Skip to main content
Top

2023 | Book

Advanced AI and Internet of Health Things for Combating Pandemics

Editors: Mohamed Lahby, Virginia Pilloni, Jyoti Sekhar Banerjee, Mufti Mahmud

Publisher: Springer International Publishing

Book Series : Internet of Things

insite
SEARCH

About this book

This book presents the latest research, theoretical methods, and novel applications in the field of Health 5.0. The authors focus on combating COVID-19 or other pandemics through facilitating various technological services. The authors discuss new models, practical solutions, and technological advances related to detecting and analyzing COVID-19 or other pandemic based on machine intelligence models and communication technologies. The aim of the coverage is to help decision-makers, managers, professionals, and researchers design new paradigms considering the unique opportunities associated with computational intelligence and Internet of Medical Things (IoMT). This book emphasizes the need to analyze all the information through studies and research carried out in the field of computational intelligence, communication networks, and presents the best solutions to combat COVID and other pandemics.

Table of Contents

Frontmatter

State-of-the-Art

Frontmatter
Knowledge Graphs for COVID-19: A Survey
Abstract
During a short span of time, the knowledge related to COVID-19 has been evolving rapidly because of new variants and their strange behaviors. Knowledge Graphs offer a realistic and efficient way of organizing and retrieving knowledge from such massive and growing amounts of information. Since natural language is used to represent information, language models are widely used to embed textual information in dense vector spaces, which can then be used to organize and represent knowledge in the form of knowledge graphs. In recent years, transformer-based language models that adopt the mechanism of self-attention gained state-of-the-art performance in constructing knowledge graphs. This chapter presents a survey on knowledge graph creation using transformer-based language models and their applications in organizing and retrieving semantic knowledge from the increasing volume of information related to COVID-19.
Madhupa Minoli, Thanuja D. Ambegoda
Mapping Effective Practices and Frameworks During the AEC Industry’s Combat with COVID-19: Scientometric Analysis
Abstract
The Architecture, Engineering, and Construction (AEC) industry suffered during the COVID-19 pandemic, both economically and socially, but more so in hospital infrastructure capacity. Many technologies, managerial practices and frameworks were developed and adopted during this phase, which must be capitalised on for the future. This chapter aims to carry out a scientometric analysis of the literature produced on effective practices, case studies, and frameworks deployed to strengthen AEC industry and hospital infrastructure during the pandemic crisis. The results show that both managerial and information technology approaches could improve the resilience of the AEC to combat COVID-19.
Khalil Idrissi Gartoumi, Mohamed Aboussaleh, Smail Zaki
Deep Learning for Combating COVID-19 Pandemic in Internet of Medical Things (IoMT) Networks: A Comprehensive Review
Abstract
The evolution of the hardware platform and underlying software gave rise to the Internet of Medical Things (IoMT). Utilizing limited resources and bio-sensors, the demand for remote healthcare continuous monitoring systems has grown. This study offers a thorough analysis of using deep learning methods for COVID-19 in the Internet of Medical Things networks. The primary objective of this chapter is to present a fundamental review of Wireless Body Sensor Networks (WBSNs) and to discuss current accomplishments and applications focusing on remote patient monitoring for the COVID-19 pandemic. To fulfill the scientific concept of WMBN, a comprehensive examination of WBSN architecture, applications, challenges, and requirement is required. Then, the most important aspects of the WBSN, including data collection and fusion, telemedicine, and remote patient monitoring, are discussed. The Covid-19 is presented. In addition, it provides insight into deep learning techniques and their medical applications. A thorough investigation has been conducted into the significance of deep learning for combating the COVID-19 pandemic. This chapter can serve as a basic strategy and a roadmap for researchers and scholars.
Ali Kadhum Idrees, Balqees Talal Hasan, Sara Kadhum Idrees

Machine Learning and COVID-19 Pandemic

Frontmatter
Machine Learning Algorithms for Classification of COVID-19 Using Chest X-Ray Images
Abstract
The COVID-19 pandemic spread around 150 countries and impacted people’s health and life globally in the last few years. According to the European Centre of Disease Prevention and Control statistics, up to ten million people are affected due to easy transmission, limitation of vaccines, and COVID-19 test kits. Recent research has shown that imaging techniques such as X-rays play an important role in diagnosing COVID-19 disease. Due to global urgency, Scientists and healthcare experts around the globe are searching for a new technology to aid and fight against the Covid-19 outbreak. Advanced Machine Learning and Artificial Intelligence provide a new approach to combat against COVID-19 pandemic. This chapter presents machine learning techniques (Naïve Bayes, Decision Tree, KNN, Logistic Regression, ANN) for the detection of COVID-19 in X-Ray images. The result analysis shows that the decision tree has been achieved the highest accuracy of 100% among other classification techniques.
Shah Hussain Badshah, Muhammad Imad, Irfan Ullah Khan, Muhammad Abul Hassan
Forecasting of COVID-19 Cases Using AI and Real-Time DataSet
Abstract
The dissemination of COVID-19, specifically SARS-CoV-2, has produced a disastrous scenario all across the world, leaving the future uncertain. Deep Learning (DL) and Machine Learning (ML) have a vital role in tracking the disease, predicting the outgrowth of the epidemic, and outlining strategies and policies to control its spread. Despite the inaccuracies of medical forecasts, the numbers of COVID19 cases forecasts provide us with valuable information for recognizing the present and preparing for the future. The Long Short-Term Memory (LSTM) model is proposed in this article as a time series-based deep learning model. The model predict the active, confirmed, deaths and recovered cases for 7 days ahead for Egypt and Saudi Arabia based on real-time data. With a Mean Absolute Percentage Error (MAPE) of 3.26150, a Root Mean Square Error (RMSE) of 0.0144, a Mean Square Error (MSE) of 0.0002, and a Mean Absolute Error (MAE) of 0.0092, the Egypt prediction model outperformed the Saudi prediction model. While the Saudi prediction model obtains a MAPE of 5.0553, a RMSE of 0.0170, a MSE of 0.0002, and a MAE of 0.0150.
Nabeel Khan, Norah K. AlRusayni, Reem K. Alkhodhairi, Suliman Aladhadh
Predicting Covid-19 Using Cough Audio Recordings
Abstract
The novel coronavirus disease (COVID-19) which emerged in late December 2020 and affected the whole world, is a virus that was identified as a result of research conducted in a group of patients who applied to the hospital with similar respiratory tract symptoms. The most common symptoms in patients are fever, cough and shortness of breath. Current approaches to detecting COVID-19 require in-person kits that only possible with costly and time-consuming tests. Rapid detection of the COVID-19 virus will be beneficial. For this reason, there is a need for fast and low-budget methods that can be used. The aim of this study is to present the machine learning technique, to enable the use of fast, cost-effective and useful pre-screening tools to detect the disease. An Artificial Intelligence supported solution method has been proposed to predict COVID-19 using cough sounds, distinctive symptoms of the disease. It was evaluated on the basis of cough sounds collected via smartphones from 750 (male and female individuals aged 18–65) clinically confirmed samples by PCR testing. Using the obtained data set, tests were performed with the traditional machine learning algorithms and Deep Neural Network. Deep Neural Network, which can detect the highest COVID-19 infection rate with an accuracy of 98.48%, has achieved a significant success in the diagnosis of COVID-19. In this study, it was determined whether patients with suspected COVID-19 had COVID-19 with high accuracy, low cost, and quickly using cough voice data.
Nursen Keleş, Mete Yağanoğlu
Computational Linguistics Techniques in Measuring Genetic Distance of Living Organisms
Abstract
With the appearance of new strains or versions of viruses and bacteria, it is crucial to identify the best methods to fight them efficiently. Thus we have to identify which of the previously known viruses or bacteria, the new one has the highest genetic proximity to possibly apply the methods used before and improve on top of them, saving our time and effort. We researched the application of adjacency matrix calculations to assess the genetic distance between living organisms, given each organism’s genetic match report.
Iskander Akhmetov, Dilyara Akhmetova
Explainable Artificial Intelligence (XAI) Based Analysis of Stress Among Tech Workers Amidst COVID-19 Pandemic
Abstract
Work stress is now a global concern. Particularly, as a result of the extended lockdown during COVID-19, many industries, particularly those in the tech industry, were obliged to adopt remote working. In this chapter, we analyze the prevalence of mental health illnesses among tech professionals and assess attitudes toward mental health in the workplace. Question-answer based stress detection is one of the most widely used methods nowadays since it preserves social distance and is effective. Algorithms used in artificial intelligence (AI) are frequently referred to as “black boxes,” due to their lack of explainability nature. Again, an AI paradigm called Explainable AI (XAI) aims to make end users aware of the goals, choices, and rationale behind the system. End users may be anybody whose decisions are affected by an AI model, including consumers, data scientists, regulatory authorities, domain experts, executive board members, and managers who employ AI with or without knowledge. The goal of this research is to make a system that is very flexible and uses XAI to find the stressors at work that hurt the mental health of tech professionals. As per the best belief of the authors, till now, no researcher has reported in this domain. The findings point to both qualitative and quantitative visual representations that might provide doctors additional in-depth information about the results provided by the learned XAI models, enhancing their understanding and decision-making.
Jyoti Sekhar Banerjee, Arpita Chakraborty, Mufti Mahmud, Ujjwal Kar, Mohamed Lahby, Gautam Saha

Deep Learning and COVID-19 Pandemic

Frontmatter
COVID-19 Disease Detection Using Deep Learning Techniques in CT Scan Images
Abstract
Since the end of 2019, the whole world is still facing a big damage caused by the COVID-19 pandemic. There is an increasing need to build new robust systems used to recognize, detect and analyses the computed tomography CT scan and x-ray images of patients. Building new computer-aided systems presents a primary necessity used to prevent the presence or not of the virus. Diagnosing and detecting COVID-19 disease at an early stage is crucial to save lives and reduce the mortality risk around the world.
A new COVID-19 segmentation system used to predict unhealthy regions in CT scan images is proposed in this work. The proposed system is performed by using deep learning-based techniques as they currently show big performances in images segmentation, classification and diagnosis for x-ray and CT scan.
The proposed system was developed based on the deep convolutional neural network “HookNet”. The developed system can widely help doctors and radiographs in predicting COVID-19 by diagnosing the COVID-19 CT scan images. Two benchmark datasets, SARS-COV-2 Ct-Scan Dataset and COVIDx-CT Dataset, were used to assess the proposed work.
Experiment results have demonstrated the interesting CT scan segmentation performances obtained.
Mouna Afif, Riadh Ayachi, Said Yahia, Mohamed Atri
Multimodal Diagnosis of COVID-19 Using Deep Wavelet Scattering Networks
Abstract
Since December 2019, healthcare systems worldwide have been challenged with the COVID-19 pandemic. Within the computer research community, efforts have been directed towards the potential of artificial intelligence in the diagnosis of COVID-19 cases. Majority of the proposed methods have been based on Convolutional neural network (CNN). Nevertheless, CNN-based methods continue to be challenged in settings with limited resources. In an attempt to alleviate this challenge within the COVID-19 context, this chapter presents a novel method for identifying COVID-19 in X-ray and CT scan images based on Deep Wavelet Scattering Networks (DWSN) and subspace learning. Wavelet scattering networks are used to learn a deep invariant representation from the training set. Subspace learning is then achieved through a joint best non-linear approximation approach in the wavelet-scattering domain. The proposed method is used through a unified framework for single-modal and multi-modal diagnosis of COVID-19. Several experiments were conducted to evaluate the performance of the proposed method. Experimental results have demonstrated the capabilities of the proposed method to identify COVID-19, in X-ray and CT-scan images with state-of-the-art accuracies. Wavelet Scattering-based multi-modal fusion resulted in an average accuracy of 98.77% with improvements of 1.16% and 2.81% compared to single modality X-ray and CT scan diagnosis, respectively.
Rami Zewail
Development of Computer Aided Diagnosis System for Detection of COVID-19 Using Transfer Learning
Abstract
A Computer Aided Diagnosis (CAD) system is an essential tool in the interpretation of medical images for prompt detection and characterization of medical images. CAD systems evaluate the information obtained from medical images for proper detection and diagnosis. Conventional methods of development of CAD involve the use of handcrafted features to simplify data. Deep learning eliminates the extraction of handcrafted features, which results in better segmentation and classification performance. However, training deep learning models from scratch requires huge computer resources and lots of training images. This chapter aim at developing a CAD with fewer images and lesser resources for COVID-19 detection using transfer learning with a view to solve the problem of scarcity of labelled COVID-19 images. We applied transfer learning to the development of CAD systems for chest X-ray image classification. Chest X-ray images supplied by Dr. Cohen and Kaggle were used in this work. At the pre-processing stage, histogram equalization and adaptive filtering were applied for image contrast enhancement and adaptive filtering respectively. Transfer learning was applied to modify Alexnet, Googlenet and SqueezeNet for COVID-19 detection from chest X-ray images. Modified Alexnet gave an average highest accuracy of 100%, a true a positive rate of 100%, and a true negative rate of 100% for two classes classification, and an accuracy of 98.31%, a true positive rate of 98.55%, and a true negative rate of 99.37% for multi-class classification. This research will offer a second viewpoint, provide precise detection, and improve management techniques.
Oluwadare Adepeju Adebisi, John Adedapo Ojo, Oluwole Abiodun Adegbola, Olasunkanmi Fatai Oseni, Oluwashina Akinloye Oyeniran

Internet of Health Things, Blockchain and COVID-19 Pandemic

Frontmatter
COVID-19 Detection System in a Smart Hospital Setting Using Transfer Learning and IoT-Based Model
Abstract
Due to COVID-19’s significant effects, effective and early viral identification is a critical research concern. This study’s objective is to assess the performance and efficiency of several transfer learning (TL) models and IoT for diagnosing COVID-19 patients in smart hospitals. This claim was clarified using the function of ML models and IoT-related medical devices in a smart hospital setting. By optimizing the transfer learning (TL) models, it is possible to improve the diagnosis’ accuracy when categorizing illnesses based on laboratory tests. On benchmark COVID-19 computer tomography scans (CT scan) datasets provided from the Kaggle database, four TL models—namely, InceptionV3, DenseNet169, ResNet50V2, and Xception—were trained, validated, and assessed. Diagnoses based on CT scan datasets and those based on model fine-tuning are the two main COVID-19 methodological scenarios that were described. The results of the experiments demonstrate that transfer learning, DenseNet169 achieve an accuracy of 96% compared to benchmark models and studies, ResNet50V2 and Xception achieve an accuracy of 94%, and InceptionV3 produced 92% accuracy in detecting COVID-19 instances using a 20% test dataset set aside. With a 96% accuracy, 96% precision, 96% recall, and 96% f1-score, the experiment shows that the DenseNet169 TL model outperformed the three other models. Additionally, the results may lessen the strain on medical professionals, address the issue of patient congestion, and lower the COVID-19 pandemic fatality rate.
Roseline Oluwaseun Ogundokun, Sanjay Misra, Abdulwasiu Bolakale Adelodun, Manju Khari
A Blockchain-Based Secure Framework for Homomorphic AI in IoHT for Tackling COVID-19 Pandemic
Abstract
Pandemics like COVID-19 have posed new challenges in the healthcare sector around the world. Artificial Intelligence (AI) and the Internet of Healthcare Things (IoHT) have been widely used to combat the recent pandemic and provide assistance to the population. Security concerns in international cooperation impede the advancement of AI in IoHT services. Arguably, the confidentiality of data, the technology edge of AI providers, integrity, and availability of service are the primary concerns. To this end, in this chapter, we have proposed a blockchain-based secure framework for homomorphic AI in IoHT networks to handle security concerns. In this framework, we focus on AI as the core computation of IoHT networks. The proposed framework is based on blockchain technology and distributed storage to ensure integrity and availability in a decentralized network. The proposed framework uses homomorphic encryption to enable privacy-preserving computation, mainly AI services. Moreover, the security analysis of this framework shows that it is formally provable to meet the defined security requirements. We present a use case for diagnosing and monitoring COVID-19 during a pandemic in order to evaluate the proposed framework.
Hossain Kordestani, Roghayeh Mojarad, Abdelghani Chibani, Kamel Barkaoui, Wagdy Zahran
Blockchain-Based Solution for Patient Health Records Sharing by Adopting Private Decentralized Storage
Abstract
The recent Covid-19 pandemic serves as a great trial of the flexibility and the competency of patient health record sharing among healthcare providers, which resulted in an immense disruption to the healthcare sectors. This public turning point disaster has plunged in a rapid alteration of the patient health records sharing (PHRS) structure to respond to the demands and furnish proper patient care. In addition, the downside effects of the Covid-19 outbreak modified the healthcare system permanently. As a result, more patients demand control, security, and a seamless experience when they desire to get a hold of their health records, increasing rapidly. However, the issues merge from the lack of interoperability among the healthcare sectors and providers. However, the added burden of cyber-attacks on an already overwhelmed system is to inquire about a swift solution. In this chapter, the developed system is leveraging the benefits and aspects of Blockchain, smart contracts, and the private IPFS file system to safeguard patients’ complete control over their health records and stored them in their private IPFS. Then, patients can share their data with authorized providers. The assessed security and privacy features show promising results in supplying time savings in sharing patient health records during the Covid-19 pandemic, improving confidentiality, and less disrupting the interaction between the patient and the provider. Furthermore, the chapter proves that our smart contracts code is security vulnerabilities and bugs free.
Meryem Abouali, Kartikeya Sharma, Tarek Saadawi

Case Studies and Frameworks

Frontmatter
On Natural Language Processing to Attack COVID-19 Pandemic: Experiences of Vietnam
Abstract
The world health system is under tremendous pressure from COVID-19 pandemic, when millions of people are infected every day. Therefore, finding solutions to support the health sector is the most necessary issue today. Artificial intelligence has greatly supported the healthcare system by supporting many automated tasks. In this chapter, we want to introduce a system that automatically extracts the necessary information from medical documents (also known as sequence tagging or named entity recognition in the field of natural language processing), helping the medical team save time and effort from reading comprehension and extracting information manually. It will be shown that the system’s contributions to the containment of the COVID-19 pandemic are in practice in Vietnam.
Ngoc C. Lê, Hai-Chung Nguyen-Phung, Thuy Thu Tran, Ngoc-Uyen Thi Nguyen, Dang-Khoi Pham Nguyen, Thanh-Huy Nguyen
VacciNet: Towards a Reinforcement Learning Based Smart Framework for Predicting the Distribution Chain Optimization of Vaccines for a Pandemic
Abstract
Vaccinations against viruses have always been the need of the hour since long past. However, it is hard to efficiently distribute the vaccines (on time) to all the corners of a country, especially during a pandemic. Considering the vastness of the population, diversified communities, and demands of a smart society, it is an important task to optimize the vaccine distribution strategy in any country/state effectively. Although there is a profusion of data (Big Data) from various vaccine administration sites that can be mined to gain valuable insights about mass vaccination drives, very few attempts have been made towards revolutionizing the traditional mass vaccination campaigns to mitigate the socio-economic crises of pandemic afflicted countries. In this chapter, we bridge this gap in studies and experimentation. We collect daily vaccination data which is publicly available and carefully analyze it to generate meaningful insights and predictions. We put forward a novel framework leveraging supervised learning and reinforcement learning which we call VacciNet, that is capable of learning to predict the demand of vaccination in a state of a country as well as suggest optimal vaccine allocation in the state for minimum cost of procurement and supply. At the present, our framework is trained and tested with state-wise vaccination data of the USA. For predicting state-wise vaccine demand, we achieve an accuracy of 92%, while for the reinforcement learning agent we get a best record of min-max scaled average reward per state transition of 0.678. Although our framework is tested with real data from the USA, it can be trained and tested with similar data from any other country with minor changes in the data pre-processing methods.
Jayeeta Mondal, Jeet Dutta, Hrishav Bakul Barua
AI-Based Logistics Solutions to Tackle Covid-19 Pandemic and Ensure a Sustainable Financial Growth
Abstract
Smart technologies are profoundly changing the economy and the global market, especially to overcome emergencies such as Covid-19. Logistics systems have new objectives: to satisfy the various economic requirements in crisis times, to meet the possible upcoming challenges, and to ensure sustainable financial Growth. This economic transformation is taking an increasing part in all companies and modifies the axis of the businesses. Using Artificial intelligence-based solutions is about meeting the challenges of tomorrow and satisfying the various involved economic stakeholders. Today, the customer is at the center of this financial sector. It is necessary to consider his expectations, which require the revision of the logistic services during the pandemic to concretize a propensity towards individualism, safety, as well as financial progress. Companies must therefore improve customer satisfaction through increasingly connected and intelligent technology. Artificial intelligence (AI) innovation is at the core of the business and offers a wide range of solutions to address the complexity of activities. Innovation and business sophistication are the two major elements in the attractiveness of smart solutions. This chapter aims to highlight the importance of AI-based logistics to tackle the Covid-19 Pandemic and ensure sustainable Financial Growth. This chapter provides potential financial insights through systematic analysis and synthesis of the importance of AI-based logistics solutions.
Hanane Allioui, Azzeddine Allioui, Youssef Mourdi
A Comparative Modeling and Comprehensive Binding Site Analysis of the South African Beta COVID-19 Variant’s Spike Protein Structure
Abstract
Background
The Covid-19 pandemic has been the cause of severe infections and deaths worldwide. The emergence of variants only adds to the severity of it. Analyzing these variants’ structures through experimental means is expensive and time-consuming. Thus, effective computational methods such as homology modeling are needed to predict proteins’ 3D structure, which may be used for binding site identification and aid in novel drug design.
Methods
This chapter employed homology modeling to predict the 3D protein structure of the South African Covid-19 Beta variant using Swiss-Model. The binding sites on the predicted protein structure were identified using Deepsite and Computed Atlas of Surface Topography of proteins (CASTp).
Results
The model produced a predicted protein of high quality with an ERRAT overall quality factor of 90.146 and a QMEANDisCo global score of 0.75, making it suitable for binding site identification. The results from this step are presented. This chapter contributes to the board of knowledge on the structure of this Covid-19 variant and may aid in the improvement of vaccine or novel drug design against the virus.
Taryn Nicole Michael, Ibidun Christiana Obagbuwa, Albert Whata, Kudakwashe Madzima
Backmatter
Metadata
Title
Advanced AI and Internet of Health Things for Combating Pandemics
Editors
Mohamed Lahby
Virginia Pilloni
Jyoti Sekhar Banerjee
Mufti Mahmud
Copyright Year
2023
Electronic ISBN
978-3-031-28631-5
Print ISBN
978-3-031-28630-8
DOI
https://doi.org/10.1007/978-3-031-28631-5