EPFL MSc Microengineering
EPFL (École Polytechnique Fédérale de Lausanne) · School of Engineering · Lausanne, Switzerland- Full time
- Lausanne
- English
Tuition, living and foreign-certificate application fee.
four semester invoices
120 ECTS full time
September 2027 start
visa applicants advised
foreign bachelor degree
programme dossier review
What is EPFL MSc Microengineering?
EPFL’s MSc Microengineering is a full-time 120 ECTS master’s in Lausanne. The route moves from HSS : Introduction to towards Nanophotonics and prepares students for microsystems engineer and precision-engineering specialist work. It isn’t a conversion degree, so the relevant bachelor’s foundation must be visible before enrolment.
Fundamentals of analog VLSI and Radio frequency circuits design point to different decisions inside MSc Microengineering. A strong study plan explains why both serve one defined sensor engineer problem, what method each contributes and which limitation the final project will test rather than hiding behind the breadth of the catalogue.
The later appearance of Metrology helps an applicant work backwards from a graduation output. That academic sequence should be planned beside the INR 68.60 lakh full-programme budget, because changing direction after arrival costs both credits and living time in Lausanne.
How much does EPFL MSc Microengineering cost for an Indian student?
The two-year planning total is CHF 59,548, about INR 68.60 lakh. It combines four CHF 2,240 international semester invoices, two years of EPFL’s published foreign-student living budget and the CHF 150 foreign-certificate application fee. It is a planning total, not an invoice issued in one payment.
| Item | INR | Local currency | When it is due |
|---|---|---|---|
| Tuition and compulsory charges, four semesters | INR 10.32 lakh | CHF 8,960 | CHF 2,240 each semester |
| Living budget, twenty-four months | INR 58.10 lakh | CHF 50,438 | EPFL foreign-student estimate |
| Foreign bachelor's application fee | INR 17,280 | CHF 150 | Paid when the online file is validated |
| Full-programme planning total | INR 68.60 lakh | CHF 59,548 | Before flights and rental deposit |
EPFL's living budget is CHF 25,219 a year for a foreign student and describes a rental deposit as money that may be blocked, not spent. Converted at CHF 1 = INR 115.20, derived from ECB daily reference rates for INR and CHF on 29 September 2026. Flights, exchange spreads and the blocked rental deposit are excluded.
The international invoice contains CHF 2,190 tuition and CHF 50 in membership, sports and social-fund charges. EPFL states the fee rule directly.
Only the CHF 730 semester tuition fee is tripled by this measure.EPFL Study Management
The resulting international tuition is CHF 2,190, before the CHF 50 semester charges.
Living costs create most of the financial exposure. EPFL’s foreign-student table includes CHF 10,800 yearly housing, CHF 7,200 food, CHF 1,400 health insurance, transport, liability cover, residence tax, supplies and other expenses. Architecture has an additional published study-visit allowance that should be added where applicable.
The CHF 10,000-per-semester Excellence Fellowship is competitive and limited. It can cover at most four semesters and doesn’t remove the need to pay tuition, rent and other costs on time, so this budget doesn’t assume the fellowship is won.
Can an Indian applicant meet EPFL MSc Microengineering entry requirements?
The academic starting point is a microengineering, mechanical, electrical or related engineering bachelor’s with excellent results. EPFL evaluates the university, curriculum, grades, research references, specialisation, statement and recommendations together. It publishes no universal Indian percentage or CGPA that guarantees admission.
| Requirement | Published rule | What you do |
|---|---|---|
| Degree foundation for MSc Microengineering (India) | a microengineering, mechanical, electrical or related engineering bachelor's with excellent results | Map transcript results and official syllabi to the preparation behind Advanced satellite positioning and Biomedical optics |
| Depth for microsystems engineer study (India) | Earlier study must support advanced work represented by Image processing II | Use completed analytical, laboratory, design or research evidence relevant to microsystems engineer decisions |
| Evidence for the precision-engineering specialist direction (India) | The complete MSc Microengineering dossier is assessed competitively | Connect an individual project contribution to the intended path through Machine learning programming and Organic and printed electronics |
| Language across the 120 ECTS route (India) | English, with a few optional courses in French. | Confirm the teaching language attached to Advanced MEMS & microsystems and the intended final project |
For MSc Microengineering, the useful transcript map places the Indian module, credit load, result and official syllabus beside Advanced satellite positioning. That lets the committee judge substance rather than infer readiness from a translated award title.
EPFL can prescribe extra credits for limited gaps, but Image processing II signals the level at which this master’s operates. The discretion doesn’t promise to rebuild the earlier preparation needed for microsystems engineer work.
A referee supporting the precision-engineering specialist direction should describe work they actually supervised, its standard and the applicant’s decisions. Evidence tied to Organic and printed electronics is more useful than praise that could accompany any postgraduate application.
Four checks that decide an EPFL MSc Microengineering file
Meeting every published condition still does not secure admission
EPFL states the limitation plainly.Please note that meeting all of these criteria is no guarantee of admission.EPFL MSc Microengineering admission criteria
The committee can still compare academic quality, references, specialisation and the overall file.Only one EPFL master's choice can be submitted
EPFL permits one master’s application per academic year. Choosing MSc Microengineering therefore removes the option to submit a second EPFL programme as an internal safety choice.
The translated degree title is not the subject map
For MSc Microengineering, list the completed modules that prove the required academic preparation. Match each claim to credits, results and an official syllabus so any missing depth is visible before payment.
Reference timing is separate from the form deadline
The form closes on 15 December or 31 March, but referees receive one further week. The applicant cannot upload those letters personally, and the file is not processed unless EPFL receives at least two.
How should an Indian student apply for EPFL MSc Microengineering in 2027?
The route is one online EPFL application followed by a separate Swiss visa and residence process. Submit by 15 December 2026 or 31 March 2027; visa applicants are advised to use December because that result is expected in late March instead of mid-June.
Choose one EPFL master's, submit the complete online dossier and fee, secure referee letters, meet any offer conditions, then complete the Swiss entry and residence process.
| Start by | Task | Takes | Why this date |
|---|---|---|---|
| 17 Aug 2026 | Brief three academic referees | 30 days | Referees upload their own letters after the application is validated. |
| 26 Aug 2026 | Map the programme requirements | 21 days | Compare the Indian transcript and syllabi with every programme prerequisite. |
| 26 Aug 2026 | Prepare the complete dossier | 21 days | Finish the CV, transcripts, degree material and statement of up to 1,000 words. |
| 16 Sep 2026 | Submit the early application | 1 day | Validate and pay CHF 150 by 15 December 2026 when a visa is needed. |
| 17 Sep 2026 | Receive the EPFL decision | 105 days | The December round is expected to receive decisions in late March. |
| 31 Dec 2026 | Complete visa and housing work | 90 days | EPFL warns that the visa procedure can take up to three months. |
The allowances are Nbyula planning estimates, not processing times published by EPFL (École Polytechnique Fédérale de Lausanne).
The online file accepts English or French documents. A document in another language needs a legalised translation, while the final proof of the qualifying degree may arrive no later than 30 September after admission.
The application fee is CHF 150 for a foreign bachelor’s and isn’t refunded after withdrawal or non-validation. Payment and form validation are both required before the chosen round closes.
The later round is academically available, but its mid-June result reduces the time for the visa, housing and travel. That timing cost matters more for an Indian applicant than any belief that one round has easier academic selection, which EPFL doesn’t state.
What jobs can follow EPFL MSc Microengineering?
The programme can support several technical and research directions. EPFL’s institution-wide 2022 survey reported a CHF 88,108 average salary among 315 master’s respondents working in Switzerland, but that isn’t a programme placement rate or a salary promise for this cohort.
| Measure | Finding | Basis |
|---|---|---|
| Most direct direction from MSc Microengineering | microsystems engineer | Course and project evidence linking Biomedical optics with Organic and printed electronics |
| Adjacent specialist direction | precision-engineering specialist or sensor engineer | A deliberate elective route through Machine learning programming and Advanced MEMS & microsystems |
| Published placement rate for MSc Microengineering | Not published | EPFL's available graduate survey does not isolate the microsystems engineer cohort |
| Swiss search period after this degree | Six months | A suitable microsystems engineer vacancy still requires the third-country graduate process |
microsystems engineer, precision-engineering specialist and sensor engineer are curriculum-supported directions for MSc Microengineering. They are not a programme-specific placement result, employer commitment or Swiss permit promise.
A microsystems engineer portfolio can use Fundamentals of analog VLSI design to state the method and Nanophotonics to show where that method was tested. The valuable evidence is the student’s own decision, result and limitation, not the EPFL label on its own.
Someone targeting precision-engineering specialist work would need a different emphasis: Radio frequency circuits design techniques can support the specialism, while Metrology can make the final output inspectable. Scheduling and prerequisites still decide whether that combination fits one 120 ECTS plan.
After MSc Microengineering, Switzerland gives a third-country graduate six months to seek work matching the qualification. A microsystems engineer offer still goes through authority review; completing Master project in Microengineering doesn’t itself create permission to work.
For a prospective sensor engineer, French ability, prior experience and the exact vacancy may matter alongside technical evidence from Image processing II. EPFL publishes no audited MSc Microengineering placement percentage with which to predict that outcome.
In MSc Microengineering, HSS : Introduction to project, HSS : Project and Machine learning I make the route towards microsystems engineer concrete. Their position in Published programme options joins HSS : Introduction to project to Machine learning I, so the academic story is about a connected capability rather than a collection of fashionable titles.
The Published programme options sequence contains Products design & systems engineering, Advanced additive manufacturing technologies and Advanced analog integrated circuit design. For MSc Microengineering, that sequence turns precision systems, sensors, microfabrication, photonics, control and microsystems into assessed work and exposes whether an applicant’s earlier study reaches the level expected for precision-engineering specialist problems.
A student shaping MSc Microengineering around sensor engineer work can read Advanced mechanisms for extreme environments (Pas donné en 2026-27), Advanced satellite positioning and Aerial robotics as one evidence chain. Advanced mechanisms for extreme environments (Pas donné en 2026-27) supplies one part of the method, while Aerial robotics shows the later application or project context recorded in Block 1.
EPFL places Applied biomedical signal processing, Applied Electromagnetics for Metamaterial Design and Audio engineering within Block 1 for this programme. The combination matters because MSc Microengineering is built around precision systems, sensors, microfabrication, photonics, control and microsystems; isolated familiarity with only one topic would not reproduce that breadth.
The published path from Bioimage informatics to Bio-nano-chip design passes through Bioimage informatics, Biomedical optics and Bio-nano-chip design. In a precision-engineering specialist portfolio, those assessed components can document technique, implementation and judgement instead of relying on the degree name as evidence.
For MSc Microengineering, the cluster Conceptual design of products and systems, Continuous improvement of manufacturing systems and Distributed intelligent systems (Pas donné en 2026-27) sits under Block 1. It links the programme’s precision systems, sensors, microfabrication, photonics, control and microsystems direction to the kind of decisions a sensor engineer must explain, test and defend in a project.
The curriculum does not present Energy supply, economics and transition in isolation: nearby choices include Energy supply, economics and transition, Experimental biomicroscopy and Fundamentals of analog VLSI design. That neighbourhood distinguishes MSc Microengineering from a broad conversion degree and rewards prior preparation aligned with precision systems, sensors, microfabrication, photonics, control and microsystems.
Within Block 1, EPFL lists Fundamentals of biophotonics, Fundamentals of biosensors and electronic biochips and Fundamentals of integrated photonic components. The useful outcome is not exposure to three labels; it is an assessed route in which Fundamentals of biophotonics can feed the analysis behind Fundamentals of integrated photonic components for future precision-engineering specialist work.
The MSc Microengineering catalogue pairs Haptic human robot interfaces, Image processing I and Image processing II in Block 1. This pairing shows why an applicant with no hardware, electronics, mechanics or laboratory preparation would face a structural gap: the programme combines foundations and advanced application rather than rebuilding the missing base.
A coherent microsystems engineer direction emerges where Introduction to bioengineering, Iontronics (.) and Lab on app development for tablets and smartphones are treated as related evidence. Their shared place in Block 1 connects the stated programme focus, precision systems, sensors, microfabrication, photonics, control and microsystems, with work that can be inspected after graduation.
Among the published choices for MSc Microengineering are Laser microprocessing, Leading and managing in a global context and Legged robots. Together they move from Laser microprocessing towards Legged robots, giving a project supervisor or employer a clearer signal than an undifferentiated list of electives.
The later academic value of Block 1 comes from combinations such as Materials design for vat photopolymerization, MEMS Actuator practicals and MEMS sensors practicals. For a prospective sensor engineer, this part of MSc Microengineering supports a defensible specialism while remaining inside the approved 120 ECTS structure.
In MSc Microengineering, Microengineering project II, Model predictive control and Nanobiotechnology make the route towards microsystems engineer concrete. Their position in Block 1 joins Microengineering project II to Nanobiotechnology, so the academic story is about a connected capability rather than a collection of fashionable titles.
The Block 1 sequence contains Neural interfaces, Neural signals and signal processing and Neuroscience foundations for engineers. For MSc Microengineering, that sequence turns precision systems, sensors, microfabrication, photonics, control and microsystems into assessed work and exposes whether an applicant’s earlier study reaches the level expected for precision-engineering specialist problems.
A student shaping MSc Microengineering around sensor engineer work can read Nonlinear Optics, Nonlinear optics for quantum technologies and Optics laboratories (autumn) as one evidence chain. Nonlinear Optics supplies one part of the method, while Optics laboratories (autumn) shows the later application or project context recorded in Block 1.
EPFL places Organic and printed electronics, Photonic systems and technology and Physics of photonic semiconductor devices within Block 1 for this programme. The combination matters because MSc Microengineering is built around precision systems, sensors, microfabrication, photonics, control and microsystems; isolated familiarity with only one topic would not reproduce that breadth.
The published path from Project management and risk analysis to Quantum and nanocomputing passes through Project management and risk analysis, Quantitative imaging for engineers and Quantum and nanocomputing. In a precision-engineering specialist portfolio, those assessed components can document technique, implementation and judgement instead of relying on the degree name as evidence.
For MSc Microengineering, the cluster Radio frequency circuits design techniques, Semiconductor devices II and Seminars in Electrical and Micro Engineering sits under Block 1. It links the programme’s precision systems, sensors, microfabrication, photonics, control and microsystems direction to the kind of decisions a sensor engineer must explain, test and defend in a project.
The curriculum does not present Software architecture in isolation: nearby choices include Software architecture, Space mission design and operations and System identification. That neighbourhood distinguishes MSc Microengineering from a broad conversion degree and rewards prior preparation aligned with precision systems, sensors, microfabrication, photonics, control and microsystems.
Within Block 1, EPFL lists Translational neuroengineering, Advanced MEMS & microsystems and Applied and industrial robotics. The useful outcome is not exposure to three labels; it is an assessed route in which Translational neuroengineering can feed the analysis behind Applied and industrial robotics for future precision-engineering specialist work.
The MSc Microengineering catalogue pairs Fundamentals & processes for photovoltaic devices, Introduction to additive manufacturing and Laser fundamentals and applications for engineers in Group 2 : Options. This pairing shows why an applicant with no hardware, electronics, mechanics or laboratory preparation would face a structural gap: the programme combines foundations and advanced application rather than rebuilding the missing base.
A coherent microsystems engineer direction emerges where Materials processing with intelligent systems (Pas donné en 2026-27), Metrology and Micro/Nanomechanical devices are treated as related evidence. Their shared place in Group 2 : Options connects the stated programme focus, precision systems, sensors, microfabrication, photonics, control and microsystems, with work that can be inspected after graduation.
Among the published choices for MSc Microengineering are Nanotechnology, Optical design with ZEMAX and Optical detectors. Together they move from Nanotechnology towards Optical detectors, giving a project supervisor or employer a clearer signal than an undifferentiated list of electives.
The later academic value of Group 2 : Options comes from combinations such as Selected topics in advanced optics, Engineering internship credited with master project (master in Microengineering) (Stage d’au minimum 8 semaines après le 2ème semestre de Master. Inscription par la bourse aux stages) and Master project in Microengineering. For a prospective sensor engineer, this part of MSc Microengineering supports a defensible specialism while remaining inside the approved 120 ECTS structure.
The Swiss migration authority gives a third-country MSc Microengineering graduate six months to seek work matching the qualification. A microsystems engineer offer still needs the applicable authority process; graduation doesn’t turn the search period into an automatic permit.
The federal guidance for foreign workers also leaves the permit with the employer and authorities. For a sensor engineer, the vacancy, prior experience and language ability therefore matter alongside the MSc Microengineering portfolio.
Who is EPFL MSc Microengineering for?
MSc Microengineering fits an applicant whose earlier work already supports microsystems engineer methods and a project idea for precision-engineering specialist. Evidence from Advanced satellite positioning and Organic and printed electronics can make that preparation concrete. This isn't a conversion degree: the transcript must carry the foundation before enrolment, not promise to acquire it later.
| Verdict | Your background | Why |
|---|---|---|
| Strong fit | Graduate ready for Advanced satellite positioning | Prior results give MSc Microengineering a credible academic starting point. |
| Strong fit | Future microsystems engineer with a defined project question | The proposed route can produce inspectable evidence for microsystems engineer work. |
| Needs evidence | Adjacent-field candidate interested in Machine learning programming | A limited gap may attract extra credits, while admission remains competitive. |
| Needs evidence | Applicant relying on work to fund INR 68.60 lakh | The first six months normally exclude employment for a third-country student. |
| Do not shortlist | Applicant unprepared for Advanced MEMS & microsystems | Advanced teaching assumes the relevant undergraduate base rather than supplying it. |
| Do not shortlist | Candidate expecting a guaranteed sensor engineer post | Neither MSc Microengineering nor Swiss law promises that job or its permit. |
The positive fit connects earlier evidence, a reason for choosing Nanophotonics and a final project a future sensor engineer supervisor can inspect. Admission is one checkpoint in that line, not the purpose of assembling it.
The weak fit combines limited preparation for Advanced MEMS & microsystems with dependence on immediate earnings or a career aim outside microsystems engineer work. EPFL’s one-choice rule then favours a neighbouring degree whose academic starting point matches the transcript more closely.
What does the EPFL MSc Microengineering curriculum contain?
The official 2026 to 27 study plan publishes 95 named courses, projects and options for MSc Microengineering. The table keeps every item once. Students complete an approved 120 ECTS route, so the credits shown across the whole option catalogue are not added together.
| Code | Component | ECTS | Notes |
|---|---|---|---|
| HSS : Introduction to project | 3 | Published programme options | |
| HSS : Project | 3 | Published programme options | |
| MICRO-455 | Machine learning I | 4 | Published programme options |
| MICRO-498 | Microengineering project I | 10 | Published programme options |
| MICRO-406 | Products design & systems engineering | 10 | Published programme options |
| MICRO-413 | Advanced additive manufacturing technologies | 4 | |
| EE-523 | Advanced analog integrated circuit design | 3 | |
| ME-524 | Advanced control systems | 3 | |
| MICRO-372 | Advanced mechanisms for extreme environments (Pas donné en 2026-27) | 3 | |
| ENV-542 | Advanced satellite positioning | 4 | |
| MICRO-502 | Aerial robotics | 5 | |
| EE-320 | Analog IC design | 3 | |
| EE-512 | Applied biomedical signal processing | 4 | |
| MICRO-449 | Applied Electromagnetics for Metamaterial Design | 3 | |
| EE-548 | Audio engineering | 4 | |
| MICRO-452 | Basics of mobile robotics | 4 | |
| BIO-410 | Bioimage informatics | 4 | |
| BIOENG-445 | Biomedical optics | 3 | |
| EE-517 | Bio-nano-chip design | 4 | |
| MICRO-436 | Computational motor control | 4 | |
| MICRO-443 | Conceptual design of products and systems | 2 | |
| ME-498 | Continuous improvement of manufacturing systems | 5 | |
| ENG-466 | Distributed intelligent systems (Pas donné en 2026-27) | 5 | |
| MICRO-510 | Embedded motor control | 3 | |
| ENG-410 | Energy supply, economics and transition | 2 | |
| MICRO-562 | Experimental biomicroscopy | 4 | |
| EE-424 | Fundamentals of analog VLSI design | 4 | |
| MICRO-561 | Fundamentals of biomicroscopy | 4 | |
| BIO-443 | Fundamentals of biophotonics | 3 | |
| EE-515 | Fundamentals of biosensors and electronic biochips | 3 | |
| MICRO-471 | Fundamentals of integrated photonic components | 4 | |
| ME-429 | Game theory for multiagent decision-making | 4 | |
| MICRO-553 | Haptic human robot interfaces | 4 | |
| MICRO-511 | Image processing I | 3 | |
| MICRO-512 | Image processing II | 3 | |
| MGT-469 | Intercultural presentation skills (Special schedule. See the MTE website: | 2 | |
| EE-526 | Introduction to bioengineering | 3 | |
| MICRO-554 | Iontronics (.) | 3 | |
| EE-490 | Lab on app development for tablets and smartphones | 4 | |
| MICRO-408 | Laboratory introduction to biochemistry | 4 | |
| MICRO-520 | Laser microprocessing | 2 | |
| MGT-468 | Leading and managing in a global context | 4 | |
| MICRO-507 | Legged robots | 4 | |
| MICRO-401 | Machine learning programming | 2 | |
| MICRO-407 | Materials design for vat photopolymerization | 3 | |
| MICRO-501 | MEMS Actuator practicals | 3 | |
| MICRO-503 | MEMS sensors practicals | 3 | |
| MICRO-429 | Metrology practicals (Ces TP sont optionnels et ne peuvent être suivis qu'en parallèle du cours MICRO-428 Metrology) | 3 | |
| MICRO-499 | Microengineering project II | 10 | |
| ME-425 | Model predictive control | 4 | |
| CH-413 | Nanobiotechnology | 3 | |
| MICRO-516 | Nanophotonics | 4 | |
| NX-422 | Neural interfaces | 6 | |
| NX-421 | Neural signals and signal processing | 6 | |
| BIOENG-310 | Neuroscience foundations for engineers | 6 | |
| ME-523 | Nonlinear Control Systems | 3 | |
| PHYS-501 | Nonlinear Optics | 4 | |
| PHYS-470 | Nonlinear optics for quantum technologies | 4 | |
| MICRO-424 | Optics laboratories (autumn) | 4 | |
| MICRO-423 | Optics laboratories (spring) | 4 | |
| MICRO-505 | Organic and printed electronics | 2 | |
| EE-440 | Photonic systems and technology | 4 | |
| PHYS-434 | Physics of photonic semiconductor devices | 4 | |
| MICRO-312 | Physics of semiconductors devices | 3 | |
| MGT-427 | Project management and risk analysis | 4 | |
| MICRO-518 | Quantitative imaging for engineers | 3 | |
| MICRO-435 | Quantum and nanocomputing | 6 | |
| PHYS-344 | Quantum mechanics for non-physicists | 5 | |
| EE-426 | Radio frequency circuits design techniques | 4 | |
| EE-567 | Semiconductor devices II | 4 | |
| MICRO-555 | Seminars in Electrical and Micro Engineering | 1 | |
| EE-511 | Sensors in medical instrumentation | 3 | |
| MICRO-371 | Software architecture | 3 | |
| EE-585 | Space mission design and operations | 2 | |
| ME-421 | System identification | 3 | |
| CS-473 | System programming for Systems-on-chip | 6 | |
| NX-423 | Translational neuroengineering | 6 | |
| MICRO-534 | Advanced MEMS & microsystems | 3 | Group 2 : Options |
| MICRO-451 | Applied and industrial robotics | 3 | Group 2 : Options |
| MICRO-421 | Computational optical imaging | 4 | Group 2 : Options |
| MICRO-565 | Fundamentals & processes for photovoltaic devices | 3 | Group 2 : Options |
| ME-413 | Introduction to additive manufacturing | 4 | Group 2 : Options |
| MICRO-426 | Laser fundamentals and applications for engineers | 3 | Group 2 : Options |
| MICRO-448 | Manufacturing systems and supply chain dynamics | 3 | Group 2 : Options |
| MICRO-457 | Materials processing with intelligent systems (Pas donné en 2026-27) | 3 | Group 2 : Options |
| MICRO-428 | Metrology | 3 | Group 2 : Options |
| ME-426 | Micro/Nanomechanical devices | 4 | Group 2 : Options |
| ME-469 | Nano-scale heat transfer | 4 | Group 2 : Options |
| MICRO-530 | Nanotechnology | 3 | Group 2 : Options |
| MICRO-517 | Optical design with ZEMAX | 3 | Group 2 : Options |
| MICRO-523 | Optical detectors | 4 | Group 2 : Options |
| EE-536 | Physical models for micro and nanosystems | 2 | Group 2 : Options |
| MICRO-420 | Selected topics in advanced optics | 3 | Group 2 : Options |
| MICRO-597 | Engineering internship credited with master project (master in Microengineering) (Stage d'au minimum 8 semaines après le 2ème semestre de Master. Inscription par la bourse aux stages) | 0 | Groupe 1 : Bases |
| MICRO-599 | Master project in Microengineering | 30 | Groupe 1 : Bases |
| Total | 120 |
The note “Block 1” applies to 72 components in this table.
- Complete the approved 120 ECTS full-time master's structure
- Follow mandatory blocks and any specialisation or orientation conditions
- Use prerequisites and semester availability before fixing electives
- Complete the programme's semester project and master's project requirements
- Treat the official regulations and study plan as legally binding
- Recheck the live plan because options may not run every academic year
The table is the reference inventory for the current catalogue, not a personal credit total. The approved route determines which compulsory, optional and project components count towards graduation.
Availability notes and prerequisites matter before an elective is fixed. A named option can belong to the published plan without running in every year or fitting every specialisation timetable.
A coherent study plan moves from prior preparation to advanced depth and one inspectable final project. It shouldn’t be assembled by adding every credit shown in the option catalogue.
Should an Indian applicant shortlist EPFL MSc Microengineering?
Shortlist MSc Microengineering when the transcript can support Biomedical optics and the proposed project has a defensible microsystems engineer direction. That academic match matters more than the EPFL name because only one EPFL master’s application can be submitted during the year.
The strongest case for MSc Microengineering is a progression from the preparation behind Fundamentals of analog VLSI to a final output a precision-engineering specialist supervisor could assess. EPFL doesn't publish a programme-level placement rate, so inspectable work carries more weight than a salary assumption.
The case against this choice is a transcript that cannot support advanced work such as Metrology. Competitive review won't reconstruct the missing base, while the INR 68.60 lakh plan and first-six-month work restriction make that mismatch costly.
- MSc Microengineering is a full-time 120 ECTS master's in Lausanne.
- The final application deadline for September 2027 is 31 March, while visa applicants are advised to apply by 15 December 2026.
- EPFL permits one master's application per academic year, so programme fit must be decided before submission.
- Four international semester invoices total CHF 8,960, about INR 10.32 lakh at the checked rate.
- The two-year planning total is CHF 59,548, about INR 68.60 lakh, before flights and the rental deposit.
- A Swiss higher-education graduate from a third country has six months to seek qualifying work, not a guaranteed post or permit.
Frequently asked questions
How much is EPFL MSc Microengineering for an Indian student?
Four published international semester invoices total CHF 8,960. Adding EPFL's two-year foreign-student living budget and the CHF 150 application fee gives CHF 59,548, about INR 68.60 lakh. The estimate excludes flights, exchange spreads and a rental deposit, and actual living costs can differ from EPFL's planning table.
What is the deadline for EPFL MSc Microengineering in 2027?
EPFL accepts applications in two rounds for September 2027. The early round closes on 15 December 2026 and the final round closes on 31 March 2027. Applicants who need a Swiss visa are advised to use December because the earlier decision leaves more time for the visa procedure and housing.
Does EPFL MSc Microengineering require GRE or GMAT?
EPFL does not list GRE or GMAT in the current central or programme requirements for MSc Microengineering. The committee assesses the bachelor's curriculum, grades, references, specialisation, statement and overall file. An optional test score cannot replace missing subject preparation, incomplete transcripts or the academic recommendation letters.
What CGPA is needed for EPFL MSc Microengineering from India?
EPFL publishes no universal Indian CGPA or percentage that guarantees admission. It asks for excellent academic records and evaluates the institution, curriculum, grades, research references, specialisation and overall application together. Provide complete transcripts and grading context, and map programme prerequisites to named bachelor's modules rather than relying on one converted number.
Is EPFL MSc Microengineering full time and taught in English?
This page covers the standard full-time 120 ECTS route. EPFL states the teaching language as follows. English, with a few optional courses in French. Check the live course plan because an English-completable programme can still carry optional French courses, while architecture specifically recommends strong ability in both English and French.
Can an Indian student stay in Switzerland after EPFL MSc Microengineering?
A third-country graduate of a Swiss higher-education institution can remain for six months to seek work matching the qualification. A job still needs the relevant authority approval and must represent an overriding scientific or economic interest where the graduate exception is used. The six-month period is not an automatic work permit or placement.
Sources
These sources support the programme, admission, cost, experience and immigration information used on this page.
Sources checked on September 29, 2026. The next intake covered here is September 2027; closes 31 March 2027.
| No. | Source | Evidence role |
|---|---|---|
| 01 | EPFL, MSc Microengineering official programme and admission criteria | Core programme evidence |
| 02 | EPFL, MSc Microengineering 2026 to 27 study plan | Supporting external evidence |
| 03 | EPFL, central master's admission criteria and 2027 application rounds | Supporting external evidence |
| 04 | EPFL, online application documents, references and fee | Supporting external evidence |
| 05 | EPFL, international tuition and compulsory semester charges | Supporting external evidence |
| 06 | EPFL, foreign-student Lausanne budget | Supporting external evidence |
| 07 | EPFL, Excellence Fellowship amount and deadline | Supporting external evidence |
| 08 | EPFL, 2022 graduate integration and salary survey | Supporting external evidence |
| 09 | Swiss State Secretariat for Migration, student work and graduate job search | Supporting external evidence |
| 10 | Swiss government, work permits for foreign nationals | Supporting external evidence |
| 11 | European Central Bank, daily INR and CHF reference rates | Supporting external evidence |
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