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July 23, 20250 citations

Artificial Intelligence in Radiology: Enhancing Diagnostic Accuracy through Deep Learning (Preprint)

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VDVaishnavi DongareMMManjusha MahakalkarSMSeungbin Moon

Key Points

  • Artificial intelligence significantly enhances diagnostic accuracy in radiology compared to traditional methods.
  • Deep learning technologies, particularly convolutional neural networks, excel in image classification and abnormality detection.
  • AI aids in clinical decision-making and image quality improvement, streamlining workflows for radiologists.
  • Addressing ethical concerns and implementing AI responsibly are crucial for improving patient outcomes in radiology.

Abstract

UNSTRUCTURED Radiology is undergoing a transformation thanks to artificial intelligence, especially deep learning, which improves diagnostic accuracy, expedites workflows, and aids in clinical decision-making. Traditional radiology primarily relies on human expertise and visual pattern recognition, whereas AI, particularly convolutional neural networks, can now detect, classify, and quantify abnormalities in medical images with performance on par with or even better than that of seasoned radiologists. The primary aim of integrating AI into radiology is to enhance diagnostic precision, streamline clinical workflows, and support radiologists in decision-making. Additional objectives include improving image quality, facilitating urgent patient triage, and enabling personalized treatment planning. AI applications are expected to help provide quantitative insights through radiomics and increase access to care, even in under-resourced regions. Artificial intelligence in radiology encompasses machine learning and its more advanced form, deep learning, which use layered neural networks to extract intricate patterns from large datasets. These technologies excel in tasks such as image classification, lesion detection, segmentation, and disease prognosis. Innovations like multimodal learning, explainable AI, federated learning, and integration with real-time PACS systems have significantly improved the safety and utility of AI in clinical environments. Commercial tools such as Qure.ai, Zebra Medical Vision, and Aidoc have already demonstrated practical effectiveness across a variety of healthcare setting. Despite its promising capabilities, AI in radiology faces challenges including data bias, transparency issues, legal hurdles, and the necessity for thorough clinical validation. Ethical considerations, such as patient privacy, equitable access, and liability, must also be addressed. Looking forward, AI is expected to complement rather than replace radiologists, acting as an intelligent assistant. The integration of AI with genetics, laboratory data, and global health initiatives holds the potential to enable precision radiology and improve overall patient outcomes. Realizing this vision will require collaborative, ethical, and responsible implementation.

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Cite This Study

Dongare et al. (2025) studied this question.

synapsesocial.com/papers/689a061be6551bb0af8cdaa1https://doi.org/10.2196/preprints.80843
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Artificial Intelligence in Radiology: A Survey on Transforming Diagnostic Accuracy and Clinical Decision-Making2026
  2. 2Artificial Intelligence and Machine Learning Approaches in Radiology for Medical Imaging Diagnostics2025
  3. 3Emerging Trends in Radiology: Integration of Artificial Intelligence with Modern Imaging Modalities for Enhanced Patient Care2026
  4. 4Artificial Intelligence in Radiology: A Narrative Review2026
  5. 5Effectiveness of machine learning and artificial intelligence in formulating radiological reports for faster and more reliable diagnostics2024