Thesis Abstract

Abstract
This thesis explores the implementation of artificial intelligence (AI) in radiographic image analysis to enhance diagnostic accuracy in medical imaging. With the increasing demand for faster and more accurate diagnosis in healthcare, AI technologies have shown great potential in revolutionizing radiology practices. The study focuses on leveraging AI algorithms and machine learning techniques to analyze radiographic images and assist radiographers and clinicians in making more precise and timely diagnostic decisions. The research begins with a comprehensive introduction to the background of the study, highlighting the importance of accurate diagnostic imaging in healthcare and the potential benefits of AI integration in radiography. The problem statement identifies the current challenges faced in conventional radiographic image analysis, such as human error, time constraints, and varying levels of expertise among radiographers. The objectives of the study aim to evaluate the effectiveness of AI in improving diagnostic accuracy, reducing interpretation errors, and enhancing overall patient care. The limitations of the study are acknowledged, including the availability of high-quality training data, potential biases in AI algorithms, and the need for continuous validation of results. The scope of the study outlines the specific radiographic modalities and AI techniques that will be investigated, such as deep learning algorithms, convolutional neural networks, and image segmentation methods. The significance of the study lies in its potential to transform radiographic practices, improve patient outcomes, and optimize healthcare resource utilization. The structure of the thesis is outlined, detailing the organization of chapters and key sections to provide a clear roadmap for readers. Definitions of key terms related to AI, radiography, and diagnostic accuracy are provided to ensure a common understanding of concepts throughout the thesis. The literature review in Chapter Two critically examines existing research on AI applications in radiography, highlighting the strengths and limitations of previous studies. Ten key themes are identified, including AI algorithms, image processing techniques, diagnostic accuracy metrics, and clinical outcomes. Chapter Three focuses on the research methodology, detailing the study design, data collection methods, AI model development, and evaluation strategies. Eight key components are discussed, such as dataset selection, model training, validation procedures, and performance metrics. Chapter Four presents a detailed discussion of the research findings, including the evaluation of AI models, comparison with traditional diagnostic methods, and analysis of diagnostic accuracy improvements. The impact of AI integration on radiographic workflows, clinical decision-making, and patient outcomes is examined. Finally, Chapter Five offers a comprehensive conclusion and summary of the thesis, highlighting the key findings, implications for practice, and recommendations for future research. The study concludes that the implementation of AI in radiographic image analysis holds great promise for enhancing diagnostic accuracy, improving patient care, and advancing the field of radiography.

Thesis Overview