ଚିକିତ୍ସା ଏବଂ ବିକିରଣ ପଦାର୍ଥ ବିଜ୍ଞାନ କେନ୍ଦ୍ର
ଜାତୀୟ ବିଜ୍ଞାନ ଶିକ୍ଷା ଏବଂ ଗବେଷଣା ପ୍ରତିଷ୍ଠାନ

चिकित्सा एवं विकिरण भौतिकी केंद्र
राष्ट्रीय विज्ञान शिक्षा एवं अनुसंधान संस्थान

Centre for Medical and Radiation Physics
NATIONAL INSTITUTE OF SCIENCE EDUCATION AND RESEARCH

 

Programmes

The Centre for Medical and Radiation Physics at NISER will be conducting the following programs:

The Master's program is the first of its kind in the State of Odisha. This is also first of its kind program at Master's level being conducted by an institution of the Department of Atomic Energy, Govt. of India.

Master's Program in Medical Physics

The master's program in medical physics has been designed according to the syllabus prescribed by the Homi Bhabha National Institute (HBNI), Mumbai. It has a rigorous curriculum with emphasis on physics, radiology and its medical applications.

Degree awarding institute: Homi Bhabha National Institute, Mumbai

Duration of the course: 2 years Master's program and 1 year mandatory internship.

Total No. of seats: 10

Minimum qualification and selection: A First-Class B.Sc. in Physics with Mathematics as an ancillary subject (OR) A First-Class B.Sc. degree (≥ 60% marks or ≥ 6.5 CGPA) with Physics as a major and Mathematics as an ancillary subject and must have completed at least five of the following Physics courses: Mechanics, Electricity and Magnetism, Thermodynamics, Optics, Electronics, Solid State Physics, and Nuclear Physics.

Fellowship: ₹16,000/- p.m. + HRA and Contingency as per DAE rules, during master's program.

Internship hospitals as per AERB guidelines: (i) All India Institute of Medical Sciences, Bhubaneswar (ii) Acharya Harihara Post Graduate Institute of Cancer, Cuttack (iii) Tata Memorial Centres, India

Course Structure (old)

SEMESTER-I
Course Name Credits Lecture Hours Tutorial Hours Course type
Classical Mechanics 8 40-45 10-15 Core
Statistical mechanics and thermodynamics 8 40-45 10-15 Core
Mathematical Physics 8 40-45 10-15 Core
Electrodynamics 8 40-45 10-15 Core
Laboratory course on Modern Physics and Nuclear Physics 6 10-15 experiments Core
SEMESTER-II
Course Name Credits Lecture Hours Tutorial Hours Course type
Quantum Mechanics 8 40-45 10-15 Core
Electronics and Instrumentation 8 40-45 10-15 Core
Solid State Physics 8 40-45 10-15 Core
Nuclear Physics 8 40-45 10-15 Core
Laboratory course on Electronics and Solid State Physics 6 10-15 experiments Core
SEMESTER-III
Course Name Credits Lecture Hours Tutorial Hours Course type
Radiation Physics and Radiation Generators 8 40-45 10-15 Core
Radiological Mathematics 8 40-45 10-15 Core
Radiation detectors and instrumentation 8 40-45 10-15 Core
Radiation dosimetry and standardization 8 40-45 10-15 Core
Laboratory course on Nuclear, Radiation and Solid State Physics 6 10-15 experiments Core
SEMESTER-IV
Course Name Credits Lecture Hours Tutorial Hours Course type
Clinical and Radiation Biology 8 40-45 10-15 Core
Medical Imaging 8 40-45 10-15 Core
Radiation Therapy 8 40-45 10-15 Core
Radiation Safety 8 40-45 10-15 Core
Laboratory course on Radiation therapy, Safety and Instrumentation 6 10-15 experiments Core

Course Structure (As per NCAHP Guidelines, 2026 onwards)

SEMESTER-I
Course Name Credits Lecture Hours Tutorial Hours Course type
Applied Mathematical Physics 44515Core
Electrodynamics and Quantum Mechanics 33015Core
Medical Electronics and Instrumentation 44515Core
Anatomy, Physiology, Tumor Pathology and Genetics 44515Core
Solid State Physics and Radiation Detectors 41515Core
Elective - IProgramming, Data Science and Computational Methods for Medical Physics 33015Elective
Health Technology Assessment 3015Elective
Electronics and Radiation Instrumentation Lab 318-20 ExperimentsCore
SEMESTER-II
Course Name Credits Lecture Hours Tutorial Hours Course type
Nuclear and Radiation Physics 44515Core
Non-Ionising Radiation Physics in Medicine 33015Core
Physics of Medical Imaging 44515Core
Physics of Radiotherapy 44515Core
Nuclear Medicine - I: Imaging and Therapy 44515Core
Elective - IIArtificial Intelligence in Medical Physics 33015Elective
Materials for Radiological applications 3015Elective
Professional Ethics in Medical Physics 23015Professional Enhancement
Medical Physics Lab - I: Medical Imaging 318-20 ExperimentsCore
SEMESTER-III
Course Name Credits Lecture Hours Tutorial Hours Course type
Treatment Planning in Radiation Oncology 44515Core
Nuclear Medicine - II: Dosimetry and Quality Assurance 44515Core
Radiation Dosimetry and Standardisation 44515Core
Radiation Biology 44515Core
Elective - IIIAdvanced Techniques and Emerging Technologies in Medical Physics 33015Elective
Small Field Dosimetry and Calibration Standards 3015Elective
Field training and scientific communication 230Core
Medical Physics Lab - II: Radiation Dosimetry lab 318-20 ExperimentsCore
SEMESTER-IV
Course Name Credits Lecture Hours Tutorial Hours Course type
Radiation Protection 44515Core
Radiation Hazards Evaluation and Control 44515Core
Research Methodology, Data Analytics and Ethics 44515Core
Elective - IVDosimetric Audit and Clinical Trials in Medical Physics 33015Elective
Montecarlo Techniques in Dosimetry 3015Elective
Seminar on Technical Research and Review Paper Analysis 230Core
Project 7120Core

Research and Development on radiation devices for societal applications and research programs

The centre intends to take up R&D work on development of radiation detectors for various needs such as

  1. Medical Imaging
  2. Muon Radiography and Tomography
  3. Neutron Detection
  4. Quality Assurance in Hadron Therapy
  5. Environmental Gamma Measurements
  6. Astrophysics/Nuclear Physics and High Energy Physics Applications

Medical Cyclotron and QA and Validation Programs (Future)

In future, the centre will try to setup a Medical Cyclotron Facility for Radioisotope production. Try to get accreditation for personnel or individual monitoring service, for certifying Quality Assurance Parameters for Radiotherapy Equipment, Type Approval (TA) of Radiation Generating Equipment. Contribute towards - Brachytherapy Source Standardization Programme - National regulatory authority mandates that all radiation sources used for therapeutic applications should have calibration traceable to National Standards laboratory, as it is the practice internationally. Finally contribute towards quality audit which is another important tool for the evaluation of the adequacy of the radiotherapy treatments being delivered. It is also internationally accepted that dose distribution across the clinical target volume (CTV) better than ±5% leads to acceptable treatment outcome for cancer patients.