Digital Cities (eBook)

K. Karthikeyan, O. V. Gnana Swathika (Herausgeber)

eBook Download: EPUB

2025 | 1. Auflage
656 Seiten
Wiley (Verlag)
978-1-394-23380-9 (ISBN)

Infos

O. V. Gnana Swathika, PhD is an associate professor in the Center for Smart Grid Technologies in the School of Electrical Engineering at the Vellore Institute of Technology. She has over 180 publications to her credit, including book chapters and articles in national and international journals and conferences. Her current research interests include microgrid protection and energy management systems.

 

K. Karthikeyan is the Chief Engineering Manager of Electrical Designs for Larsen and Toubro Construction, a multinational Indian contracting company, with over two decades of experience in electrical design. His primary role involves preparing and reviewing complete electrical system designs up to 110KV voltage levels and acting as the point of contact for both the client and internal project team. He has contributed immensely tothe building services sector, working in airports, railway stations, hospitals, and educational institutions in India, as well as Sri Lanka, Dubai, and the UK.

Textauszug

1
AI Revolution in Healthcare: Digital Health Services Empowered by Machine Learning and Deep Learning

Mudiyala Aparna1*, Battula Srinivasa Rao2 and Mallela Siva Naga Raju3

1Department of Computer Science and Engineering, Tirumala Engineering College (Autonomous), Andhra Pradesh, India

2School of Computer and Information Science, University of Hyderabad, Telangana, India

3Department of Computer Science and Engineering, GITAM (Deemed to be) University, Telangana, India

Abstract

The fusion of machine learning and deep learning techniques within digital health services has ushered in a transformative era in healthcare. This chapter explores the profound influence of these advanced technologies on enhancing patient care, optimizing healthcare operations, and catalyzing a revolutionary shift in medical research and diagnosis. Digital health services, which include EHRs, telemedicine, wearables, remote patient monitoring, and health analytics, generate massive amounts of healthcare data that can be mined with machine learning and deep learning techniques to gain insights and extract new knowledge. Predictive modeling, anomaly detection, patient risk assessment, and individualized treatment recommendations are just a few examples of how machine learning enables computers to learn independently from data and make intelligent judgements. Deep learning, specialized in handling complex patterns from large datasets, has significantly impacted medical imaging analysis, natural language processing, drug discovery, and genomics research. Real-time vital sign monitoring and individualized health insights are made possible by the seamless incorporation of machine learning and deep learning into remote patient monitoring and wearables. Data privacy and interpretability are discussed, along with potential for growth such as cross-disciplinary studies and new forms of privacy protection. In conclusion, the confluence of machine learning and deep learning has revolutionized healthcare, offering tools for data-driven decision-making, disease diagnosis, and patient care, with future potential for precision medicine, personalized healthcare, and disease prevention.

Keywords: AI revolution, deep learning, machine learning, technology, digital health and healthcare

1.1 Introduction

Digital health services that incorporate machine learning and deep learning techniques have sparked a revolution in the healthcare sector. This transformation stems from their capacity to enhance patient care, optimize healthcare operations, and revolutionize medical research and diagnosis [1–3]. Digital health services, such as electronic health records, telemedicine, wearable devices, remote patient monitoring, and health analytics, continue to proliferate, and these cutting-edge technologies play a crucial role in capitalizing on the wealth of data generated by these services. This chapter delves into the profound impact of these technologies on the healthcare ecosystem, highlighting their applications, challenges, and opportunities.

1.2 Background and Motivation

The healthcare industry is not immune to the revolutionary effects of machine learning and deep learning. Digital health services generate an immense amount of data, offering a rich resource for insights and knowledge extraction. Healthcare has been revolutionized by machine learning and deep learning due to their ability to autonomously learn patterns from data and effectively interpret complex information [4]. The motivation behind this exploration lies in the immense potential of these technologies to revolutionize patient care delivery, optimize resource allocation, and reshape medical research for improved outcomes. Figure 1.1 depicts the various applications of the digital health system.

1.3 AI Challenges and Opportunities in Digital Health Services

The convergence of machine learning and deep learning presents not only exciting opportunities but also enormous challenges. Ensuring data privacy, security, and ethical considerations is vital in the healthcare context. Moreover, the interpretability of these models is crucial to gain clinical acceptance and to provide transparent reasoning for predictions [5–7]. Despite these challenges, there are promising opportunities for growth. Collaborative research initiatives and advancements in privacy-preserving techniques hold the promise of creating powerful and generalizable models that maintain patient privacy. Figure 1.2 shows an AI problem workflow for digital health services.

Figure 1.1 Background and motivation for AI revolution in healthcare.

Figure 1.2 AI problem workflow in digital health services.

1.3.1 Empowering Healthcare through Machine Learning

Machine learning is a branch of AI that allows computers to teach themselves new skills and make sound judgments based on the information they collect. Within digital health services, machine learning is harnessed for a myriad of tasks, notably predictive modeling, anomaly detection, patient risk assessment, and personalized treatment suggestions. By analyzing vast datasets, machine learning models can predict patient outcomes, identify aberrations in health data, stratify patient risks, and offer tailored treatment recommendations [8–10]. These capabilities have tangible impacts, including predicting patient readmissions, spotting early signs of disease progression, and optimizing hospital resource allocation. As a result, patient outcomes are improved, and healthcare delivery becomes more cost-effective and efficient.

Key Elements:

Data-Driven Insights: Machine learning uses big datasets to discover trends, correlations, and patterns that would not be seen using more conventional analysis techniques. What this implies in healthcare is using data from EHRs, MRIs, genomes, and wearables to better understand individual patients’ ailments and how they are responding to therapy.

Personalized Medicine: The medical process is different for every individual. Large volumes of patient data can be processed by machine learning algorithms, resulting in tailored treatment programs. By considering factors such as genetics, medical history, lifestyle, and real-time health metrics, healthcare providers can tailor interventions to optimize patient outcomes and minimize adverse effects.

Disease Detection and Diagnosis: Machine learning excels in image recognition and pattern detection. This capacity allows for better and faster diagnosis of diseases using imaging techniques in the medical field. Radiologists and physicians can use algorithms to better detect abnormalities in imaging tests like X-rays, MRIs, and CT scans, allowing for faster diagnosis and treatment.

Predictive Analytics: Models trained with machine learning can accurately forecast the occurrence of serious problems like disease outbreaks and hospital readmissions. Healthcare systems can improve patient care and save healthcare costs by analyzing historical data and environmental conditions in order to allocate resources, manage patient flows, and adopt preventative measures more effectively.

Drug Discovery and Development: Drug discovery using conventional methods takes a long time and is quite expensive. Machine learning helps by quickly sorting through massive amounts of chemical and biological data to find promising medication ideas and make efficacy predictions. This might drastically cut the cost and development time of bringing novel therapies to market.

Remote Monitoring and Telemedicine: Wearable devices and sensors, when integrated with machine learning algorithms, enable continuous monitoring of patients’ vital signs. Real-time data transmission to healthcare providers allows for early intervention in case of anomalies, making telemedicine more effective and enabling timely remote consultations.

1.3.2 Challenges

Data Privacy and Security: Safeguarding patient data in a connected healthcare ecosystem is critical.

Algorithmic Bias: Ensuring fairness and preventing biases in machine learning algorithms is an ongoing challenge.

Integration Complexity: Machine learning systems must be carefully planned and executed before being integrated into the current healthcare infrastructure.

Regulatory Compliance: Adhering to healthcare regulations and standards while implementing innovative technology is crucial.

1.3.3 Unleashing Deep Learning’s Potential

Deep learning, a specialized form of machine learning, emerges as a transformative tool due to its proficiency in handling unstructured and high-dimensional data. This technology has significantly impacted medical imaging analysis, natural language processing, drug discovery, and genomics research. Within digital health services, deep learning models excel in image-based diagnostics [11]. They are instrumental in detecting cancerous lesions in radiological scans, identifying diabetic retinopathy from retinal images, and analyzing histopathological slides for precise disease classification. These achievements underscore the capacity of deep learning to uncover intricate patterns that are often elusive to conventional methods, thereby elevating diagnostic accuracy and patient care [12]. Deep learning’s ability to process and analyze complex datasets, along with its prowess in pattern recognition, is poised to unleash a wave...

Produkt-Details

• Erscheint lt. Verlag: 30.9.2025
• Sprache: englisch
• Themenwelt: Technik ► Architektur
• Themenwelt: Technik ► Elektrotechnik / Energietechnik
• ISBN-10: 1-394-23380-9 / 1394233809
• ISBN-13: 978-1-394-23380-9 / 9781394233809