M.Sc. Medical Physics

Where physics meets patient care. A two-year Master�s program followed by a one-year clinical residency, built on the national NCAHP competency-based curriculum and designed to prepare you to work safely with radiation in cancer treatment, imaging and nuclear medicine.

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2 years

4 semesters of M.Sc.

+ 1 year

mandatory clinical residency

100 credits

M.Sc. coursework

60%

in B.Sc. Physics (or 6.5 CGPA)

Academic Overview

Program Overview

M.Sc. Medical Physics radiation therapy planning and clinical dosimetry at Chirayu University Hospital

Medical physicists apply the principles of physics to healthcare. They plan and verify radiation treatment for cancer patients, make sure imaging machines such as X-ray, CT, MRI, ultrasound, PET-CT and SPECT are accurate and safe, and protect patients, staff and the public from radiation hazards. Diagnosis and treatment now depend so heavily on technology that professionals who can handle sophisticated machinery and advanced protocols are in high demand.

The M.Sc. Medical Physics at Chirayu follows the proposed national �One India One Curriculum� pathway: a two-year M.Sc. followed by a one-year structured clinical residency, which is the mandatory professional training for clinical practice in radiotherapy, diagnostic imaging and nuclear medicine.

In India, the Atomic Energy Regulatory Board (AERB) requires radiation facilities to employ qualified medical physicists and Radiological Safety Officers. There are around 3,700 qualified medical physicists in the country today, and 27 universities run recognized programs.

Core Strengths

Program Highlights

M.Sc. plus residency: Two years of academic study (4 semesters) and a mandatory one-year clinical residency, with up to 2 months allowed as externship.
Three clinical areas: Residency postings in radiotherapy, diagnostic imaging and nuclear medicine, with practical work in equipment calibration, QA, treatment planning, imaging analysis and radiation safety audits.
Modern, future-facing content: Artificial intelligence and machine learning, Monte Carlo simulation, data science, and health technology assessment are part of the program.
Competency-based learning: Classroom teaching, practical labs, simulators and videos, with virtual learning limited to 10% of program hours.
Digital logbook: Every competency, procedure and performance evaluation is tracked during clinical training.
Exit evaluation: An exit examination at the end of residency, with 50% external assessment for fairness and credibility.
Admission Requirements

Eligibility Criteria

Qualification First Class in B.Sc. Physics with Mathematics as an ancillary subject
Minimum marks At least 60% or 6.5 CGPA with Physics as the major
Physics courses Candidates with a B.Sc. (Science) must have completed at least five of: Mechanics, Electricity and Magnetism, Thermodynamics, Optics, Electronics, Solid State Physics and Nuclear Physics
Minimum age 20 years on the date of admission, or as notified for the year
Medium of instruction English
Curriculum Matrix

Key Features of the Program

What you will learn

Radiotherapy physics: dosimetry, calibration, quality assurance and treatment planning
Radiation measurement and standardisation, including IAEA protocols
Medical imaging physics: X-ray, CT, MRI, ultrasound, PET-CT and SPECT
Nuclear medicine physics and radionuclide dosimetry
Radiation protection, shielding calculations and regulatory compliance
Computational skills: AI and machine learning, Monte Carlo methods and data analytics
Anatomy, physiology, tumour pathology and radiation biology
Research methodology, professional ethics and health technology assessment

How it is delivered

Component Details
M.Sc. duration 2 years, 4 semesters, 100 credits and 2,650 marks
Semester 1 Nuclear and radiation physics, non-ionising radiation, medical electronics, anatomy and tumour pathology, radiation detectors, electronics lab
Semester 2 Applied mathematical physics, quantum mechanics, physics of medical imaging, physics of radiotherapy, nuclear medicine I, imaging lab, professional ethics
Semester 3 Treatment planning in radiation oncology, nuclear medicine II, radiation dosimetry, radiation biology, research methodology, dosimetry lab
Semester 4 Radiation protection, radiation hazard evaluation and control, seminar and a 7-credit project
Residency 1 year (32 credits), mandatory
Pathways beyond the M.Sc.: A Ph.D. in Medical Physics (minimum 3 years full-time) for research and academic leadership.
Career Streams

Placement Opportunities

Medical physicists are employed in healthcare centers, research institutions, health-care companies and regulatory authorities. The handbook maps a career ladder in each stream.

Stream Roles
Clinical (private and corporate hospitals) Medical Physicist, then Senior Medical Physicist / Consultant (after 5 years as Clinical Physicist), then Deputy Chief Medical Physicist / Senior Consultant (after 10 years)
Scientific and research organizations Scientist or Scientific Officer C, D, E, F and above, in organizations such as DAE, DRDO, ISRO and ICMR
Academic Demonstrator, Assistant Professor and above, teaching medical physics, radiotherapy, radio-diagnosis, nuclear medicine and technology programs
Radiation safety Radiological Safety Officer (RSO) in institutions handling radiation sources, subject to AERB requirements

To start a career, registration as a Medical Physicist under NCAHP and/or AERB is required, along with an M.Sc. in Medical or Radiological Physics from an AERB/NCAHP recognized institution.

Employment Sectors

Top Recruiting Sectors

Cancer hospitals and radiotherapy centers

Treatment planning, dosimetry, machine calibration and quality assurance

Diagnostic imaging centers

Imaging quality control for X-ray, CT, MRI, ultrasound and PET-CT

Nuclear medicine departments

Radionuclide dosimetry and radiopharmaceutical quality control

Research institutions

DAE, DRDO, ISRO and ICMR style scientific organizations

Health-care technology companies

Equipment and technology firms linked to radiation-based healthcare

Regulatory authorities

Radiation safety and compliance bodies, including AERB-related roles

Universities and medical colleges

Teaching and research in medical physics and allied programs

Institutional Advantages

Why Choose Chirayu

01
A national curriculum:

Aligned with the NCAHP Competency Based Curriculum for Medical Physics.

02
Clinical training built in:

A full-year residency across radiotherapy, imaging and nuclear medicine.

03
Regulation-ready:

Training is designed around AERB safety codes and licensing requirements.

04
Technology-forward:

AI, Monte Carlo methods and data analytics sit alongside core physics.

05
A small, specialised field:

Only around 3,700 qualified medical physicists serve the whole country.

06
Room to grow:

Move on to a Ph.D., senior clinical roles, research organizations or academia.

07
Practical Training & Clinical Exposure:

4 In-House Hospitals equipped with Advanced Clinical Facilities for Hands-On Practical Training & Clinical Exposure

08
Learning:

Well-Equipped Laboratories for Practical Learning

09
Faculty:

Experienced & Qualified Faculty

10
Infrastructure:

State-of-the-Art Infrastructure for a great Learning experience

Source: Competency Based Curriculum for Medical Physics, National Commission for Allied and Healthcare Professions, Ministry of Health and Family Welfare. Fees, seats, intake dates and recognition are as notified by Chirayu University.

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