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If you like biology and you also like circuits, biomedical engineering is where the two meet: the ECG machine, the CT scanner, the ventilator in a district hospital. In India the work happens mainly in three places: companies that make devices, hospitals that run them, and labs that invent the next ones.
What jobs do biomedical engineers do in India?
The Indian medical devices sector was estimated at $11 billion in 2020, about 1.5% of the global market, according to the Union Cabinet's release on the National Medical Devices Policy, 2023. The government expects the policy to help the sector grow to $50 billion by 2030. The same release says domestic manufacturing of high-end devices, including linear accelerators, MRI and CT scanners and mammography machines, has started under the production-linked incentive (PLI) scheme. For your career, the key line is that the policy will support "dedicated multidisciplinary courses for medical devices" to build skilled people for the sector.
Most jobs fall into three groups:
Device companies: product design, testing, manufacturing, quality assurance, regulatory affairs, and field service engineers who install and repair equipment.
Hospitals and public health: engineers who plan, maintain and calibrate equipment and train the staff who use it.
Research and innovation: MTech and PhD work, and fellowships that turn a problem seen in a hospital ward into a prototype.
What does a medical device regulatory job involve?
All medical devices in India are regulated under the Medical Devices Rules, 2017, according to the CDSCO's FAQ on medical devices. The rules sort devices into four risk classes, from Class A (low risk) to Class D (high risk); CDSCO's in vitro diagnostics page lists the same four classes for diagnostic kits. The Drugs Controller General (India) licenses the manufacture of Class C and D devices, while state authorities license the manufacture of Class A and B. The FAQ says inspections for Class C and D manufacturing licences happen within 60 days of an application, provided the data submitted is satisfactory.
Regulatory and quality engineers put that data together: they assemble test reports, check labels against the rules and collect the post-market surveillance data the licence holder must submit. It is careful, document-heavy work that suits students who like getting every detail right.
What do biomedical engineers do in hospitals?
Under the National Health Mission's Biomedical Equipment Management and Maintenance Programme, states get support for preventive maintenance, repairs, calibration and user training for equipment in public health facilities. The programme sets uptime targets of 85% for primary health centres, 90% for community health centres and 95% for district hospitals. NHM's status note from August 2018 says five states and UTs maintained their equipment in-house using biomedical engineers or annual maintenance contracts with manufacturers.
Here is what those targets mean. At 95% uptime, district hospital equipment can be out of service for about 18 days a year (5% of 365 is 18.25). A primary health centre at 85% can lose about 55 days. Hospital equipment engineers spend their days keeping that number down: running preventive checks, chasing spare parts and deciding when to repair or replace.
If the data and software side of hospitals interests you more than the machines, see our guide to health informatics careers for science students.
How do you get into research in biomedical engineering?
The route usually starts with an engineering degree. Some institutes teach the subject at undergraduate level: IIT Hyderabad's Department of Biomedical Engineering offers a BTech, an MTech and a PhD. For a master's degree, GATE has a separate Biomedical Engineering (BM) paper, and the GATE 2027 website lists exam days in February 2027. If you are weighing that exam against a job offer, our post on choosing between GATE, a job or an MS after BTech walks through the trade-offs.
For hands-on innovation, there is the School of International Biodesign, a Department of Biotechnology programme run at AIIMS and IIT Delhi since 2008. It is a year-long fellowship in which physicians, engineers and designers find unmet clinical needs, then design and build prototypes to meet them.
Which biomedical engineering path suits you?
Answer these five questions honestly, then follow the path where most of your answers point.
Do you enjoy fixing things under time pressure? Hospital equipment or field service.
Do you like rules, records and catching small errors? Regulatory affairs and quality.
Would you rather draw a new design than fix an old one? Product design in a device company.
Can you stay with one unsolved problem for years? An MTech, a PhD and research.
Are you more drawn to cells and molecules than to circuits? Compare biotechnology as a BTech or a BSc.
Whichever path you pick, Class 11 and 12 physics (circuits, waves, optics) and biology (human physiology) are the foundations. Because this field pulls from every science subject, the Fermi Concept Library can help you fill gaps: it covers every concept in physics, chemistry, biology, mathematics and computing. When an idea is easier to see than to read, try the interactive simulations in the Fermi Simulation Lab.
A good first step this week: pick one machine you have seen in a hospital, such as an ECG, and write down what physics it uses and who keeps it working.
