Microelectronics Course Duration

The duration depends on the academic level and entry route.

Four-year undergraduate progression

The first year normally contains Engineering Mathematics, Physics, basic electrical and electronics concepts, programming, engineering graphics, communication skills and workshops. This common foundation supports later specialisation.

The second year introduces network theory, electronic devices, analog circuits, digital electronics, signals and systems, probability, microprocessors and laboratory work. Students begin connecting mathematical models with real components and measurements.

The third year usually carries the core microelectronics subjects: semiconductor physics, CMOS devices, analogue and digital IC design, HDL, VLSI verification, microfabrication, testing and packaging. Electives may introduce analogue IC design, memory design, physical design, embedded systems or MEMS.

The final year offers advanced electives, seminar, internship and a major project. Students may explore system-on-chip design, low-power VLSI, mixed-signal circuits, MEMS, semiconductor process integration, physical design, verification or device modelling.

Academic workload

Duration should not be confused with effort. A semester combines theory lectures, tutorials, laboratory sessions, assignments, internal tests, end-semester examinations and project reviews. Communication subjects often require mathematical practice as well as simulation and hardware experimentation.

Students should reserve time outside class for programming, circuit analysis, technical reading and project documentation. A four-year degree becomes far more valuable when the student develops a portfolio instead of studying only before examinations.

Internships and projects

An internship may last from a few weeks to several months depending on curriculum. Suitable settings include chip-design operators, network service organisations, electronics manufacturers, embedded companies, research laboratories, broadcasting facilities, system integrators and campus research groups.

Project ideas include a CMOS logic block, analogue amplifier, memory cell, HDL processor module, physical-design flow, device model, mixed-signal interface, low-power sensor readout or verification environment. Projects must follow spectrum, safety, privacy and institutional rules.