The BSc in Medical Imaging Technology (BSc MIT) at Universal College of Medical Sciences and Teaching Hospital (UCMS), Rupandehi is a four-year undergraduate health-science program affiliated with Tribhuvan University (TU).
The course follows the academic structure of the Institute of Medicine, Tribhuvan University (TU-IOM). It prepares students in radiography and medical imaging through the study of X-ray procedures, imaging equipment, radiographic techniques, computed tomography (CT), magnetic resonance imaging (MRI), mammography, ultrasonography, fluoroscopic and interventional procedures, radiation safety, patient care, and quality assurance.
BSc MIT combines physical and health sciences with technical imaging education. Students begin with anatomy, physiology, radiation physics, equipment, radiographic photography, and basic radiographic techniques before moving into clinical radiology, cross-sectional anatomy, modern imaging technology, special imaging techniques, CT, MRI, mammography, and ultrasonography.
| Field | Details |
|---|---|
| Course | Bachelor of Science in Medical Imaging Technology (BSc MIT) |
| College | Universal College of Medical Sciences (UCMS) |
| Location | Bhairahawa, Rupandehi, Nepal |
| Affiliation | Tribhuvan University |
| Academic Unit | Institute of Medicine |
| Level | Bachelor |
| Duration | 4 years |
| Entrance | MECEE-BL |
| Admission Authority | Medical Education Commission |
| Field | Medical Imaging Technology |
| Professional Council | Nepal Health Professional Council |
The degree is recognized by the Nepal Health Professional Council. Professional practice after graduation remains subject to the applicable registration and licensing requirements.
Medical imaging technology involves the use of imaging procedures to support the investigation of disease and other health conditions.
The course develops technical knowledge as well as patient-care skills. Students learn how imaging procedures are carried out, how equipment is used, how radiation protection is maintained, and how patients are cared for during radiological procedures.
The stated learning outcomes include preparation in:
These areas show that BSc MIT is not limited to basic X-ray work. The curriculum progressively introduces several major imaging technologies used in radiological practice.
BSc MIT accepts candidates through specified science and health-science education routes.
Eligibility:
Candidates who have completed Proficiency Certificate Level, Grade 12 Science, A-Level, or an equivalent qualification may apply when they have studied Physics, Chemistry, and Biology and achieved at least 50% or 2.4 CGPA under the stated eligibility requirements.
Specified health-science diploma qualifications may also provide an entry route. These include qualifications in areas such as:
Applicants entering through the applicable health-science diploma route must meet the prescribed academic requirements. Where Grade 12 Science equivalence is required, candidates must satisfy the relevant Physics, Chemistry, and Biology conditions and obtain the necessary equivalence.
Registration with the concerned professional council is also required for candidates entering through professional health-science qualifications where applicable.
Admission to BSc MIT is conducted through the Medical Education Common Entrance Examination for Bachelor Level (MECEE-BL).
The Medical Education Commission (MEC) manages the common entrance, merit, matching, seat allocation, scholarship provisions, fee structure, and admission procedures for the program.
Meeting the academic eligibility requirement alone does not complete the admission process. Candidates must participate in the applicable entrance and selection procedures and obtain institutional placement according to the prevailing MEC rules.
Candidates selected for admission may be required to submit documents such as:
Seats, scholarships, fees, matching procedures, and admission schedules may change according to MEC decisions. These should be treated as admission-year information rather than permanent course details.
The four-year curriculum develops imaging knowledge step by step. The first year establishes basic sciences and radiography, while later years move into clinical radiology, modern imaging, special procedures, quality assurance, and advanced imaging technologies.
The first year introduces the scientific and technical foundations of medical imaging.
Students study:
Human Anatomy and Human Physiology provide the biological knowledge needed to understand the structures and functions being examined through imaging.
Basic Radiation Physics introduces the physical principles behind radiographic imaging. Radiographic Equipment develops knowledge of the machines and technical systems used for imaging.
Radiographic Photography and Radiographic Technique introduce the methods involved in producing diagnostic images.
Hospital Practice and Patient Care adds an important clinical element from the first year. Medical imaging professionals work directly with patients, so technical ability must be combined with appropriate patient preparation and care.
Practical in Radiography connects the theoretical subjects with hands-on learning.
The second year develops deeper understanding of radiological procedures and modern imaging science.
Subjects include:
Radiological Cross-Sectional Anatomy becomes increasingly important as students progress toward imaging methods such as CT and MRI, where anatomy is viewed in sectional images.
Clinical Radiology introduces the clinical use of imaging and its relation to disease investigation.
Physics of Modern Medical Imaging Technology extends the student's understanding beyond conventional radiography and prepares the scientific base needed for advanced imaging.
Biostatistics and Research Methodology introduces research principles and the use of data in health sciences.
Practical in Radiography and Radiological Procedures continues the hands-on side of the course.
The third year introduces specialized imaging, quality control, equipment technology, management, and project work.
Students study:
Special Imaging Technique develops knowledge beyond routine radiographic procedures.
Quality Assurance in Radiodiagnosis is particularly important because imaging services depend on consistent image quality, safe procedures, suitable equipment performance, and responsible use of radiation.
Basic X-ray Engineering develops technical understanding of imaging equipment. This supports the learning outcome related to keeping X-ray equipment in working condition and identifying equipment problems that require attention.
Information Technology reflects the increasing role of digital systems in imaging, while Healthcare Management introduces organizational aspects of health services.
Project Work gives students an opportunity to apply structured academic study to an imaging-related subject.
The final year focuses directly on the major imaging procedures and technologies used in medical imaging practice.
Students study:
General Radiography develops the student's competence in standard radiographic procedures.
Fluoroscopic and interventional procedures introduce imaging used during diagnostic and interventional work.
Computed Tomography develops knowledge of cross-sectional imaging using CT, while Magnetic Resonance Imaging introduces MRI procedures and their technical requirements.
Mammography focuses on breast imaging, and Ultrasonography introduces imaging performed using ultrasound.
By the final year, students have moved from basic radiographic principles to several specialized imaging modalities.
Practical education runs through several stages of the BSc MIT curriculum.
The first year includes Practical in Radiography and Hospital Practice and Patient Care. The second year includes Practical in Radiography and Radiological Procedures, while the third year includes Practical in Radiology and Imaging Techniques.
This progression is important because imaging professionals need to combine technical accuracy with appropriate patient care.
Students learn to work around radiographic equipment while understanding how patients should be positioned, prepared, and cared for during procedures. The learning outcomes also include responsibility for identifying technical problems and reporting them to the appropriate authority.
UCMS has an associated teaching hospital used for clinical education. BSc MIT students study within a medical college that also provides education in medicine, dentistry, nursing, pharmacy, public health, and medical laboratory technology.
Radiation safety is a central part of medical imaging education.
Students begin with Basic Radiation Physics in the first year and later study subjects such as Quality Assurance in Radiodiagnosis and advanced imaging procedures.
The course also includes learning about radiation protection protocols used in radiodiagnosis departments.
This is an important professional responsibility because medical imaging technology involves procedures where students must understand not only how an image is produced but also how radiation is handled appropriately.
Radiation physics, equipment knowledge, radiographic technique, quality assurance, and radiation protection therefore work together throughout the course.
BSc MIT includes specific study of radiographic equipment and X-ray engineering.
Students learn about:
This technical component distinguishes medical imaging technology from courses that use imaging results without operating the imaging systems themselves.
The student is expected to understand both the imaging procedure and the equipment involved in producing the image.
The course includes Biostatistics and Research Methodology in the second year and Project Work in the third year.
These subjects introduce students to scientific inquiry, research methods, data, and structured academic work.
Quality Assurance in Radiodiagnosis adds another important dimension. Medical images need to be produced according to appropriate technical standards, and imaging services also require attention to equipment performance and radiation safety.
Research, project work, and quality assurance therefore complement the technical imaging subjects.
By completing BSc MIT, students develop knowledge and skills in areas such as:
These are areas of academic and practical preparation. Completion of the degree does not guarantee a particular appointment or employment outcome.
BSc MIT is associated with the Nepal Health Professional Council (NHPC), and the degree is recognized by the council.
Academic completion and professional authorization are separate stages. After completing the degree, graduates entering professional practice must fulfill the applicable NHPC licensing and registration requirements.
The process can be understood as:
BSc in Medical Imaging Technology at UCMS is a four-year undergraduate program.
The program is affiliated with Tribhuvan University and follows the academic structure of the Institute of Medicine.
Yes. Admission is conducted through MECEE-BL and the applicable Medical Education Commission selection process.
The main Grade 12 or equivalent route requires Physics, Chemistry, and Biology with the prescribed minimum academic result.
Specified health-science diploma holders may qualify when they meet the prescribed academic, equivalence, science-subject, and professional registration requirements.
The curriculum includes radiography, CT, MRI, mammography, ultrasonography, fluoroscopic and interventional procedures, and special imaging techniques.
Yes. Students study radiation physics, quality assurance, and radiation protection related to radiodiagnosis.
Yes. Practical radiography and imaging training appears across multiple academic years, together with hospital practice and patient care.
Yes. The curriculum includes Biostatistics and Research Methodology as well as Project Work.
Graduates entering professional practice must meet the applicable Nepal Health Professional Council licensing and registration requirements.
