Master in Medical Radiology & Imaging Technology

Fee Type	Amount
Programme Fees (per Semester)	₹45000
Examination Fees	₹3000
International Fee (USD)	$4500

Course Curriculum

1ST SEMESTER SUBJECTS

Provides foundational and advanced knowledge of medical physics, radiation principles, radiation production, imaging technologies, radiation protection, and safe application of ionizing and non-ionizing radiation in medical imaging.

Course Outcome:

CO1: Describe general physics related to imaging.
CO2: Differentiate between within general radiation.
CO3: Identify construction of radiology equipment’s.
CO4: Interpret quality control of radiology equipment’s.
CO5: Differentiate between x-ray equipment’s and other radiology related equipment’s.
CO6: Describe production of x-rays.
CO7: Describe circuit system of radiology equipment’s.
CO8: Describe the structure and working of x-ray tube, production of x-rays.
CO9: Describe the types of x-ray tube and heat dissipation methods.
CO10: Explain the x-ray generator circuits.
CO11: Describe the different circuit types.
CO12: Describe the meters and exposure timers.
CO13: List the control of scattered radiation.
CO14: Describe about the fluoroscopy

Develops advanced knowledge and practical skills in patient positioning, radiographic projections, image acquisition, and optimization of diagnostic radiographs for specialized clinical examinations.

Course Outcome:

CO1: Understand the basic patient positioning during radiographic investigation.
CO2: Apply special positioning skillsfor different pathological and physical conditions.
CO3: Application of equipments while working in radiology departments.
CO4: Choose proper position during radiography.
CO5: Explain relative positions of x-ray tube and patient relevant exposure factors during radiography.
CO6: Explain the use of accessories.
CO7: Explain the anatomic and physiological basis of the procedure to be undertaken.
CO8: Explain the radiographic appearances of both normal and common abnormal conditions.
CO9: Prepare management and positioning of patients
CO10: Correlate of indications, contraindications of the patient
CO11: Understand the patient preparations needed before any radiological examination.
CO12: Generalize knowledge of post procedural care.
CO13: Students will be able position the patients for radiological procedures.
CO14: Knowledge of image quality in radiological images.
CO15: Management of patients in radiology department for various procedures.
CO16: Ability to handle emergency situations in radiology department.

Develops competencies in research design, data collection, biostatistical analysis, critical appraisal, scientific writing, and application of evidence-based practice in medical radiology and imaging technology.

Course Outcome:

CO1: Understand the Importance of statistics course in the curriculum
CO2: Understands Statistical Terms
CO3: Possess Knowledge and Skill in the use of Basic Statistics in the analysis and interpretation of data.

Provides supervised clinical training in radiology and medical imaging services, enabling students to apply theoretical knowledge, develop technical competencies, follow radiation-safety practices, and provide patient-centred imaging care.

Course Outcome:

CO1: Demonstrate professional knowledge and basic clinical competency in the workflow and functioning of a radiology department.
CO2: Demonstrate appropriate patient identification, preparation, communication, positioning, and assistance during routine radiological examinations under supervision.
CO3: Apply basic principles of radiographic equipment handling, image acquisition, radiation protection, infection prevention, and patient safety.
CO4: Observe and assist in routine radiological procedures while following departmental protocols, standard operating procedures, and professional instructions.
CO5: Maintain appropriate patient records, examination documentation, radiation-related records, and professional confidentiality.
CO6: Demonstrate professional behaviour, teamwork, communication, punctuality, ethical conduct, and willingness to learn in the clinical radiology environment.

2ND SEMESTER SUBJECTS

Provides advanced knowledge of modern radiological imaging equipment, imaging physics, equipment operation, quality assurance, image optimization, and radiation safety practices in contemporary medical imaging.

Course Outcome:

CO1: Describe the special radiological equipments
CO2: Describe the digital and computed radiography
CO3: Describe PACS, RIS and HIS

Develops advanced theoretical and practical competencies in modern imaging modalities and specialized radiological procedures, including appropriate patient preparation, imaging techniques, procedural assistance, and safety practices.

Course Outcome:

CO1: Know the basic principle and physics of interventional equipment.
CO2: Know the management and positioning of patients while performing interventional radiological procedure.
CO3: Have knowledge about the indications, contraindications, contrast media, radiation dose, exposure timing and radiation safety measures for the different interventional radiological procedure.
CO4: Understand the patient preparation needed before any interventional radiological procedures.
CO5: Have knowledge about the post procedural care and safety

Provides comprehensive knowledge of contrast media, their indications, contraindications, adverse reactions, patient safety, and the principles and applications of interventional radiology procedures.

Course Outcome:

CO1: Know the basic principle and physics of interventional equipment.
CO2: Know the management and positioning of patients while performing interventional radiological procedure.
CO3: Have knowledge about the indications, contraindications, contrast media, radiation dose and exposure timing and radiation safety measures for the different interventional radiological procedure.
CO4: Understand the patient preparation needed before any interventional radiological procedures.
CO5: Have knowledge about the post procedural care and safety.

Provides supervised clinical training in advanced radiology and medical imaging services, enabling students to integrate theoretical knowledge with practical skills, operate imaging equipment safely, assist in specialized procedures, and deliver patient-centred care.

Course Outcome:

CO1: Demonstrate developing clinical competency in the workflow, organization, and functioning of a modern radiology department.
CO2: Assist in patient preparation, positioning, examination protocols, and image acquisition for routine and specialized radiological procedures under supervision.
CO3: Demonstrate appropriate handling and basic operational understanding of modern radiological equipment while following departmental protocols.
CO4: Apply principles of radiation protection, infection prevention, contrast-media safety, patient monitoring, and emergency preparedness during clinical procedures.
CO5: Demonstrate appropriate documentation, image identification, patient records, quality-control practices, and confidentiality in the clinical environment.
CO6: Demonstrate professional communication, teamwork, ethical conduct, accountability, and safe patient-centered practice during clinical radiology studentship.

3RD SEMESTER SUBJECTS

Semester 3rd (electives of CT Technology)

Provides advanced knowledge of computed tomography principles, including CT physics, image formation, data acquisition, reconstruction techniques, image quality, radiation dose, and safety considerations.

Course Outcome:

CO1: Should gain a comprehensive understanding of the principles behind CT imaging, including the physics and technology involved in generating cross-sectional images.
CO2: Will learn the practical aspects of CT scanning such as patient positioning, selection of appropriate protocols and the use of contrast agents.
CO3: Students should be able to explain the process of image reconstruction in CT and understand how raw data is transformed into meaningful images.
CO4: Will learn to assess CT image quality and identify common imaging artefacts, as well as strategies to minimize or correct these artefacts.

Develops competency in CT patient preparation, positioning, scanning techniques, contrast-enhanced examinations, protocol selection, image acquisition, reconstruction, and optimization of CT studies.

Course Outcome:

CO1: CT procedures and scanning protocols result in high-quality images that allow radiologists and healthcare professionals to make accurate and precise diagnoses. Clear and detailed CT images aid in identifying and characterizing various medical conditions, such as tumors, fractures, infections, and other abnormalities.
CO2: Will be able to acquire Accurate CT imaging helps healthcare providers create effective treatment plans for patients. The information obtained from CT scans can guide surgical procedures, radiation therapy, and other interventions, leading to improved patient outcomes.
CO3: Must follow appropriate scanning protocols and employ dose reduction techniques to minimize the amount of radiation the patient receives during the scan. This ensures that the benefits of the CT scan outweigh any potential risks associated with radiation exposure.

Provides comprehensive knowledge of regional and cross-sectional human anatomy relevant to CT imaging, enabling accurate anatomical identification and correlation with sectional imaging findings.

Course Outcome:

CO1: Describe the normal anatomy and anatomical relationships of major body regions relevant to diagnostic CT imaging.
CO2: Identify normal anatomical structures and tissue planes in axial, coronal, and sagittal CT images.
CO3: Correlate sectional anatomy with conventional anatomical landmarks and three-dimensional spatial relationships.
CO4: Recognize common anatomical variations and differentiate normal structures from potential pathological appearances at a basic level.
CO5: Apply anatomical knowledge to appropriate patient positioning, scan planning, image acquisition, and evaluation of CT examinations.
CO6: Integrate cross-sectional anatomical knowledge with clinical indications to support accurate image interpretation, communication, and appropriate professional referral.

Provides supervised clinical training in CT and radiology services, enabling students to apply CT imaging principles, follow standardized scanning protocols, ensure patient and radiation safety, and develop professional clinical competencies.

Course Outcome:

CO1: Demonstrate developing clinical competency in CT department workflow, patient care, and examination procedures under professional supervision.
CO2: Assist with patient identification, preparation, positioning, and communication for routine and specialized CT examinations.
CO3: Demonstrate appropriate understanding and supervised application of CT scanning protocols, technical parameters, and image acquisition procedures.
CO4: Apply principles of radiation protection, dose optimization, contrast-media safety, infection prevention, and patient monitoring during CT examinations.
CO5: Evaluate basic CT images for positioning, anatomical coverage, image quality, and common technical artifacts under supervision.
CO6: Maintain accurate clinical documentation and demonstrate professional communication, teamwork, ethical conduct, accountability, and patient-centred practice in the CT environment.

Semester 3rd (electives of MRI Technology)

Provides advanced knowledge of magnetic resonance imaging principles, including magnetic fields, radiofrequency pulses, signal generation, image formation, pulse sequences, image contrast, safety, and factors affecting MR image quality.

Course Outcome:

CO1: Identify the basic physical concepts involved in MRI
CO2: Understand the various imaging parameters that determine image contrast.
CO3: Describe the various image weighting techniques and its application
CO4: To comprehend principles of gradients and spatial encoding.
CO5: Concept of K- space and its traversal involved in MR image formation.
CO6: Knowledge of image quality in MRI images.
CO7: Apply MR imaging parameters in the clinical setting and its trade-off to optimize image quality.
CO8: Ability to minimize image artifacts and understand various Quality assurance tests.
CO9: Precautions and care required during MR Imaging.

Develops competencies in MR patient preparation, positioning, screening, coil selection, scanning techniques, protocol selection, pulse sequences, image acquisition, and optimization of MR examinations.

Course Outcome:

CO1: Identify the indications and contraindications for various protocols
CO2: Understand the various patient preparation aspects, including history taking and screening.
CO3: Describe the parameters and sequences used to acquire necessary images.
CO4: To comprehend principles of image quality for each type of protocol and the trade-off.
CO5: Types of coils used, positioning and landmark for each anatomical examination.
CO6: Knowledge of Post procedural care.

Provides comprehensive knowledge of regional and cross-sectional human anatomy relevant to MR imaging, enabling accurate identification of anatomical structures and correlation with multiplanar MR images.

Course Outcome:

CO1: Identify the cross –sectional anatomical structures with ease
CO2: Understand the various post processing techniques to optimize anatomical visualization.
CO3: Identify the various blood vessels or nerves and its anatomical correlation.
CO4: To comprehend principles of image quality for each type of protocol based on anatomical structure
CO5: Types of coils used, positioning and landmark for each anatomical examination.
CO6: Knowledge of various pathological conditions and the special sequences used to optimize its visualization.

Provides supervised clinical training in MR imaging and radiology services, enabling students to apply MRI principles and scanning protocols, ensure patient and MRI safety, optimize image acquisition, and develop professional clinical competencies.

Course Outcome:

CO1: Demonstrate developing clinical competency in MRI department workflow, patient care, and examination procedures under professional supervision.
CO2: Assist with MRI patient screening, preparation, positioning, communication, and safety checks before and during examinations.
CO3: Demonstrate appropriate understanding and supervised application of MRI protocols, pulse sequences, coils, and scanning parameters.
CO4: Apply MRI safety principles related to magnetic fields, implants, devices, contrast media, infection prevention, and emergency procedures.
CO5: Evaluate basic MR images for anatomical coverage, image quality, artifacts, and technical adequacy under supervision.
CO6: Maintain accurate clinical documentation and demonstrate professional communication, teamwork, ethical conduct, accountability, and patient-centred practice in the MRI environment.

Semester 3rd (electives of Breast Imaging Technology)

Provides advanced knowledge of breast imaging principles, imaging modalities, image formation, equipment, image quality, radiation safety, and the role of breast imaging in screening and diagnosis.

Course Outcome:

C01: Understand the various components of the mammographic equipment, properly operate it and demonstrate the correct use of compression devices, filtration devices, the magnification setup, exposure controls etc.
C02: State the specifications and parameters of physical principles related to mammography (eg. half- value layer, focal spot size, heel effect, source-to-image distance and the minimum requirements).
C03: Explain the significance of target/filter combinations.
C04: Differentiate between the various types of x-ray generators used in mammography.
C05: Discuss and define digital mammography.
C06: Define compression, its usefulness and minimum and maximum requirements.
C07: State the purpose of magnification.
C08: Process digital images if available.
C09: Describe a picture archiving and communications system (PACS) and its function.
C010: Define digital imaging and communications in medicine (DICOM).
C011: Discuss the image storage and viewing capabilities related to digital mammography

Develops competencies in patient preparation, positioning, breast imaging techniques, protocol selection, image acquisition, quality optimization, and safe performance of specialized breast imaging examinations.

Course Outcome:

C01: Illustrate the sterile technique.
C02: Describe localization techniques.
C03: Describe biopsy techniques.
C04: Delineate galactography.
C05: Describe specimen imaging guidelines.
C06: Describe specimen handling and record keeping for pathologic analysis.
C07: Describe continuous patient care from pre-biopsy topostbiopsy.
C08: Define patient transport requirements pre and post biopsy

Provides comprehensive knowledge of normal breast anatomy and cross-sectional anatomical relationships relevant to breast imaging, enabling accurate identification and correlation of anatomical structures on diagnostic images.

Course Outcome:

CO1: Describe breast structure, developmental stages, and the differences between the male and female breast.
CO2: Identify and label external and internal anatomy of the breast.
CO3: Identify and label the breakdown of the single lobe.
CO4: Identify the three arterial branches supplying the breast and the three venous drainage channels.
CO5: Describe the lymphatic system and lymphatic drainage.
CO6: Correlate breast anatomical structures to mammographic anatomical structures.

Provides supervised clinical training in breast imaging and radiology services, enabling students to apply imaging protocols, ensure patient comfort and safety, optimize image acquisition, and develop professional clinical competencies.

Course Outcome:

CO1: Demonstrate developing clinical competency in breast imaging department workflow, patient care, and examination procedures under professional supervision.
CO2: Assist with patient identification, preparation, positioning, communication, breast compression, and examination protocols during mammography and other breast imaging procedures.
CO3: Demonstrate appropriate understanding and supervised application of mammography equipment, imaging techniques, scanning parameters, and image acquisition procedures.
CO4: Apply principles of radiation protection, infection prevention, patient privacy, comfort, safety, and quality assurance during breast imaging procedures.
CO5: Evaluate breast images for positioning, anatomical coverage, image quality, artifacts, and technical adequacy under supervision.
CO6: Maintain accurate clinical documentation and demonstrate professional communication, teamwork, ethical conduct, confidentiality, accountability, and patient-centred care in the breast imaging environment.

4TH SEMESTER SUBJECTS

Semester 4th (electives of CT Technology)

Provides advanced knowledge of emerging CT technologies, including multidetector CT, dual-energy CT, spectral imaging, advanced reconstruction techniques, dose optimization, and evolving CT applications.

Course Outcome:

CO1: Will gain a comprehensive understanding of the latest advancements and cutting-edge techniques in CT imaging. This knowledge may include advanced imaging protocols, reconstruction methods and clinical applications.
CO2: Will give a deeper understanding of advanced CT techniques, participants can potentially improve diagnostic accuracy, leading to better patient outcomes and more effective treatment planning.
CO3: Involved in research and development, the course may inspire new ideas and insights that contribute to the ongoing advancement of CT technology and medical imaging.
CO4: Completion of this advanced course may provide continuing education credits or professional development recognition for individuals in the medical field.
CO5: Acquiring knowledge and skills in advanced CT techniques could lead to expanded career opportunities or increased responsibilities within their respective workplaces

Develops competencies in CT quality assurance, radiation protection, dose optimization, patient safety, infection control, patient preparation, communication, and provision of patient-centred care during CT examinations.

Course Outcome:

CO1: Should gain a comprehensive understanding of the principles of ionizing radiation, its interaction with human tissues, and the potential risks associated with radiation exposure.
CO2: Will be familiarized with the ALARA (As Low As Reasonably Achievable) principle and learn techniques to minimize radiation dose to patients while maintaining image quality.
CO3: Should learn strategies for optimizing CT scanning protocols and adjusting parameters to achieve appropriate image quality with the lowest possible radiation dose.
CO4: Radiation Protection Guidelines: Participants will be introduced to national and international radiation protection guidelines specific to CT imaging.
CO5: Will learn proper patient positioning and centering techniques to ensure accurate imaging and reduce the need for repeat scans.
CO6: Should be aware of the unique considerations and radiation protection protocols when imaging paediatric and pregnant patients.
CO7: Will understand the use of contrast agents in CT imaging, their potential risks, and the importance of proper patient screening for allergies and contraindications.
CO8: Should understand the importance of infection control practices in the CT environment, including equipment cleaning and proper hygiene measures.
CO9: Will become aware of ethical and legal responsibilities in providing radiation protection and patient care in CT imaging.
CO10: Will be educated on safety measures and protocols to protect healthcare professionals and staff working in the CT department.

Provides foundational knowledge of common pathological conditions and develops skills in systematic CT image evaluation, recognition of normal and abnormal findings, and correlation of imaging appearances with clinical conditions.

Course Outcome:

CO1: To Identify diseases and abnormalities at an early stage often leads to better patient outcomes.
CO2: Learn the extent and location of pathologies, aiding in precise diagnosis and treatment planning.
CO3: Will learn CT guide certain medical procedures such as biopsies, drainages, and needle aspirations

Develops research competencies through systematic investigation, literature review, research methodology, data analysis, interpretation of findings, scientific writing, and presentation of a research dissertation in medical radiology and imaging technology.

Course Outcome:

CO1: Identify and formulate a relevant research problem related to medical radiology and imaging technology.
CO2: Conduct a systematic review of relevant scientific literature and establish appropriate research objectives and methodology.
CO3: Apply appropriate research methods, ethical principles, data-collection techniques, and scientific procedures to conduct the study.
CO4: Analyze, interpret, and critically evaluate research data using appropriate statistical and scientific methods.
CO5: Prepare a comprehensive dissertation incorporating scientific writing, appropriate referencing, discussion of findings, limitations, and conclusions.
CO6: Present and defend the dissertation effectively while demonstrating scientific integrity, critical thinking, evidence-based reasoning, and responsible research conduct.

Provides supervised advanced clinical training in radiology and CT imaging services, enabling students to integrate theoretical knowledge with clinical practice, optimize imaging procedures, maintain radiation and patient safety, and demonstrate professional competencies.

Course Outcome:

CO1: Demonstrate developing clinical competency in advanced CT procedures and radiology department workflow under professional supervision.
CO2: Assist in patient preparation, positioning, protocol selection, scanning, contrast administration, and post-examination care according to established procedures.
CO3: Apply principles of CT dose optimization, radiation protection, quality assurance, infection prevention, and patient safety during clinical practice.
CO4: Evaluate CT images for positioning, anatomical coverage, technical adequacy, image quality, artifacts, and basic pathological findings under supervision.
CO5: Maintain accurate patient records, examination documentation, quality-control records, and professional confidentiality.
CO6: Demonstrate professional communication, teamwork, ethical conduct, accountability, clinical reasoning, and patient-centred practice in advanced CT and radiology services.

Semester 4th (electives of MRI Technology)

Provides advanced knowledge of emerging MRI technologies, including high-field MRI, diffusion and perfusion imaging, functional MRI, advanced pulse sequences, parallel imaging, and artificial intelligence applications in MR imaging.

Course Outcome:

CO1: Understand the basic principles of advanced techniques of MRI
CO2: To constantly stay abreast of the latest advancements and innovations in the field of MRI
CO3: Identify the various Diffusion related processes and its applications.
CO4: To comprehend principles of magnetic susceptibility and its uses.
CO5: Advancement in the hardware, software and post-processing techniques.
CO6: Knowledge of various pathological conditions and the special sequences or protocols/procedures performed to optimize its visualization.

Develops competencies in MRI examination planning, patient screening and preparation, MRI safety, contraindication assessment, positioning, communication, and provision of safe and patient-centred care.

Course Outcome:

CO1: Understand the basic safety measures to be taken while performing MRI
CO2: To Ensure optimum patient care
CO3: Identify the various MRI compatible/conditional and non compatible devices and warn patients accordingly.
CO4: To comprehend the various hazards involved in MRI and to know how to prevent Accidents.
CO5: To learn the various MRI facility zones and other MRI Safety considerations

Provides foundational knowledge of common pathologies and develops skills in systematic MR image evaluation, recognition of normal and abnormal imaging appearances, and correlation of MRI findings with clinical conditions.

Course Outcome:

To identify diseases and abnormalities at an early stage often leads to better patient outcomes.
Learn the extent and location of pathologies, aiding in precise diagnosis and treatment planning.
Will learn MR guide certain medical procedures such as biopsies, drainages, and needle aspirations. Image-guided procedures improve accuracy, minimize risks, and reduce the need for exploratory surgeries.

Develops research competencies through formulation of a research problem, literature review, research methodology, data collection and analysis, interpretation of findings, scientific writing, and presentation of a dissertation in medical radiology and imaging technology.

Course Outcome:

CO1: Identify and formulate a relevant research problem in medical radiology and imaging technology based on scientific literature.
CO2: Develop appropriate research objectives, methodology, study design, and ethical procedures for conducting the dissertation.
CO3: Conduct systematic data collection, documentation, and management while maintaining research ethics, confidentiality, and data integrity.
CO4: Apply appropriate statistical and analytical methods to analyze and interpret research findings.
CO5: Critically discuss research findings in relation to existing literature, clinical relevance, limitations, and potential applications.
CO6: Prepare, present, and defend a comprehensive dissertation demonstrating scientific communication, critical thinking, evidence-based reasoning, and research integrity.

Semester 4th (electives of Breast Imaging Technology)

Provides advanced knowledge of emerging breast imaging technologies, including digital breast tomosynthesis, contrast-enhanced mammography, breast MRI, automated breast ultrasound, artificial intelligence, and other contemporary diagnostic applications.

Course Outcome:

CO1: Describe the uses of computer-aided detection for mammography images.
CO2: Describe the basic theory of digital breast tomosynthesis including appropriate use.
CO3: Identify the value of biomarkers and those specific to breast imaging modalities.
CO4: Discuss dual energy contrast digital mammography and its appropriate use.
CO5: Describe the potential benefits and use of breast elastography.
CO6: Discuss the potential benefits and use of nuclear medicine studies.
CO7: Describe the use of 3-Dsonography.
CO8: Discuss the potential benefits and use of abbreviated breast MRI.
CO9: Discuss the use of computed tomography laser mammography (CTLM) and thermography

Develops competencies in quality assurance, radiation protection, dose optimization, infection prevention, patient preparation, communication, privacy, comfort, and safe patient-centred care during breast imaging procedures.

Course Outcome:

C01: Identify and justify the need to minimize unnecessary radiation exposure of humans.
C02: Explain the objectives of a radiation protection program.
C03: Define radiation and radioactivity units of measurement.
C04: Identify effective dose limits(EDL) for occupational and non-occupational radiation exposure.
C05: Describe the ALARA concept.
C06: Identify ionizing radiation sourcesfrom natural and man-made sources.
C07: Comply with legal and ethical radiation protection responsibilities of radiation workers.
C08: Identify appropriate applications and limitationsfor each radiation detection device.
C09: Describe how iso-exposure curves are used for radiation protection.
C010: Identify performance standards for beam-limiting devices.
C011: Distinguish between controlled and non-controlled areas and list acceptable exposure levels.
C012: Describe the function of federal, state and local regulations governing radiation protectionpractices.
C013: Role of Radiation safety officer
C014: Describe personnel monitoring devices, including applications, advantages and limitations foreach device.
C015: Compare values for individual effective dose limits for occupational radiation exposures (annual and lifetime).
C016: Identify effective dose limits for the embryo and fetusin occupationally exposed women.
C017: Distinguish between primary and secondary radiation barriers.
C018: Demonstrate how the operation of various x-ray and ancillary equipment influences radiationsafety and describe the potential consequences of equipment failure

Provides foundational knowledge of common breast pathologies and develops skills in systematic interpretation of breast images, recognition of normal and abnormal imaging features, and correlation of imaging findings with clinical conditions.

Course Outcome:

CO1: Discuss the factors and physiologic changes that will affect breast tissue composition.
CO2: Identify physical changes of the breast.
CO4: Correlate clinical breast changes with imaging findings, and comparison with previous mammograms.
CO5: Identify the mammographic appearance of pathologies.
CO6: Describe assessment categories and the recommended clinical follow up.
CO7: Identify the high risk and low risk factors limited to breast cancer.
CO8: Describe the etiology, mammographic appearance, diagnosis and treatment of benignbreast pathologies.
CO9: Describe the etiology, mammographic appearance, diagnosis and treatment of malignant breast pathology.
CO10: Identify the procedures used to diagnosis breast cancer.
CO11: Describe treatment options for breast cancer.
CO12: Explain breast cancer stages 0 to IV and stage characteristics.
CO13: Explain tumor node metastasis (TNM) classifications of breast cancer.
CO14: Identify the significance of breast cancer detection through patient screening anddiagnostic mammograms.
CO15: Discuss the practice of clinical breast examinations and breast self-examinations, and current evidence-based data about them.
CO16: Identify the risk factors associated with breast cancer.

Develops advanced research competencies through research planning, literature review, methodology, data collection and analysis, interpretation of findings, scientific writing, and preparation and presentation of a dissertation in medical radiology and imaging technology.

Course Outcome:

CO1: Identify and formulate a relevant research problem related to breast imaging, radiology, or medical imaging technology.
CO2: Develop appropriate research objectives, study design, methodology, ethical procedures, and data-collection strategies for the dissertation.
CO3: Conduct systematic research while maintaining ethical standards, participant confidentiality, accurate documentation, and data integrity.
CO4: Apply appropriate statistical and analytical methods to analyze and interpret research data and findings.
CO5: Critically discuss research findings in relation to existing scientific literature, clinical relevance, limitations, and potential applications.
CO6: Prepare, present, and defend the dissertation effectively, demonstrating scientific communication, critical thinking, evidence-based reasoning, and research integrity.

Provides supervised advanced clinical training in breast imaging and radiology services, enabling students to apply specialized imaging protocols, maintain radiation and patient safety, optimize image quality, assist in diagnostic procedures, and demonstrate professional clinical competencies.

Course Outcome:

CO1: Demonstrate developing clinical competency in breast imaging workflow, patient care, and specialized radiological procedures under professional supervision.
CO2: Assist in patient preparation, positioning, mammographic imaging, breast compression, ultrasound procedures, and other breast imaging examinations according to established protocols.
CO3: Demonstrate appropriate understanding and supervised application of breast imaging equipment, techniques, protocols, and image acquisition procedures.
CO4: Apply principles of radiation protection, dose optimization, infection prevention, patient privacy, comfort, safety, and quality assurance during breast imaging practice.
CO5: Evaluate breast images for positioning, anatomical coverage, image quality, artifacts, and basic pathological appearances under supervision.
CO6: Maintain accurate clinical documentation and demonstrate professional communication, teamwork, ethical conduct, confidentiality, accountability, and patient-centred care in the breast imaging environment.

Admissions Open 2026-27

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Master in Medical Radiology & Imaging Technology

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Course Curriculum

1ST SEMESTER SUBJECTS

Radiological and Medical Physics

Clinical Special Radiography Positioning

Biostatistics and Research Methodology

MMRIT Radiology Clinical Education –part I (studentship)

2ND SEMESTER SUBJECTS

Modern Radiological Imaging -Equipment and Physics

Modern Imaging and Special Radiological Procedures

Contrast Media and Interventional Radiology

MMRIT Radiology Clinical Education -part II (studentship)*

3RD SEMESTER SUBJECTS

Semester 3rd (electives of CT Technology)

Principles of CT Imaging Technology

CT Imaging Procedures and Scanning Protocols

Basic and Cross-Sectional Anatomy in CT Imaging

MMRIT Radiology Clinical Education -part III (studentship)*

Semester 3rd (electives of MRI Technology)

Principles of MR Imaging Technology

MR Imaging Procedures and Scanning Protocols

Basic and Cross Sectional Anatomy in MR Imaging

MMRIT Radiology Clinical Education -part III (studentship)*

Semester 3rd (electives of Breast Imaging Technology)

Principles of Breast Imaging Technology

Breast Imaging Procedures and Scanning Protocols

Basics and Cross sectional anatomy of Breast

MMRIT Radiology Clinical Education - part III (studentship)*

4TH SEMESTER SUBJECTS

Semester 4th (electives of CT Technology)

Advancement s in CT Technology

Quality Assurance, Radiation Protection and Patient care in CT Imaging

Basic Pathology and Image Interpretation in CT Imaging

Dissertation

RMMRIT Radiology Clinical Education - part IV (studentship)*

Semester 4th (electives of MRI Technology)

Advancements in MR Imaging Technology

Planning, Safety and Patient care in MR Imaging

Basics Pathology and Image Interpretation in MR Imaging

Dissertation

Semester 4th (electives of Breast Imaging Technology)

Advancements in Breast Imaging Technology

Quality Assurance, Radiation Protection and Patient care in Breast Imaging

Basics Pathology and Image Interpretation in Breast Imaging

Dissertation

MMRIT Radiology Clinical Education - part IV (studentship)*

Program Outcomes & Features

Program Outcomes

Program Specific Outcomes

Admissions
Open 2026-27

Industry-oriented
learning

Modern campus
facilities

Academic excellence &
mentorship

Global opportunities &
placements