Embark on a journey to master the intricate world of X-ray physics and its pivotal role in modern medical imaging. This comprehensive course offers an in-depth exploration of the fundamental principles, advanced concepts, and practical applications essential for radiologists, radiologic technologists, medical physicists, and healthcare professionals alike.
This course will cover:
Section 1: Fundamentals of X-ray Physics
Introduction about X-ray physics
Overview of atomic structure
Cathode and focusing cups
Anode structure
Section 2: X-ray Tube Components and Circuits
Overview of X-ray tube components
The actual focal spot
Anode heel effect
Filtration of X-ray
Effect of collimation
Primary X-ray circuit
Secondary X-ray circuit
Filaments circuit
Section 3: X-ray Interactions and Imaging Techniques
Bremsstrahlung radiation
Characteristic radiation
X-ray beam quality and quantity
X-ray beam spectrum
Photoelectric effect
Compton scatter
Elastic scatter
Linear energy transfer
Section 4: Advanced Topics in X-ray Imaging
Half value layer
Types of detectors
Screen film radiography
Characteristic curve
Computed radiography
Digital radiography
Coupled charged device
Indirect thin film transistor array
Direct thin film transistor array
Section 5: Image Quality Optimization and Artifacts
Scattering of X-ray
Factors affecting scattering of X-ray
Anti-scatter grid
Geometric unsharpness, blurring, and magnification
Each section focuses on specific aspects of x-ray physics and imaging, providing a structured approach to learning and mastery of the subject matter.
Enriched with comprehensive lectures, illustrative examples, and practical insights, this course equips you with the knowledge and expertise necessary to excel in the dynamic field of medical imaging. Whether you're a seasoned professional seeking to deepen your understanding or an aspiring practitioner aiming to embark on a rewarding career, this course is your definitive guide to mastering X-ray physics in medical imaging.