Delft University of Technology

What you'll study

The Microelectronics track combines theoretical foundations with hands-on design and fabrication experience. Core topics include analogue and digital integrated circuit (IC) design, mixed-signal systems, radio-frequency (RF) electronics, semiconductor device physics, CMOS technology and scaling, and micro-/nano-fabrication techniques. Students also study design automation and verification methodologies, low-power and high-performance design strategies, sensor interfaces and MEMS integration.

Programme structure typically comprises advanced coursework, laboratory sessions, design projects and an independent research thesis. Coursework offers modules on topics such as:

• Analogue and Mixed-Signal IC Design — transistor-level design, noise, matching and layout considerations.
• Digital VLSI Design and Verification — combinational/sequential design, timing, power optimisation and verification flows.
• Semiconductor Devices and Technology — device physics, process steps, scaling challenges and emerging device concepts.
• RF and Wireless Front-Ends — RF circuit design, transceiver architectures and electromagnetic considerations.
• Micro- and Nano-Fabrication — cleanroom practice, lithography, etching, deposition and process integration.
• Design Automation — EDA toolchains, CAD algorithms and physical design automation.
• Advanced Topics and Electives — low-power systems, photonics integration, sensors, and nanoelectronics.

Students complete laboratory work using on-campus facilities and participate in group design exercises. The programme culminates in an individual MSc thesis performed in a research group, on-campus laboratory or in collaboration with an industrial partner.

Entry requirements

Applicants should hold a relevant bachelor's degree in electrical engineering, applied physics, microelectronics, or a closely related field. A strong background in circuit theory, signals and systems, semiconductor devices, electronic design and mathematics is expected. Admission decisions consider the overall academic record, the technical content of the prior degree and the applicant's motivation.

Applicants usually submit transcripts, a curriculum vitae, a statement of purpose and academic references. International applicants whose previous education was not in English are required to demonstrate English proficiency. In some cases, the programme may require preparation courses or the completion of specific prerequisite modules before or during the master's.

Career prospects

Graduates enter roles across the semiconductor and electronics ecosystem. Typical job titles include analogue/mixed-signal IC designer, digital VLSI designer, RF engineer, process or device engineer, MEMS or sensor engineer, EDA tool developer, and system architect. Many alumni work in design houses, semiconductor manufacturers, equipment suppliers and research institutes, or move into product development roles at electronics and telecom companies.

The track also prepares students for academic and industrial research careers; graduates frequently continue to PhD programmes or take research positions in national and international labs. Entrepreneurship and start-up opportunities are common for students aiming to commercialise sensors, integrated systems or novel device concepts.

Why study at Delft University of Technology

Delft offers a strong concentration of microelectronics expertise, with research groups focusing on IC design, semiconductor technology and microsystems engineering. The university provides access to well-equipped cleanrooms, measurement labs and design tool environments, and benefits from collaboration with the Dutch and international microelectronics ecosystem, including research institutes and major industry partners.

Students gain experience in both theoretical research and practical engineering through project-based teaching and thesis placements with academic groups or industrial partners. Delft's engineering culture, interdisciplinary links (for example with applied physics, mechanical engineering and embedded systems) and support for innovation and entrepreneurship create a fertile environment for building a career in microelectronics.