The applications of X-ray technology in medical imaging: advances, challenges, and future perspectives (A review)

In 1895, Wilhelm Conrad Röntgen (1845–1923) pioneered X-ray imaging, which revolutionized medical diagnosisand modern healthcare. X-ray imaging's fundamentals, therapeutic uses, technology advances, and future directions areexamined in detail. X-rays contrast bone and soft tissues by attenuation, absorption, and scattering. X-ray medical usage. Indiagnostic radiography, it is best for fracture diagnosis, chest pathology, including pneumonia, lung cancer, and dentalchecks. Angiography, catheter insertion, and GI (gastrointestinal issues) diagnostics benefit from real-time dynamicfluoroscopy. Early breast cancer detection is improved by mammography, especially DBT (Digital breast tomosynthesis).Cross-sectional X-ray imaging using multi-slice contrast-enhanced CT (Computed Tomography). Fast, inexpensive, noninvasive, good spatial resolution for osseous structures, and widely available in healthcare, X-ray imaging. These benefits arenegated by ionizing radiation dangers (requiring rigorous ALARA (As Low as Reasonably Achievable) standards), worsesoft-tissue contrast compared to MRI (magnetic resonance imaging) or ultrasound, limited 3D visualization without CT, andtechnical challenges in obese or anatomically complex patients. Technological advances alter X-rays. Digital radiography hasenhanced image quality, workflow efficiency, and fracture and pneumonia screening accuracy using AI. Low-dose imaging,especially in kids, and portable critical care point-of-care technology advances. Photon-counting CT, phase-contrast imaging,and dark-field X-rays will depict soft tissues like never before, while AI (Artificial Intelligence) will speed up and improvediagnosis. Reduced doses optimize X-ray risk-benefit ratios. X-rays' efficiency, accessibility, and diagnostic ability makethem crucial in medicine, even as other imaging technologies emerge. This study emphasizes the necessity for ongoinginnovation to overcome limitations and preserve precision medicine benefits. X-ray imaging will remain vital to medicaldiagnostics with improved technology and safety precautions.

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Publication Details

Journal
Journal of Sustainable Food Water Energy and Environment
Published
2025-09-24
DOI
https://doi.org/10.21608/jsfw.2025.409882.1003
Citations
1
Primary Topic
Radiomics and Machine Learning in Medical Imaging
Type
article
Field-Weighted Citation Impact
1.36
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article

The applications of X-ray technology in medical imaging: advances, challenges, and future perspectives (A review)

Mahrous R. Ahmed, Gehad Al-Arabi, Abdalrahman M. Rayan, Ahmed Adam
1 citations
Journal of Sustainable Food Water Energy and Environment
Radiomics and Machine Learning in Medical Imaging
1.36
article

The applications of X-ray technology in medical imaging: advances, challenges, and future perspectives (A review)

Mahrous R. Ahmed, Gehad Al-Arabi, Abdalrahman M. Rayan, Ahmed Adam
article en
1 citations

Abstract

In 1895, Wilhelm Conrad Röntgen (1845–1923) pioneered X-ray imaging, which revolutionized medical diagnosisand modern healthcare. X-ray imaging's fundamentals, therapeutic uses, technology advances, and future directions areexamined in detail. X-rays contrast bone and soft tissues by attenuation, absorption, and scattering. X-ray medical usage. Indiagnostic radiography, it is best for fracture diagnosis, chest pathology, including pneumonia, lung cancer, and dentalchecks. Angiography, catheter insertion, and GI (gastrointestinal issues) diagnostics benefit from real-time dynamicfluoroscopy. Early breast cancer detection is improved by mammography, especially DBT (Digital breast tomosynthesis).Cross-sectional X-ray imaging using multi-slice contrast-enhanced CT (Computed Tomography). Fast, inexpensive, noninvasive, good spatial resolution for osseous structures, and widely available in healthcare, X-ray imaging. These benefits arenegated by ionizing radiation dangers (requiring rigorous ALARA (As Low as Reasonably Achievable) standards), worsesoft-tissue contrast compared to MRI (magnetic resonance imaging) or ultrasound, limited 3D visualization without CT, andtechnical challenges in obese or anatomically complex patients. Technological advances alter X-rays. Digital radiography hasenhanced image quality, workflow efficiency, and fracture and pneumonia screening accuracy using AI. Low-dose imaging,especially in kids, and portable critical care point-of-care technology advances. Photon-counting CT, phase-contrast imaging,and dark-field X-rays will depict soft tissues like never before, while AI (Artificial Intelligence) will speed up and improvediagnosis. Reduced doses optimize X-ray risk-benefit ratios. X-rays' efficiency, accessibility, and diagnostic ability makethem crucial in medicine, even as other imaging technologies emerge. This study emphasizes the necessity for ongoinginnovation to overcome limitations and preserve precision medicine benefits. X-ray imaging will remain vital to medicaldiagnostics with improved technology and safety precautions.

Journal of Sustainable Food Water Energy and EnvironmentVol. 1(2)
Sohag University (EG)
Openalex Percentile: Top 15%
Radiomics and Machine Learning in Medical Imaging
1.36
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