Moscow Institute of Physics and Technology

What you'll study

This two-year magister programme combines advanced coursework, laboratory practice and an independent research project leading to a defended master's thesis. Core study areas include semiconductor physics and device theory, solid-state and nanoscale materials, micro- and nano-fabrication techniques, device modelling and computer-aided design, and experimental characterisation methods.

• Semiconductor physics and devices: carrier transport, band structure, heterostructures, MOSFETs, tunnelling and quantum effects in low-dimensional systems.
• Nanoscale materials and interfaces: thin films, nanocrystals, 2D materials, defects and surface chemistry relevant to device performance.
• Micro- and nanofabrication: photolithography, electron-beam lithography, thin-film deposition (PVD, CVD, ALD), etching, doping and packaging.
• Device modelling and CAD: TCAD simulation of process and devices, compact modelling, circuit-level simulation for analogue, digital and RF applications.
• Characterisation and metrology: electrical characterisation (IV, CV, noise), microscopy (SEM, TEM, AFM), spectroscopy and reliability testing.
• MEMS and sensor technologies: design and fabrication of microelectromechanical systems, inertial and chemical sensors, integration of micro- and nanoelectronic components.
• Advanced topics and electives: quantum and spintronics devices, photonic integration, flexible electronics, cryogenic electronics, depending on supervisor expertise.
• Research project and thesis: a substantial laboratory or design research project conducted under a faculty supervisor, presenting original results and defended before an internal committee.

Entry requirements

Applicants are normally expected to hold a Bachelor's degree (baccalaureate) in physics, applied physics, electronic engineering, materials science or a closely related discipline with solid grounding in mathematics and core physics. Demonstrable coursework or practical experience in electronics, semiconductor physics or laboratory work is an advantage.

• Academic transcripts: evidence of relevant undergraduate study with strong performance in core modules such as quantum mechanics, solid-state physics, electronics and mathematics.
• Language: instruction is predominantly in Russian, so proficiency in Russian is usually required; some supervisors and elective courses may be available in English — check specific programme guidance.
• Entrance assessment: selection typically involves review of academic record, letters of recommendation and an interview; some applicants may be asked to pass subject tests or provide a record of research or project work.
• Additional requirements: a statement of purpose outlining research interests and, where applicable, contact with potential supervisors; proof of eligibility to study in Russia for international applicants.

Career prospects

Graduates leave prepared for research and development roles across the semiconductor and high-tech sectors, for positions that require both theoretical understanding and practical fabrication skills.

• R&D engineer or process engineer in semiconductor fabs and pilot lines, working on device development, process integration and yield improvement.
• Device design and modelling roles in design houses and equipment vendors, including TCAD and circuit-level simulation.
• Work in MEMS, sensor and photonics companies developing integrated microsystems and novel transducers.
• Positions in national research institutes, laboratories and university research groups pursuing advanced materials, quantum devices or nanoelectronics research.
• Technical roles in metrology and instrumentation firms, or product development in startups commercialising nanoscale technologies.
• Progression to PhD studies and academic careers for those targeting long-term research and teaching.

Why study at Moscow Institute of Physics and Technology

MIPT is known for its rigorous physics and engineering education and close integration with research institutes. The programme draws on the Phystech model of combining deep theoretical training with extended laboratory placements and research mentorship.

• Research links: strong partnerships with Russian Academy of Sciences institutes and industrial laboratories provide opportunities for collaborative projects and access to specialised facilities.
• Laboratory facilities: students gain practical experience in cleanroom and micro/nanofabrication environments, advanced microscopy and electrical characterisation laboratories maintained by the university and partner institutes.
• Supervision and mentoring: teaching and supervision by faculty with active research programmes ensures project topics are current and industry-relevant.
• Career support: connections with semiconductor companies, research centres and technology startups help students find internships and graduate positions.