The Internet of Medical Things: Enabling technologies and emerging applications
- Length: 400 pages
- Edition: 1
- Language: English
- Publisher: The Institution of Engineering and Technology
- Publication Date: 2022-02-26
- ISBN-10: 1839532734
- ISBN-13: 9781839532733
- Sales Rank: #0 (See Top 100 Books)
The Internet of Medical Things (IoMT) allows clinicians to monitor patients remotely via a network of wearable or implantable devices. The devices are embedded with software or sensors to enable them to send and receive data via the internet so that healthcare professionals can monitor health data such as vital statistics, metabolic rates or drug delivery regimens, and can provide advice or treatment plans based on this real-world, real-time data. This edited book discusses key IoT technologies that facilitate and enhance this process, such as computer algorithms, network architecture, wireless communications, and network security.
Providing a systemic review of trends, challenges and future directions of IoMT technologies, the book examines applications such as breast cancer monitoring systems, patient-centric systems for handling, tracking and monitoring virus variants, and video-based solutions for monitoring babies. The book discusses machine learning techniques for the management of clinical data and includes security issues such as the use of blockchain technology.
Written by a range of international researchers, this book is a great resource for computer engineering researchers and practitioners in the fields of data mining, machine learning, artificial intelligence and the IoT in the healthcare sector.
Cover Title Copyright Contents About the editors Chapter 1 Internet of medical things (IoMT): a systematic review of applications, trends, challenges, and future directions 1.1 Introduction 1.1.1 Internet of medical things 1.2 Internet of medical things (IoMT) applications 1.2.1 Role of IoMT during COVID-19 1.3 Security aspects in IoMT 1.4 Challenges and future directions 1.5 Conclusion References Chapter 2 Non-invasive psycho-physiological driver monitoring through IoT-oriented systems 2.1 Introduction 2.2 Heterogeneous driver monitoring 2.2.1 Wearable and inertial sensors 2.2.2 Camera sensors 2.3 In-vehicle IoT-oriented monitoring architecture 2.3.1 Experimental setup 2.3.2 HRV analysis 2.4 Experimental performance evaluation 2.4.1 Operating protocol for data collection 2.4.2 HR and HRV data 2.4.3 Experimental results 2.5 Conclusions and future works Acknowledgments References Chapter 3 IoT-based biomedical healthcare approach 3.1 Introduction 3.2 IoT-based healthcare biomedical applications 3.3 IoT-based biomedical communication architecture 3.4 Wireless body area networks 3.5 RFID IoT-based biomedical communication protocol 3.6 Problem statement 3.7 IoT and biomedical healthcare system interconnection 3.8 Examples of IoT-based biomedical healthcare devices 3.8.1 Glucose monitoring 3.8.2 Bluetooth-enabled blood labs 3.8.3 Connected inhalers 3.8.4 Blood coagulation testing 3.8.5 Connected cancer treatment 3.8.6 Robotic surgery 3.8.7 IoT-connected contact lenses 3.8.8 A smartwatch app that monitors depression 3.8.9 Connected wearables 3.9 A summary of associated research 3.10 Conclusion 3.11 Future work References Chapter 4 Impact of world pandemic “COVID-19” and an assessment of world health management and economics 4.1 Introduction 4.2 Impact on societies 4.2.1 Impact of social manner on COVID-19 4.2.2 Impact on healthcare facilities 4.2.3 Worldwide impact 4.2.4 Impact on low- and moderate-income countries 4.2.5 Impact on international healthcare facilities based on medical services 4.2.6 Emergency caring 4.2.7 Constructive response reduction strategies 4.3 Impact of health on the emerging COVID-19 pandemic 4.3.1 Social determinants of health 4.4 Health in the clinical system 4.4.1 Clinical knowledge 4.4.2 Access to medical- and primary-care doctor 4.5 Role of health disease 4.5.1 Food deserts on cardiovascular disease (CVD) 4.5.2 Role of food deserts on hypertension and chronic kidney disease 4.5.3 Role of SDOH on obesity 4.6 Social setting 4.6.1 Determination 4.6.2 Active part of the community 4.6.3 Make surrounding foods 4.7 Academy 4.7.1 High school graduation 4.7.2 Psycholinguistics and literacy 4.8 Stable, predictable employment 4.9 The impact of the COVID-19 pandemic on firms 4.9.1 Time-saving method 4.9.2 Data gathering 4.9.3 Computations and statistical review 4.9.4 Statistical results 4.10 Healthcare, social and economic challenges in Bangladesh 4.10.1 Methodology 4.10.2 Analysis of basic healthcare 4.10.3 Precarious living 4.10.4 Social distancing 4.10.5 Groups with special needs 4.10.6 Discussion 4.11 Conclusions References Chapter 5 Artificial intelligence in healthcare 5.1 Introduction 5.2 Healthcare data sources 5.3 Legal and ethical obstacles of artificial intelligence-driven healthcare 5.4 Types of healthcare data 5.4.1 Structured data 5.4.2 Unstructured data 5.5 AI techniques developed for structured and unstructured data 5.5.1 Machine learning 5.5.2 Neural networks 5.5.3 Natural language processing 5.6 Major disease areas 5.7 Applications of AI in healthcare system 5.7.1 Solutions based on genetics 5.7.2 Development and discovery of drug 5.7.3 Support in clinical decisions 5.7.4 Robotics and artificial intelligence-powered devices 5.8 Examples of AI used in healthcare References Chapter 6 Blockchain in IoT healthcare: case study 6.1 Overview 6.2 Existing models to secure IoT healthcare 6.3 Blockchain to secure IoT healthcare 6.3.1 Proposed system 6.3.2 System implementation 6.4 Conclusions References Chapter 7 Adaptive dictionary-based fusion of multi-modal images for health care applications 7.1 Introduction 7.2 Learning a dictionary 7.3 Experimental setup and analysis 7.4 Overview of fusion scheme 7.5 Simulation results and discussion 7.5.1 Results on standard multimodal medical data sets 7.5.2 Objective analysis of standard medical image pairs 7.6 Summary References Chapter 8 Artificial intelligence for sustainable e-Health 8.1 Introduction 8.2 Reduction in margin of error in healthcare 8.3 EPRs, EHRs, and clinical systems 8.4 Barriers in an EHR system 8.5 Getting over interoperability issues 8.6 Barriers in EHR interoperability 8.7 UK-NHS model: characteristics and enhancements 8.8 MNC/MNE characteristics 8.9 UK-NHS model or the MNC organizational model 8.10 e-Health and AI 8.11 Sustainable healthcare 8.12 Sustainable healthcare in the aftermath of COVID-19 8.13 Sustainability in staff and clinical practice during pandemic 8.14 Broadening health-care facilities at home during the COVID-19 pandemic 8.15 Sustainable development groups 8.16 Futuristic research directions 8.17 Role of AI in diabetes care—a case study 8.18 Artificial intelligence and its area of applications 8.18.1 Diagnosis 8.18.2 Interpretation 8.18.3 Monitoring 8.18.4 Control 8.18.5 Treatment planning 8.18.6 Drug design 8.19 Conclusion References Chapter 9 An innovative IoT-based breast cancer monitoring system with the aid of machine learning approach 9.1 Introduction 9.2 Related works 9.3 Proposed solution 9.3.1 Concept of iTBra 9.3.2 Dataset 9.3.3 Feature ranking with support vector machines 9.3.4 SMO algorithm 9.3.5 Reforms of the SMO algorithm 9.3.6 Breast cancer prediction proposed predictive framework 9.4 Study and discussion of experimental findings 9.4.1 Preprocessing for the dataset 9.4.2 Results of SVM-RFE experiment 9.4.3 Results of SMO classification 9.5 Conclusion References Chapter 10 Patient-centric smart health-care systems for handling COVID-19 variants and future pandemics: technological review, research challenges, and future directions 10.1 Introduction 10.2 Internet of Things (IoT) network for patient-centric health-care system 10.2.1 IoT and its applications for health-care sector 10.2.2 Industrial IoT (IIoT) for smart health-care system 10.2.3 Resourceful and resource constraint device-based smart health-care developments 10.2.4 Research challenges and future direction of IoT in patient-centric smart health-care system 10.3 Blockchain technology and IoT for patient-centric health-care system 10.3.1 Need for the blockchain and IoT integration 10.3.2 Role of Internet of Things in health-care system 10.4 Cybersecurity and IoT for patient-centric health-care system 10.4.1 IoT and cybersecurity 10.4.2 Recent developments in ensuring confidentiality, integrity, and availability (CIA) properties in IoT networks for smart health-care system 10.4.3 IoT cyberspace and data handling processes for information and network security 10.4.4 Research challenges and future direction of IoT in patient centric smart health-care system 10.5 Parallel and distributed computing architecture using IoT network for patient-centric health-care system 10.5.1 Cloud computing architectures using IoT network for health-care system 10.6 Artificial intelligence and machine learning approaches in IoT for smart health-care system 10.6.1 Healthcare, COVID-19, and future pandemic-related datasets for smart health-care systems 10.6.2 Artificial intelligence in smart health-care system 10.6.3 Machine learning aspects in smart health-care system 10.7 Virtualization and IoT in IoT for smart health-care system 10.7.1 Operating system and storage virtualization for desktop- and mobile-based smart health-care applications 10.8 IoT and quantum computing for smart health-care system 10.8.1 Introduction to IoT and quantum computing 10.8.2 Quantum computing and smart health-care system 10.8.3 Challenges of quantum computing to health-care data and data security 10.9 Post-quantum cryptography solutions for futuristic security in smart health-care system 10.9.1 Code-based cryptography for health-care data and system 10.9.2 Lattice-based cryptography for health-care data and system 10.9.3 Hash-based cryptography for health-care data and system 10.9.4 Multivariate cryptography for health-care data and system 10.9.5 Supersingular cryptography for health-care data and system 10.9.6 Post-quantum cryptography application and research challenges for smart health-care system 10.10 Drone and robotics operation management using IoT network for smart health-care system 10.10.1 Medical robots and recent developments 10.10.2 Drone and IoT network for health-care operations 10.10.3 Robot, drone, and IoT network integrations for health-care applications 10.10.4 Recent developments and future directions 10.11 Conclusion and future scope References Chapter 11 Application of intelligent techniques in health-care sector 11.1 Introduction 11.2 Evolution of AI in health-care informatics 11.3 Healthcare in India 11.4 Health-care dataset 11.4.1 Electronic medical records 11.4.2 Reluctant to adopt EMR/digitalization of medical procedures 11.5 AI in healthcare 11.5.1 What could be achieved using AI in healthcare? 11.5.2 Challenges of using AI and possible solutions 11.5.3 Future scope 11.5.4 Current status of AI in healthcare References Chapter 12 Managing clinical data using machine learning techniques 12.1 Introduction 12.2 Related work 12.3 Clinical data analysis 12.3.1 Dataset 1 12.3.2 Dataset 2 12.3.3 Dataset 3 12.3.4 Dataset 4 12.4 Conclusion References Chapter 13 Use of IoT and mobile technology in virus outbreak tracking and monitoring 13.1 Introduction 13.2 IoT in healthcare 13.3 IoT health-care applications 13.3.1 Glucose level sensing 13.3.2 Electrocardiogram monitoring 13.3.3 Blood pressure monitoring 13.3.4 Blood temperature monitoring 13.3.5 Oxygen saturation monitoring 13.3.6 Rehabilitation system 13.3.7 Medication management 13.3.8 Wheelchair management 13.3.9 Imminent health-care solutions 13.3.10 Health-care solutions using smartphones 13.4 Benefits 13.4.1 Simultaneous reporting and monitoring 13.4.2 Data assortment and analysis 13.4.3 Tracking and alerts 13.5 Challenges 13.5.1 Data security and privacy 13.5.2 Cost 13.5.3 Data overload and accuracy 13.6 Use of IoT in virus outbreak and monitoring 13.6.1 Using IoT to dissect an outbreak 13.6.2 Using IoT to manage patient care 13.7 Use of mobile apps in healthcare 13.7.1 Mobile report 13.7.2 Saving human resources 13.8 Healthcare IoT for virus pandemic management 13.9 Evolution of healthcare (pandemic)-based IoT 13.10 Increase availability of social networks 13.10.1 Improve efficiency of health services 13.10.2 Improve patients health condition 13.10.3 Enhances physician efficiency 13.11 Data privacy and security is a significant concern 13.11.1 Lack of information control 13.11.2 Digital divide among patients 13.12 Conclusion Further reading Chapter 14 Video-based solutions for newborn monitoring 14.1 Introduction 14.2 Vital signs monitoring 14.3 Video processing systems for neonatal disorder detection 14.3.1 Single sensor 14.3.2 Multiple sensors 14.4 Seizure detection 14.4.1 Performance in seizure detection 14.5 Apnea detection 14.5.1 Performance in apnea detection 14.6 Conclusion References Chapter 15 IoT sensor networks in healthcare List of abbreviations 15.1 Introduction 15.2 Wireless sensor networks (WSN) and Internet of Things (IoT) 15.3 Role of Internet of Things (IoT) sensor networks in healthcare 15.4 Communication technologies for health-care IoT sensor networks 15.5 Challenges in the implementation of H-IoT and related research 15.6 Contemporary technologies to overcome the challenges on IoT sensor networks for healthcare 15.6.1 Cloud/fog/edge computing for H-IoT sensor networks 15.6.2 Software-defined networking for H-IoT sensor networks 15.7 Conclusion References Chapter 16 Machine learning for Healthcare 4.0: technologies, algorithms, vulnerabilities, and proposed solutions 16.1 Introduction 16.2 Healthcare 4.0 16.2.1 Main technologies of Healthcare 4.0 16.2.2 Health 4.0 objective 16.2.3 Health 4.0 application 16.3 Machine learning algorithms 16.3.1 Linear regression 16.3.2 Logistic regression 16.3.3 Support vector machines 16.3.4 Artificial neural network 16.3.5 Decision tree 16.3.6 Random forests 16.3.7 K means 16.3.8 Naïve Bayes 16.3.9 Dimensionality reduction algorithm 16.3.10 Gradient boosting algorithm and AdaBoosting algorithm 16.4 Machine learning for Healthcare 4.0 16.5 Vulnerabilities for ML in Healthcare 4.0 16.5.1 Vulnerabilities in data collection 16.5.2 Vulnerabilities due to data annotation 16.5.3 Vulnerabilities in model training 16.5.4 Vulnerabilities in deployment phase 16.5.5 Vulnerabilities in testing phase 16.6 ML-based solutions for Healthcare 4.0 16.6.1 Privacy preservation 16.6.2 Differential privacy 16.6.3 Federated learning 16.7 Conclusion References Chapter 17 Big data analytics and data mining for healthcare and smart city applications 17.1 Introduction 17.2 Theoretical background of smart cities 17.2.1 Smart people 17.2.2 Smart economy 17.2.3 Smart governance 17.2.4 Smart mobility 17.2.5 Smart environment 17.2.6 Smart living 17.3 Computational infrastructures for smart cities big data analytics 17.3.1 Cloud computing 17.3.2 Fog computing 17.3.3 Edge computing 17.3.4 Big data based on machine learning 17.4 Mining methods for big data 17.4.1 Classification 17.4.2 Clustering 17.4.3 Frequent pattern mining 17.4.4 Another mining method 17.5 Advances in healthcare sector 17.5.1 Big data for healthcare 17.5.2 Data mining for healthcare 17.6 Conclusion References Index
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