In recent years, a lot of significant changes have been made in the field of medical imaging. Those developments have ushered a new era of possibilities for diagnostics, radiography, radiology, and imaging technology professionals. For high school students, especially in Class 11-12, the field of medical radiology and imaging technology is an exciting career option. In this article, we will talk about why BSc Medical Radiology and Imaging Technology (BMRIT) graduates are so much in demand by hospitals, diagnostic centres, research institutes, and medical devices companies.
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Students can get into the field of medical radiology via two options:
MBBS followed by MD Radiology or DNB Radiodiagnosis and then Residency route: which will take around 8 - 10 years
BSc Medical Radiology and Imaging Technology (followed by MSc, desirable for better career outcome) route: which will take 3 - 6 years
In this article, we will discuss the shorter route, which is also more specialized. More importantly, this article will cover an overview of the field of medical radiology and imaging technology, different types of medical imaging, the latest advancements, and career scopes of medical radiology & imaging technology in the clinical and research spaces, top job roles, top recruiters and salaries after pursuing BMRIT after 12th.
Medical imaging is the process of visual representation of structures and functions of different organs and tissues of the human body during normal and pathological states. So, it’s like taking pictures of the interior of our body. The objective of medical imaging is to diagnose, treat and monitor various medical conditions and diseases.
Radiology is the medical specialty that involves analysis and interpretation of medical images (captured through imaging technology). On the other hand, the process of capturing those images using imaging technology is referred to as radiography. People sometimes use the radiology term for radiography; but both are different in technical terms and also in purposes. Here is a short video to understand the terms in simple terms:
Radiologists are the medical doctors (MBBS + MD/DNB) having advanced training in diagnostics and medical imaging. Their key responsibilities include
Establishing underlying diagnosis
Assessing the results of specific treatments or therapies
Monitoring for a wide range of medical conditions across a specific timelines
Radiologists study and interpret imaging results (X-Ray, CT or MRI scan), often incorporating a comparison with previous examinations, and prepare detailed reports. They themselves do not operate medical devices and do not perform the medical imaging process except in special cases.
Radiographers are allied and healthcare professionals (AHPs), who are medical imaging experts, often specialized in one area (say MRI & CT scan or Ultrasonography scan). Unlike radiologists, radiographers complete a specialist academic and training program (e.g. BSc Radiography/Radiology and Medical Imaging), which on average takes 3-4 years to complete. Senior radiographers are mostly MSc degree holders in the clinical (sometimes even PhD degree holders), mostly PhD degree holders in the research vertical (identification and validation of new tools and techniques to capture clearer images).
In India, most of the courses are named as BSc Medical Radiology and Medical Imaging Technology or BSc Radiology, and a few courses as BSc Medical Radiography and Imaging Technology. So, we will go by the “Radiology” term.
Modern medicine and healthcare depend a lot on radiography (or radiology in layman’s terms) and medical imaging. Today, any kind of treatment or surgery starts with an imaging scan first. It’s a very effective way to see the body’s internal organs and functioning. Hence, medical imaging plays a vital role in the diagnosis of medical (or physiological) abnormalities and therapy.
Why BMRIT is a good career option after 12th PCB
Firstly, there is a massive demand for BMRIT graduates in the job market. Below are the key reasons for the rising demand for medical radiology and imaging technology professionals.
Accurate Diagnosis and Treatment Planning: Medical imaging helps doctors to find out what’s happening inside (broken bones, tumor or infections); thus helps in treatment planning.
Non-invasive Nature: Majority of scans don’t need cuts or instruments inside the body, which means no/less pain, safer and faster recovery.
Early Diagnosis of Diseases: Imaging can detect diseases much early, like cancer, stroke, heart problems and hence better & effective treatment can be planned.
Guidance for Surgical Procedures: Scans like CT, MRI, ultrasound, etc. helps doctors before & during surgeries for safe & precise operations.
Monitoring Treatment Progress: Imaging can help to find out whether a particular treatment or therapy is working (e.g. if a tumor is shrinking or a fracture is healing)
Research and Development: Medical imaging supports physicians and scientists to understand new diseases, develop new treatments, and even develop new tools & devices for better diagnoses.
Personalized Medicine: Since scans show an individual’s unique internal structure & function, they help doctors to design treatment plans that fit individual needs.
Patient Education: While seeing their own images, patients can understand their own conditions and make better informed decisions.
Emergency and Trauma Care: In cases of accidents and trauma, quick scans can help doctors to act fast, especially in cases of internal bleeding.
Paediatric Care: More often than not, kids struggle to explain their symptoms well. Medical imaging helps doctors to diagnose problems accurately and painlessly.
Quality Assurance & Training: Medical imaging helps medical and allied & healthcare students learn more about anatomy and diagnostic procedures.
India needs at least 10,000 qualified and skilled radiology and imaging technology specialists. Below are the key reasons for the growing demand:
Huge Shortage of skilled imaging technology specialists: Given India’s huge population and other factors, the available number of trained radiology technicians and imaging technologists is very low.
Rising Demand for Radiology and Imaging Services: Driven by an ageing population, rise in lifestyle diseases, burnouts (especially post-COVID), and rising accident cases, there has been a rising demand for diagnostics services, including radiology and medical imaging services.
Uneven Distribution of Trained Specialists: The majority of specialists are based in metros and Tier-1 cities. However, there is a severe shortage in Tier-2/Tier-3 towns and rural areas.
Increased Use of Hi-Tech Imaging and Advanced Equipment: There are not only 3 or 5 types of medical imaging. There are around 20 types; it will be discussed in the next section. So, not a single person can specialize in all of them. Moreover, modern imaging tools like CT, MRI, SPECT, ultrasound, etc. require specialized training to operate safely and correctly. This also drives the demand for certified imaging technology specialists who understand both technology and patient care.
Increasing Use of AI in Radiology and Imaging Technology: AI is being rapidly adopted in medical imaging to help detect diseases faster, read scans more accurately, and manage large volumes of imaging data. Sophisticated AI tools also require skilled technologists to work alongside doctors, nurses and other AHPs. Read more about AI in Imaging: How Technology is Transforming Radiology Careers.
Well, the simple reason is that there are many types of medical imaging. The area of Medical Radiology and Imaging Technology is highly complex, as it incorporates various highly specialized imaging technologies, Physics, Computers, as well as the safety of patients. Although there are only 6 to 8 core imaging technologies at the B.Sc. level, patient safety is a highly precise, multidisciplinary, as well as dynamic domain involving ongoing advancements in healthcare innovations. Below is a list of different types of medical imaging:
Type of Medical Imaging (Not every type will be covered in B.Sc. MRIT Course) | Clinical Implications (What it is & What it’s used for) |
X-ray Radiography | Uses low-dose X-rays to create images of bones and some organs. Commonly used for fractures, chest exams, and dental checks. |
X-ray Computed Topography (CT) | A detailed 3D scan created using multiple X-rays; helps to detect internal injuries, tumors, bleeding, infections, and more. |
Endoscopy (Good to have exposure in Bachelors; but optional) | A small camera attached to a flexible tube is inserted into the body; used to examine the stomach, intestines, throat, lungs, or bladder from the inside. |
Magnetic Resonance Imaging (MRI) | Uses powerful magnets and radio waves to produce detailed images of the brain, spine, joints, and soft tissues. No radiation involved. |
Magnetic Resonance Spectroscopy (MRS/MPS) | An extension of MRI that studies the chemical makeup of tissues. Helps detect metabolic changes in the brain or muscles. |
Positron Emission Tomography (PET) | Shows how organs and cells are functioning using a radioactive tracer. Used for cancer detection, heart function tests, and brain studies. |
Thermography | Captures heat patterns from the body’s surface. Sometimes used to detect inflammation or abnormal blood flow. |
Medical Photography | Uses cameras to document skin conditions, wounds, surgeries, and physical changes over time for diagnosis and monitoring. |
Electrical Source Imaging (ESI) | Maps electrical activity of the brain using EEG data. Useful in epilepsy evaluation and locating abnormal brain regions. |
Digital Mammography | A specialized breast X-ray that helps detect early signs of breast cancer. Clearer and faster than traditional mammograms. |
Tactile Imaging | Converts the sense of touch into digital images. Helps detect lumps or abnormal tissue stiffness, especially in breast or pelvic exams. |
Magnetic Source Imaging (MSI) | Measures tiny magnetic fields produced by brain activity. Often used to locate functional regions in the brain before surgery. |
Medical Optical Imaging | Uses light to examine tissues; useful for detecting changes in skin, blood flow, or tumors. It’s mostly non-invasive. |
Single-Photon Emission Computed Tomography (SPECT) | Similar to PET but uses different tracers. Helps examine blood flow, heart issues, and certain brain conditions. |
Ultrasound Imaging | Uses sound waves to create images of organs. Commonly used in pregnancy scans, abdominal exams, and for checking blood flow. |
Electrical Impedance Tomography (EIT) | Measures electrical conductivity of tissues. Useful for monitoring lung function or detecting internal fluid changes. |
Diffusion Tensor Imaging (DTI) | Uses a special MRI method to show how water moves in brain nerve fibers. Helps detect brain injuries and map brain connections. |
We hope the above types of imaging technology already give you a brief idea that the field is very vast and hence proper education and training are essential. Those marked in bold are the most relevant for jobs after BSc Radiology and Imaging Technology. Other types can be learned during Master’s or additional training.
With the advancements in AI, machine learning, 3D & 4D bio-printing, hi-tech biomedical devices and other technological advancements, there have been significant improvements in the image capturing and image processing capabilities.
The medical imaging space is undergoing a transformation from qualitative interpretations to quantitative evaluations. This in turn enables meticulous measurement and analysis of specific biomarkers embedded in the images. Ultimately, this is fostering more objective and reproducible diagnostic insights.
Finally, the pursuit for higher resolution images and rapid processing demands higher capabilities of medical imaging devices. Additionally, in order to penetrate the remote and rural areas, there is huge demand for portable and point-of-care imaging devices. So, this creates a lot of room for ongoing research and development.
BSc Medical Radiology and Imaging Technology is a 4-year undergraduate course (3-year academics + 1-year internship). In a few colleges, it could be of 3.5-year duration (which includes 6-months internship). There is also an option for BSc (Hons) with Research. This course is designed to equip students with knowledge and skills in radiography and medical imaging.
Candidates should have minimum 45-50% in Class 12 (PCB)
Minimum of 17 years of age by 31st December in the year of admission
NEET appearance will be mandatory for many top colleges and universities from 2026-27. However, candidates could also appear for other national or state-level exams like CUET, AIIMS Paramedical Exam, RUHS Paramedical, etc.
Human Anatomy and Physiology
Radiographic Techniques
Radiation Physics
Research Methodology & Biostatistics
Patient Care and Communication
Imaging Modalities such as X-ray, MRI, CT, and ultrasound
Radiation Safety and Protection
Clinical Practicum in Healthcare Facilities
College Name | Location | Total Fees (INR) Appx. |
New Delhi | ₹4,000 – ₹6,000 | |
Rishikesh, Uttarakhand | ₹40,000 – ₹50,000 | |
Nagpur, Maharashtra | ₹40,000 – ₹50,000 | |
Raipur, Chhattisgarh | ₹40,000 – ₹50,000 | |
Bengaluru, Karnataka | ₹30,000 – ₹40,000 | |
Delhi | ₹30,000 – ₹40,000 | |
Chandigarh | ₹10,000 – ₹15,000 | |
Lucknow, Uttar Pradesh | ₹40,000 – ₹60,000 | |
Chennai, Tamil Nadu | ₹30,000 – ₹50,000 | |
Thiruvananthapuram | ₹25,000 – ₹40,000 | |
Kozhikode | ₹25,000 – ₹40,000 | |
Tanda (HP) | ₹20,000 – ₹30,000 |
College Name | Location | Approx. Total Fees (INR) |
Bengaluru | ₹8 – 10 lakh | |
Ghaziabad | ₹6 – 8 lakh | |
Phagwara, Punjab | ₹5 – 6 lakh | |
Gobindgarh, Punjab | ₹4 – 6 lakh | |
Mohali, Punjab | ₹3 – 4 lakh | |
Landran, Punjab | ₹3 – 4 lakh | |
ICRI – Institute of Clinical Research India | Delhi / Indore | ₹3 – 4 lakh |
Mangaluru | ₹6 – 7 lakh | |
Chennai | ₹6 – 8 lakh | |
Noida | ₹7 – 9 lakh | |
Vadodara | ₹3 – 4 lakh | |
Phagwara, Punjab | ₹5 – 6 lakh |
But this huge and continuous shortage of skilled imaging professionals in India is not an industry problem alone; it's a unique career opportunity for the aspiring graduates in BMRIT. As medical diagnostics gets increasingly dependent on high-tech imaging modalities like advanced CT, MRI, and AI-assisted scanning, the demand for trained technologists is bound to accelerate and offer enormous job security.
The choice for BSc Medical Radiology and Imaging Technology after Class 12th places you at a critical intersection of technology and patient care. You are now an indispensable link in diagnosis and treatment planning across all major medical specialties. BMRIT is a modern high growth career based on the foundational need of the rapidly expanding healthcare system.
We hope now you are aware of how great the demand is for the BMRIT degree. In the next article, we will discuss the BMRIT career scope, job roles (clinical, corporate & research), salary, and top recruiters in India.