EPFL MSc Materials Science and Engineering Guide 2026

EPFL Materials Science: A World Top-10 Program

The École Polytechnique Fédérale de Lausanne (EPFL) offers one of the world’s leading Master of Science programs in Materials Science and Engineering, consistently ranked in the top 10 globally by QS World University Rankings — ranked 8th in 2023 and 10th in 2024, placing it alongside MIT, Stanford, Cambridge, and Harvard. The program is housed within the School of Engineering (STI) and the Section of Materials Science and Engineering (SMX), which forms part of the Institute of Materials (IMX).

The IMX brings together 21 professors, 4 lecturers (MERs), 177 PhD students, and numerous postdocs and engineers, creating a research-intensive environment where master’s students work alongside some of the field’s most productive research groups. With approximately 120 master’s students and 150 bachelor’s students, the section maintains a student-to-faculty ratio that enables close mentoring and substantive research engagement from the first semester.

EPFL’s location in Lausanne, Switzerland — on the shores of Lake Geneva — provides access to one of Europe’s most dynamic innovation ecosystems. The university’s strong connections with Swiss industry, including major players in pharmaceuticals, watchmaking, precision engineering, and advanced manufacturing, ensure that the materials science program remains tightly connected to real-world applications. For a comparison with other top European engineering programs, see our guide to École Polytechnique’s master programs.

Program Structure: 120 ECTS Over Two Years

The MSc in Materials Science and Engineering requires 120 ECTS credits distributed across a structured yet flexible curriculum. The program is designed to take a minimum of two years and balances foundational training with research immersion and professional experience.

Credits are allocated as follows: 16 ECTS in core courses (chosen from five fundamental subjects), 48 ECTS in elective options spanning the full breadth of materials science, 30 ECTS for a specialisation or minor, 20 ECTS for two mandatory semester research projects, 6 ECTS for a social and human sciences project, and the remaining 30 ECTS for the master’s thesis. This structure ensures that students develop both broad competence across materials classes and deep expertise in their chosen specialisation.

The emphasis on research is notable — semester projects and the thesis together account for 50 ECTS (over 40% of the total), reflecting the program’s orientation toward producing graduates who can contribute to materials innovation from day one of their professional careers.

Core Courses and Elective Options

Students select 4 of 5 core courses (16 ECTS total) from: Advanced Metallurgy, Fracture of Materials, Fundamentals of Solid-State Materials, Soft Matter, and Statistical Mechanics. These courses establish the theoretical foundations that underpin all subsequent specialisation, ensuring every graduate has command of the fundamental principles governing material behaviour across all major material classes.

The 48 ECTS of elective options offer extraordinary breadth. First-semester options include Mathematical Methods for Materials Science, Nanomaterials, Polymer Chemistry and Macromolecular Engineering, Biomaterials, Cementitious Materials, Composites Technology, Tribology, and Engineered Living Materials. Second-semester options add Quantum Materials, Magnetic Materials, Semiconductor Properties, Organic Electronic Materials, Thin Film Fabrication, Electron Microscopy Advanced Methods, and Materials Selection.

This elective range allows students to craft study plans that span from highly fundamental (quantum simulations, statistical mechanics) to deeply applied (composites technology, ceramic processing, wood structures). The ability to combine electives from different materials subdisciplines is a significant advantage for students who want to work at the interfaces between traditional materials categories — increasingly where the most impactful innovation occurs.

Research Laboratories and Faculty Expertise

The Institute of Materials at EPFL houses 19 research laboratories, each led by a professor with internationally recognised expertise. The breadth of these labs spans the full spectrum of modern materials science, from computational methods to experimental characterisation to applied engineering.

Key laboratories include the Mechanical Metallurgy Laboratory (Prof. Mortensen), Laboratory of Construction Materials (Prof. Scrivener), Polymers Laboratory (Prof. Klok), Semiconductor Materials Laboratory (Prof. Fontcuberta i Morral), Supramolecular Nano-Materials and Interfaces Laboratory (Prof. Stellacci), Theory and Simulation of Materials (Prof. Marzari), and the Sustainable Materials Laboratory (Prof. Abitbol). Additional labs cover photonic materials, thermomechanical metallurgy, advanced composites, nanoscale magnetics, in-situ electron characterisation, programmable biomaterials, and X-ray characterisation.

For master’s students, this diversity means that virtually any research interest within materials science can be pursued within the department. The two mandatory semester projects (20 ECTS) are typically conducted in these labs, giving students hands-on experience with cutting-edge equipment and methodologies under direct faculty supervision. Students from related engineering disciplines can explore this interdisciplinary approach further at programs like Virginia Tech’s materials science program.

Specialisations and Minor Options

The 30-ECTS specialisation or minor component allows students to either deepen their materials science expertise or broaden into complementary fields. A specialisation within materials science provides intensive training in specific research areas, including fundamental aspects essential for students planning to continue to doctoral research.

Alternatively, students can pursue one of several recommended minors: Chemistry and Chemical Engineering, Mechanical Engineering, Engineering for Sustainability, Management of Technology, Science Technology and Area Studies (College of Humanities), Energy, Biomedical Engineering, Space Technologies, and Computational Science and Engineering. Additional minors are available through EPFL’s cross-faculty study plan system.

The Management of Technology minor is particularly popular among students planning industry careers, as it provides frameworks for understanding how technical innovation translates into commercial value. The Engineering for Sustainability minor responds to growing demand for materials engineers who can address lifecycle environmental impacts. The Space Technologies and Biomedical Engineering minors connect materials science with two of the most rapidly growing application domains.

Mandatory Industry Internship

A distinctive feature of the EPFL MSc in Materials Science is the mandatory industry internship of 2 to 6 months, which can be completed in Switzerland or abroad. This requirement ensures that every graduate has direct experience of industrial materials science practice before completing their degree.

The internship provides insight into day-to-day industrial workflows, manufacturing processes, quality control systems, and the commercial considerations that shape materials selection and development decisions. Students apply their broad expertise and skills in a real-world context, often contributing to active product development or process improvement projects.

Switzerland’s concentration of advanced manufacturing, precision engineering, pharmaceutical, and technology companies provides excellent internship opportunities. Companies like ABB, Nestlé, Rolex, Sika, and numerous SMEs specialising in advanced materials regularly host EPFL interns. The mandatory nature of this requirement also means that EPFL’s career services and industry networks are actively geared toward facilitating placements.

Master Thesis: Academic or Industrial Research

The 30-ECTS master’s thesis represents the culmination of the program, requiring 17 or 25 weeks of dedicated research work. Students can choose between an academic thesis conducted in one of IMX’s research laboratories or an industrial thesis conducted in collaboration with a company, supervised by an SMX professor.

The thesis must represent personal and original work covering both theoretical and practical aspects of a materials science problem. It develops deeper knowledge, understanding, capabilities, and research attitudes that prepare graduates for their next career step — whether that is a PhD, an R&D position, or a technical leadership role.

The option of an industrial thesis is particularly valuable for students planning immediate entry into industry. It allows them to develop a relationship with a potential employer while producing a substantive piece of work that demonstrates their research capability. Many industrial thesis partnerships lead to direct employment offers upon graduation.

Admission Requirements and Application Process

Primary admission is for holders of an EPFL Bachelor’s degree in Materials Science and Engineering, who enter directly. Graduates from other institutions with excellent academic records in materials science are also admitted, as are holders of bachelor’s degrees in physics, chemistry, mechanical engineering, life sciences, electrical engineering, or microengineering — provided they demonstrate skills in materials science.

Students changing from non-consecutive programs (section change) must apply during their final year of bachelor’s study, with deadlines of December 15 and March 31. No minimum grade average is required for section changes; assessment is based on the overall quality of the application, relevance of the bachelor’s program, and motivation. This flexibility allows talented students from related disciplines to enter the materials science field at the master’s level.

EPFL’s admission process is competitive but holistic, considering academic performance, research potential, and motivation alongside formal qualifications. International students should note that tuition fees at EPFL are remarkably low compared to peer institutions — approximately CHF 730 per semester — making it one of the most affordable top-10 materials science programs in the world.

Career Outcomes and PhD Pathways

A survey of 123 EPFL materials science graduates reveals strong and diverse career outcomes. Research and development is the dominant career path (50 graduates), followed by technical/industry roles (20), academic careers (10), consulting (8), quality control (5), commercial/marketing (5), management (4), and technology transfer (2). This distribution reflects the versatility of the materials science qualification and the strong demand for graduates across multiple sectors.

Approximately 30% of master’s graduates continue to PhD studies, typically at EPFL or other leading research universities. This high continuation rate reflects both the research intensity of the program and the growing recognition that doctoral-level expertise is valued in many industry R&D roles, not only in academia.

Application sectors for EPFL materials science graduates include energy, robotics, transport, health, sport, and agri-food — a breadth that underscores the foundational role of materials innovation in virtually every technology-dependent industry. A growing trend of graduates joining or founding start-ups reflects the entrepreneurial culture at EPFL, which is supported by extensive incubation and venture support infrastructure on campus.

Why Choose EPFL for Materials Science and Engineering

EPFL’s MSc in Materials Science and Engineering combines several advantages that few programs worldwide can match simultaneously: a top-10 global ranking, 19 research laboratories covering the full spectrum of modern materials science, a mandatory industry internship that connects academic learning with professional practice, and tuition fees that are a fraction of those at peer institutions.

The multidisciplinary and versatile training sits at the interface of mathematics, physics, chemistry, mechanics, and biology — described by the department as a highway between fundamental and applied research. In an era where materials innovation is central to addressing sustainability, climate, energy, and health challenges, this positioning ensures that EPFL graduates are equipped to contribute to the technological solutions that society needs most.

For prospective students evaluating their options among Europe’s leading materials science programs, EPFL offers a rare combination of academic excellence, practical training, and affordability. The program’s track record of producing graduates who succeed across research, industry, consulting, and entrepreneurship demonstrates the breadth of career pathways that a top-tier materials science education can open.