.1.1 Publications Output 260

    10.3.1.2 Academic Impact (Citations) 261

    10.3.1.3 Major Sources of Literature on the Topic 261

    10.3.1.4 Major Authors of Literature on the Topic 261

    10.3.2 Literature Landscape with Filters 263

    10.3.2.1 Bibliometric Analysis of Publication Output 263

    10.3.2.2 Bibliometric Analysis of Keywords 263

    10.3.2.3 Bibliometric Analysis of Themes of Topics 265

    10.3.2.4 Bibliometric Analysis of Citations Across Countries 265

    10.3.3 Digital Transformation, Sustainability and International Businesses in African Agriculture 267

    10.3.3.1 Plant Monitoring 269

    10.3.3.2 Phenotyping 269

    10.3.3.3 Weeding 270

    10.3.3.4 Seeding 271

    10.3.3.5 Disease Detection 271

    10.3.4 Potential of International Businesses in African Agriculture 272

    10.4 Recommendations 275

    10.5 Conclusion 276

    References 278

    11 Developing a Framework for Harnessing Disruptive Emerging Technologies in Health for Society 5.0 in a Developing Context: A Case of Zimbabwe 283
    Samuel Musungwini

    11.1 Introduction 284

    11.2 Background and Context 285

    11.3 Methodology 288

    11.3.1 Design Science 288

    11.4 Literature Review 291

    11.4.1 Current State of Disruptive Emerging Technologies in Health Care Delivery 292

    11.4.2 The Current State of DETs in SSA 294

    11.4.3 Healthcare Challenges Currently Prevalent in SSA Lack Proper Medical Attention 295

    11.4.4 Opportunities for Implementing DETs in Health in SSA 296

    11.5 Empirical Data 296

    11.5.1 Potential Benefits of Implementing Disruptive Emerging Technologies in Health Care Delivery in a Developing Country like Zimbabwe 298

    11.5.2 Challenges and Opportunities Associated with Harnessing these Technologies for the Benefit of Society 5.0 in Zimbabwe 300

    11.6 Discussion 302

    11.7 A Framework for Harnessing Disruptive Emerging Technologies in Health for Society 5.0 in a Developing Context 304

    11.7.1 Layer 1: Environmental Scanning and Diagnostic Analysis 305

    11.7.2 Layer 2: Strategic Planning Roadmap 306

    11.7.3 Layer 3: Integrate, Implement, and Operationalise D.E.TS in Select Healthcare Facilities 307

    11.7.4 Layer 4: Evaluation and Review 308

    11.7.5 Layer 5: Roll Out D.E.TS in All Healthcare Services and Processes 308

    11.8 Conclusions and Recommendations 308

    References 310

    12 IT Innovation: Driving Digital Transformation 315
    Sruthy S.

    12.1 Introduction 316

    12.2 The IT Innovation Ecosystem 318

    12.3 Types of IT Innovations 320

    12.4 IT Innovation Frameworks 324

    12.5 Challenges and Risks of IT Innovation 325

    12.6 Case Study: Uber - Disrupting the Transportation Industry with Innovative Technology 328

    12.7 Future Directions of IT Innovation 335

    References 339

    13 Strategic Convergence of Advanced Technologies in Modern Warfare 341
    Ayan Sar, Tanupriya Choudhury, Jung-Sup Um, Rahul Kumar Singh and Ketan Kotecha

    13.1 Introduction 342

    13.2 Quantum Computing and Cryptography 342

    13.2.1 Quantum Computing for Secure Communication 342

    13.2.2 Quantum Key Distribution in Military Networks 343

    13.2.3 Potential Impact of Quantum Computing on Cybersecurity 344

    13.3 Blockchain Technology in Military Operations 345

    13.3.1 Immutable Record-Keeping and Supply Chain Management 346

    13.3.2 Smart Contracts for Streamlining Military Processes 347

    13.3.3 Enhanced Security and Transparent Transactions 348

    13.4 Case-Studies and Real-World Applications 349

    13.4.1 Autonomous Aerial Reconnaissance - Predator and Reaper Drones (U.S.A) 349

    13.4.2 Blockchain in Military Supply Chain Management 350

    13.4.3 AI-Driven Decision Support Systems 350

    13.4.4 Aegis Combat System (U.S. Navy) 350

    13.4.5 Adaptation in Response to Threats: Stuxnet Worm 351

    13.5 Challenges and Risks 352

    13.5.1 Ethical Dilemmas in the Use of Disruptive Technologies 352

    13.5.2 Vulnerabilities and Exploits in Cyber-Physical Systems 352

    13.5.3 International Cooperation and Regulations 353

    13.6 Conclusion 353

    References 354

    Index 355