The Master's in Medical Imaging and Radiation Sciences (Computed Tomography) is designed to provide already qualified radiographers and radiation therapists with comprehensive knowledge and advanced skills in the field of medical imaging and specifically, computed tomography (CT). The CT pathway combines theoretical foundations with practical training, equipping students with a deep understanding of CT technology, image acquisition, and interpretation.

Through a blend of rigorous coursework, hands-on laboratory experiences, and clinical rotations, our CT students develop expertise in CT imaging protocols, patient care, radiation safety, and advanced diagnostic techniques. Graduates of this pathway emerge as competent and skilled professionals capable of applying their knowledge to enhance patient outcomes and contribute to advancements in the field of medical imaging.

MIRS (Computed Tomography) Modules

• AN6061 Comparative Anatomy & Physiology (A) (10 credits)
• NU6304 Advanced Research Methods Applied to Healthcare (10 credits)
• NU6310 Implementation of Evidence-Based Practice for Quality Improvement in Healthcare (10 credits)
• RA6014 Principles & Practice of CT (A) (10 credits)
• RA6019 Clinical Practice (A) (10 credits)                  
• RA6024 Principles & Practice of CT (B) (10 credits)
• RA6028 Clinical Practice (B) (10 credits)
• RA6012 Research Dissertation (20 credits)

Learning Outcomes for MSc Medical Imaging and Radiation Sciences (Computed Tomography) (NFQ Level 9, Major Award)

1. Advanced Knowledge of CT Principles: Demonstrate advanced knowledge and understanding of the principles, theories, and advanced techniques used in computed tomography imaging.
2. Research Skills: Develop research skills, including the ability to critically analyse scientific literature, design and conduct research studies related to CT imaging, and interpret and communicate research findings effectively.
3. Advanced Image Acquisition and Reconstruction Techniques: Acquire in-depth knowledge and skills in advanced CT image acquisition techniques, such as multi-detector row CT, dual-energy CT, or cone-beam CT. Understand and apply advanced image reconstruction techniques to optimise image quality and diagnostic accuracy.
4. Advanced Image Analysis and Interpretation: Develop expertise in advanced image analysis and interpretation techniques for CT imaging, including the evaluation and diagnosis of complex anatomical structures and pathology. Apply advanced knowledge in specialised areas such as cardiac CT, neuroimaging, or musculoskeletal CT.
5. Radiation Dose Optimisation and Safety: Demonstrate advanced understanding of radiation dose optimisation strategies and radiation safety protocols in CT imaging. Apply advanced techniques for radiation dose reduction while maintaining diagnostic image quality.
6. Leadership and Management Skills: Acquire leadership and management skills necessary for supervising CT departments, leading quality improvement initiatives, managing resources effectively, and ensuring compliance with regulations and standards.
7. Advanced Clinical Decision-Making: Develop advanced clinical decision-making skills based on comprehensive analysis and interpretation of CT images. Understand the role of CT imaging in the diagnosis, treatment planning, and follow-up of various diseases and conditions.
8. Interdisciplinary Collaboration and Communication: Collaborate effectively with healthcare professionals from different disciplines, such as radiologists, physicists, technologists, and referring physicians, to optimise patient care and enhance interdisciplinary teamwork.
9. Ethical and Professional Practices: Demonstrate a strong commitment to ethical and professional practices in CT imaging, including patient confidentiality, informed consent, ethical research conduct, and adherence to professional standards and guidelines.
10. Innovation and Critical Thinking: Foster innovation and critical thinking skills in the field of CT imaging, exploring new technologies, research advancements, and emerging trends to enhance the quality of CT imaging and patient care.
11. Research and Evidence-Based Practice: Engage in research activities and contribute to the evidence base in computed tomography, including the ability to critically appraise research literature, design, and conduct research projects, and contribute to the dissemination of research findings.