IILM University Greater Noida M.Tech Robotics Engineering: Fees 2026, Course Duration, Dates, Eligibility

Ans. The programme is offered as M.Tech in Robotics and Machine Intelligence. It blends robotics hardware with machine learning, so students study mechatronics, autonomous systems and computer vision rather than a single narrow track, preparing them for intelligent automation roles. The autonomous systems content also overlaps with drone and self-driving research, broadening the kind of projects a student can pick for the thesis. Topics like simultaneous localisation and mapping give students a feel for the algorithms that power modern mobile robots. Seminars on current robotics research keep the syllabus close to industry.

Ans. GATE is not strictly mandatory. Candidates with a valid GATE score are given preference and may qualify for fee or stipend benefits, while applicants without GATE can be admitted through the IILM entrance test followed by a personal interview. GATE qualifiers should keep their scorecard ready during counselling, as it is the document that unlocks the available fee and stipend concessions. The interview also gauges a candidate’s project interest, which helps the department match scholars to suitable thesis supervisors early. Shortlisted candidates are informed of supervisor availability before joining.

Ans. The total programme fee is INR 2,40,000 for the full two years, billed as INR 1,20,000 per year. Hostel charges of INR 1,42,000 per year are separate, and merit awards can reduce the net tuition for strong candidates. Paying annually rather than upfront keeps the cost manageable, and the merit review at admission can further lower the first-year tuition for top applicants. Education loans are accepted for the programme, giving candidates another way to manage the two-year cost if a scholarship is not awarded. A transparent fee schedule is shared at the time of admission.

Ans. Students work in a robotics and mechatronics laboratory on sensor integration, motion control and reinforcement learning projects. The second year is anchored by a thesis on an applied robotics problem, giving graduates a demonstrable research output. Working in the mechatronics laboratory from the first semester means students build practical hardware skills well before the final thesis stage begins. By the second year, most students are comfortable moving a project from simulation into a working physical build. Lab access outside class hours supports longer build experiments.

Ans. Graduates pursue roles such as robotics engineer, automation engineer, controls engineer and research associate. The mix of hardware and machine intelligence skills also supports positions in manufacturing automation, autonomous vehicles and industrial research and development teams. Robotics talent is increasingly sought in warehouse automation and electric mobility, so the degree opens roles beyond traditional manufacturing employers. Defence, agriculture technology and healthcare robotics are further areas where trained robotics engineers are now being recruited. Placement support extends to research-assistant openings as well.

Ans. It fits engineering graduates who want to combine robotics hardware with artificial intelligence. Candidates targeting automation, mechatronics or doctoral research benefit most, while those wanting only software development may prefer a computer science focused masters instead. Applicants from electronics, mechanical or computer engineering backgrounds all fit the programme, since the curriculum bridges these disciplines deliberately. The shared foundation courses in the first semester help students from differing branches reach a common level before advanced topics begin. Bridge classes align differing engineering backgrounds in the first weeks.