With this program, you will perfect the quality of diagnostic images through the use of advanced technologies such as X-Rays, Computed Tomography (CT) and Magnetic Resonance Imaging (MRI)”

In the fast-paced advancement of medical engineering, there is a growing need for advanced specialization in diagnostic imaging. In this dynamic context, where technology is constantly redefining the limits of diagnostic accuracy, engineering professionals face the challenge of updating and acquiring specialized knowledge beyond traditional training boundaries. It is in this scenario that the present university program emerges as a unique opportunity. Designed for engineers seeking to excel in a constantly evolving field, the syllabus is positioned as a direct response to the demand for experts trained in the intricate aspects of medical engineering. 

The syllabus of the Postgraduate diploma in Radiophysics Applied to Diagnostic Imaging has been carefully designed to address fundamental aspects that will enhance the competence and expertise of graduates. To this end, students will delve into key aspects such as a thorough understanding of the Bragg-Gray theory and the dose measured in air, or the practical ability to carry out quality control of an ionization chamber. In this sense, the academic pathway will cover critical areas that are essential for the success of the medical engineer. Throughout their training, students will explore in detail the complex operation of an X-ray tube, analyze international quality control protocols and thoroughly evaluate the radiological risks inherent in hospital facilities. 

In terms of methodology, the program adapts to the changing demands of today's professional by offering a 100% onlinemodality. Through a flexible educational platform and diverse multimedia content, the Relearningmethod is implemented, a pedagogical strategy that promotes retention and deep understanding through the repetition of key concepts. This approach ensures that engineers, immersed in an interactive and dynamic learning environment, consolidate their specialization in diagnostic imaging effectively and efficiently. 

Thanks to this Postgraduate diploma in Radiophysics Applied to Diagnostic Imaging, you will improve the accuracy of physicians' diagnoses and ensure the safety of patient care”

This Postgraduate diploma in Radiophysics Applied to Diagnostic Imaging contains the most complete and up-to-date program on the market. The most important features include:

• The development of practical cases presented by experts in Radiophysics Applied to Diagnostic Imaging
• The graphic, schematic, and practical contents with which they are created, provide scientific and practical information on the disciplines that are essential for professional practice
• Practical exercises where self-assessment can be used to improve learning
• Its special emphasis on innovative methodologies  
• Theoretical lessons, questions to the expert, debate forums on controversial topics, and individual reflection assignments 
• Content that is accessible from any fixed or portable device with an Internet connection

You will learn more about radiological protection, regulations and safe practices in medical environments, through the use of cutting-edge multimedia resources”

The program’s teaching staff includes professionals from the field who contribute their work experience to this educational program, as well as renowned specialists from leading societies and prestigious universities.  

The multimedia content, developed with the latest educational technology, will provide the professional with situated and contextual learning, i.e., a simulated environment that will provide immersive education programmed to learn in real situations.  

This program is designed around Problem-Based Learning, whereby the professional must try to solve the different professional practice situations that arise during the academic year For this purpose, the students will be assisted by an innovative interactive video system created by renowned and experienced experts.

You will explore in depth the most avant-garde and innovative techniques for the measurement of ionizing radiation, with TECH's quality guarantee"

Immerse yourself in the fundamentals of Diagnostic Imaging, exploring the various techniques and dosimetry applied to radiodiagnosis"

This academic program is distinguished by its comprehensive structure and dynamic content. It is composed of modules ranging from radiation interactions with matter to dosimetry and radiation protection, covering all aspects necessary to obtain high quality medical images. This updated approach will provide theoretical knowledge supported by the latest technology used in real radiodiagnostic environments. In addition, a thorough analysis of radiological protection will be performed, a crucial aspect to ensure the safety of both medical staff and patients.  

Update yourself with this complete syllabus, under the guidance of leading experts in the field of Radiophysics Applied to Diagnostic Imaging” 

Module 1. Interaction of Ionizing Radiation with Matter

1.1. Ionizing Radiation-Matter Interaction

1.1.1. Ionizing Radiation
1.1.2. Collisions
1.1.3. Braking Power and Range

1.2. Charged Particle-Matter Interaction

1.2.1. Fluorescent Radiation

1.2.1.1. Characteristic Radiation or X-rays
1.2.1.2. Auger Electrons

1.2.2. Braking Radiation
1.2.3. Spectrum Upon Collision of Electrons with a High Z Material
1.2.4. Electron-Positron Annihilation

1.3. Photon-Matter Interaction

1.3.1. Attenuation
1.3.2. Hemireductive Layer
1.3.3. Photoelectric Effect
1.3.4. Compton Effect
1.3.5. Pair Creation
1.3.6. Predominant Effect According to Energy
1.3.7. Imaging in Radiology

1.4. Radiation Dosimetry

1.4.1. Equilibrium of Charged Particles
1.4.2. Bragg-Gray Cavity Theory
1.4.3. Spencer-Attix Theory
1.4.4. Absorbed Dose in Air

1.5. Radiation Dosimetry Quantities

1.5.1. Dosimetric Quantities
1.5.2. Radiation Protection Quantities
1.5.3. Radiation Weighting Factors
1.5.4. Weighting Factors of the Organs According to Radiosensitivity

1.6. Detectors for the Measurement of Ionizing Radiation

1.6.1. Ionization of Gases
1.6.2. Excitation of Luminescence in Solids
1.6.3. Dissociation of Matter
1.6.4. Detectors in the Hospital Environment

1.7. Ionizing Radiation Dosimetry

1.7.1. Environmental Dosimetry
1.7.2. Area Dosimetry
1.7.3. Personal Dosimetry

1.8. Thermoluminescence Dosimeters

1.8.1. Thermoluminescence Dosimeters
1.8.2. Dosimeter Calibration
1.8.3. Calibration at the National Dosimetry Center

1.9. Physics of Radiation Measurement

1.9.1. Value of a Quantity
1.9.2. Accuracy
1.9.3. Precision
1.9.4. Repeatability
1.9.5. Reproducibility
1.9.6. Traceability
1.9.7. Quality in Measurement
1.9.8. Quality Control of an Ionization Chamber

1.10. Uncertainty in Radiation Measurement

1.10.1. Measurement Uncertainty
1.10.2. Tolerance and Action Level
1.10.3. Type A Uncertainty
1.10.4. Type B Uncertainty

Module 2. Advanced Diagnostic Imaging

2.1. Advanced Physics in X-Ray Generation

2.1.1. X-Ray Tube
2.1.2. Radiation Spectra Used in Radiodiagnosis
2.1.3. Radiological Technique

2.2. Radiological Imaging

2.2.1. Digital Image Recording Systems
2.2.2. Dynamic Imaging
2.2.3. Radiodiagnostic Equipment

2.3. Quality Control in Diagnostic Radiology

2.3.1. Quality Assurance Program in Diagnostic Radiology
2.3.2. Quality Protocols in Radiodiagnostics
2.3.3. General Quality Control Checks

2.4. Patient Dose Estimation in X-Ray Installations

2.4.1. Patient Dose Estimation in X-Ray Facilities
2.4.2. Patient Dosimetry
2.4.3. Diagnostic Dose Reference Levels

2.5. General Radiology Equipment

2.5.1. General Radiology Equipment
2.5.2. Specific Quality Control Tests
2.5.3. Doses to Patients in General Radiology

2.6. Mammography Equipment

2.6.1. Mammography Equipment
2.6.2. Specific Quality Control Tests
2.6.3. Mammography Patient Dose

2.7. Fluoroscopy Equipment. Vascular and Interventional Radiology

2.7.1. Fluoroscopy Equipment
2.7.2. Specific Quality Control Tests
2.7.3. Doses to Interventional Patients

2.8. Computed Tomography Equipment

2.8.1. Computed Tomography Equipment
2.8.2. Specific Quality Control Tests
2.8.3. Dose to CT Patients

2.9. Other Radiodiagnostic Equipment

2.9.1. Other Radiodiagnostic Equipment
2.9.2. Specific Quality Control Tests
2.9.3. Non-Ionizing Radiation Equipment

2.10. Radiological Image Visualization Systems

2.10.1. Digital Image Processing
2.10.2. Calibration of Display Systems
2.10.3. Quality Control of Display Systems

Module 3. Radiation Protection in Hospital Radioactive Facilities

3.1. Hospital Radiation Protection

3.1.1. Hospital Radiation Protection
3.1.2. Radiation Protection Magnitudes and Specialized Radiation Protection Units
3.1.3. Risks Specific to the Hospital Area

3.2. International Regulations on Radiation Protection

3.2.1. International Legal Framework and Authorizations
3.2.2. International Regulations on Health Protection against Ionizing Radiations
3.2.3. International Regulations on Radiological Protection of the Patient
3.2.4. International Regulations on the Specialty of Hospital Radiophysics
3.2.5. Other International Regulations

3.3. Radiation Protection in Hospital Radioactive Facilities

3.3.1. Nuclear Medicine
3.3.2. Radiodiagnostics
3.3.3. Radiotherapy Oncology

3.4. Dosimetric Control of Exposed Professionals

3.4.1. Dosimetric Control
3.4.2. Dose Limits
3.4.3. Personal Dosimetry Management

3.5. Calibration and Verification of Radiation Protection Instrumentation

3.5.1. Calibration and Verification of Radiation Protection Instrumentation
3.5.2. Verification of Environmental Radiation Detectors
3.5.3. Verification of Surface Contamination Detectors

3.6. Control of the Airtightness of Encapsulated Radioactive Sources

3.6.1. Control of the Airtightness of Encapsulated Radioactive Sources
3.6.2. Methodology
3.6.3. International Limits and Certificates

3.7. Design of Structural Shielding in Medical Radioactive Facilities

3.7.1. Design of Structural Shielding in Medical Radioactive Facilities
3.7.2. Important Parameters
3.7.3. Thickness Calculation

3.8. Structural Shielding Design in Nuclear Medicine

3.8.1. Structural Shielding Design in Nuclear Medicine
3.8.2. Nuclear Medicine Installations
3.8.3. Workload Calculation

3.9. Design of Structural Shielding in Radiotherapy

3.9.1. Design of Structural Shielding in Radiotherapy
3.9.2. Radiotherapy Facilities
3.9.3. Workload Calculation

3.10. Structural Shielding Design in Radiodiagnostics

3.10.1. Structural Shielding Design in Radiodiagnostics
3.10.2. Radiodiagnostic Installations
3.10.3. Workload Calculation

You will address emerging challenges in Applied Diagnostic Imaging Radiophysics, continuously improving diagnostic processes and radiation safety”