A blurry chest X-ray can mean a missed diagnosis, and a miscalibrated detector can mean a wasted scan — which is why understanding what happens between the X-ray tube and the final image matters as much as reading the image itself. This training course from the Arab British Fellowship Training Academy takes participants inside the diagnostic imaging chain: the physics that produce an X-ray, the hardware that captures it, and the quality-control steps that keep the whole system trustworthy.

Beyond the fundamentals, the course looks at how X-ray fits alongside CT and fluoroscopy, how digital detectors and AI-assisted analysis are reshaping the field, and how radiation safety and international regulatory standards keep both patients and operators protected. It is built for anyone who needs to analyse, optimise, or simply understand diagnostic X-ray systems with real technical depth — not just operate them.

What You'll Be Able to Do

• Explain the physical principles behind X-ray generation and how X-rays interact with matter.
• Analyse the design, operation, and safety protocols of advanced X-ray systems and their components.
• Assess X-ray system performance using calibration, quality control, and image reconstruction techniques.
• Compare digital and analog imaging, and evaluate how detectors and AI tools affect image quality.
• Understand how X-ray systems integrate with CT, fluoroscopy, and other diagnostic technologies.
• Apply radiation safety practices and assess compliance with medical device regulations.

Who Should Attend?

• Biomedical engineers and technicians responsible for X-ray systems
• Healthcare professionals and radiology technologists
• Quality assurance, calibration, and troubleshooting specialists
• Professionals in medical device manufacturing or testing

Module 1: Why X-ray Still Matters in a Multi-Modality World

• Historical development and current trends in diagnostic imaging
• Comparing X-ray with other imaging modalities
• The role of X-ray in early diagnosis and treatment planning

Module 2: The Physics Behind the Image

• How X-rays are produced, and the types and spectra of X-ray tubes
• Absorption, transmission, and scattering of X-rays
• Radiation dose and its relationship to image quality

Module 3: Inside the System — Tubes and Detectors

• Anode and cathode structure, heat dissipation, and tube housing
• Types of image receptors (CCD, CMOS) and their role in image quality
• Advances in digital detector technology

Module 4: From Analog to Digital Imaging

• Advantages of digital imaging and the digitising process
• Differences in resolution and image quality
• Types and characteristics of digital (flat-panel) detectors and their clinical impact

Module 5: Calibration, Quality Control, and Reconstruction

• Calibration techniques and optimal imaging parameters
• Routine quality-control checks, monitoring, and standards
• Image reconstruction principles and improving diagnostic clarity

Module 6: Digital Analysis and Related Modalities

• Algorithms, contrast, noise reduction, and image filters
• Computed tomography (CT) and its relationship to X-ray systems
• Fluoroscopy: real-time imaging, surgical applications, advantages, and limitations

Module 7: Radiation Safety and Regulatory Compliance

• Biological effects of radiation, dose factors, and risk assessment
• Shielding, PPE, and safety training
• Regulatory bodies, certification, and ISO/IEC compliance

Module 8: Troubleshooting and Preventive Maintenance

• Identifying image-quality, mechanical, electrical, and software issues
• Diagnostic software, manual techniques, and system log analysis
• Preventive inspections, cleaning, and replacing worn components

Module 9: System Integration and the Road Ahead

• Compatibility with MRI, ultrasound, and hybrid imaging systems
• Data integration with PACS and electronic health records
• Emerging X-ray technologies and the growing role of AI in diagnostic imaging