The Role of Deep Learning in Revolutionizing Radiological Imaging and Interpretation

Radiological imaging is an essential diagnostic tool applicable across contemporary healthcare, although inherent limitations exist regarding diagnostic utility, accuracy, and time in diagnosing diseases especially in developing heath care systems. This research examines the roles of deep learning in improving the radiological diagnosis and analysis on the context of Kingdom of Saudi Arabia. In the study, diagnostic performance, time and flexibility of deep learning applications for different imaging say X-ray, CT scans MRI, Ultra sound and Mammography are assessed. Following a non-experimental, observational study design, secondary data analysis was conducted of the existing peer-reviewed literature and real-world imaging datasets. In total, 28 500 images corresponding to pulmonary, neurological, musculoskeletal, abdominal and oncological pathologies were used. Evaluations of the diagnostic tests were based on sensitivity, specificity, precision, and error rates. Results demonstrated exceptional diagnostic performance: for X-rays, deep learning models provided 96.8% sensitivity and 95.2% specificity for pulmonary diseases while for mammography the models provided 97.8% sensitivity and 96.4% specificity. Diff-Ct CT imaging for ischemic stroke detection was 97.4% precise and reduced time-to-diagnosis by over 30%, while improving the work flow. It also showed that false positive identified at a rate of 7%, false negative was 5%, while the films were ambiguous at a 3% rate, caused by overlapping or poor quality images. The result demonstrates the reliability and applicability of the deep learning models across the population density, among the urban and rural populations. Thus, deep learning increases diagnostic accuracy, decreases the radiologist’s burden, and optimizes overall logistical effectiveness in radiological imaging. This study highlights its application in resolving existing or future emanating health issues within Saudi Arabia and Vision 2030 objectives relate to improving health for all people and enhancing the availability of superior and appropriate systems. Through AI supported tools, the healthcare industry can provide accurate diagnosis hence enhancing the patients and clinical process.

Authors

Publication Details

Journal
Power System Technology
Published
2024-12-28
DOI
https://doi.org/10.52783/pst.1305
Primary Topic
Medical Imaging Techniques and Applications
Type
article
Field-Weighted Citation Impact
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article

The Role of Deep Learning in Revolutionizing Radiological Imaging and Interpretation

Abdulkarim Muazi Smilil Al-Awfi
Power System Technology
Medical Imaging Techniques and Applications
article

The Role of Deep Learning in Revolutionizing Radiological Imaging and Interpretation

Abdulkarim Muazi Smilil Al-Awfi
article en

Abstract

Radiological imaging is an essential diagnostic tool applicable across contemporary healthcare, although inherent limitations exist regarding diagnostic utility, accuracy, and time in diagnosing diseases especially in developing heath care systems. This research examines the roles of deep learning in improving the radiological diagnosis and analysis on the context of Kingdom of Saudi Arabia. In the study, diagnostic performance, time and flexibility of deep learning applications for different imaging say X-ray, CT scans MRI, Ultra sound and Mammography are assessed. Following a non-experimental, observational study design, secondary data analysis was conducted of the existing peer-reviewed literature and real-world imaging datasets. In total, 28 500 images corresponding to pulmonary, neurological, musculoskeletal, abdominal and oncological pathologies were used. Evaluations of the diagnostic tests were based on sensitivity, specificity, precision, and error rates. Results demonstrated exceptional diagnostic performance: for X-rays, deep learning models provided 96.8% sensitivity and 95.2% specificity for pulmonary diseases while for mammography the models provided 97.8% sensitivity and 96.4% specificity. Diff-Ct CT imaging for ischemic stroke detection was 97.4% precise and reduced time-to-diagnosis by over 30%, while improving the work flow. It also showed that false positive identified at a rate of 7%, false negative was 5%, while the films were ambiguous at a 3% rate, caused by overlapping or poor quality images. The result demonstrates the reliability and applicability of the deep learning models across the population density, among the urban and rural populations. Thus, deep learning increases diagnostic accuracy, decreases the radiologist’s burden, and optimizes overall logistical effectiveness in radiological imaging. This study highlights its application in resolving existing or future emanating health issues within Saudi Arabia and Vision 2030 objectives relate to improving health for all people and enhancing the availability of superior and appropriate systems. Through AI supported tools, the healthcare industry can provide accurate diagnosis hence enhancing the patients and clinical process.

Power System TechnologyVol. 48(4)
Openalex Percentile: Top 56%
Medical Imaging Techniques and Applications
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The Role of Deep Learning in Revolutionizing Radiological Imaging and Interpretation — Abdulkarim Muazi Smilil Al-Awfi · Power System Technology (2024) | TGRS Research Map | TGRS