Master's Programme in Engineering Physics
Previous curricula
On this page you will find the previous curricula of the programme.
Curriculum 2018–2020
Director of degree programme: Professor Mika Sillanpää
Degree: Master of Science (Technology)
Extent: 120 ECTS
Studies in engineering physics create a basis for the technological applications of physics and open doors for different careers in industry, science, and research. A profound understanding of physics and mathematics can be employed in finding novel solutions to both present-day and future’s challenges.
Studies in Master's Programme in Engineering Physics are strongly research oriented. Almost half of the MSc graduates continue towards a doctorate. The research focus areas range from experimental and theoretical materials physics to nanophysics and nanoscience, and to novel energy solutions. The study programme differs from a more classical university physics in its proximity to concrete, practical research questions. Its connection to real-life problems is very strong.
The student’s curriculum consists of an Engineering Physics major (40–65 ECTS), an option for a minor (20–25 ECTS), elective studies (25–30 ECTS), and a Master’s thesis (30 ECTS), 120 ECTS as total.
Following the degree requirements, you have two possibilities to structure your studies.
Long major
Long major (65 ECTS)
Master’s thesis (30 ECTS)
Elective studies (25 ECTS)
Compact major
Compact major (40 ECTS)
Master’s thesis (30 ECTS)
Minor (20–25 ECTS)
Elective studies (25–30)
In these two possible degree structures presented above, the extent of a major may not exceed 65 ECTS. Thus, the students will always have a choice of completely elective studies at minimum 25 ECTS.
Studies in engineering physics create a basis for the technological applications of physics and open doors for different careers in industry, science, and research. A profound understanding of physics and mathematics can be employed in finding novel solutions to both present-day and future’s challenges.
Studies in Master's Programme in Engineering Physics are strongly research oriented. Almost half of the MSc graduates continue towards a doctorate. The research focus areas range from experimental and theoretical materials physics to nanophysics and nanoscience, and to novel energy solutions. The study programme differs from a more classical university physics in its proximity to concrete, practical research questions. Its connection to real-life problems is very strong.
All students in the Master’s Programme in Engineering Physics may have a minor as part of their studies. You can choose to complete a minor subject instead of completing a more extended major. A minor can also be completed as part of the elective studies.
You can choose a minor from those offered by Aalto University, other Finnish universities or universities abroad. You are advised to discuss the matter with the professor in charge or other member of faculty. The minor is confirmed in the Personal Study Plan.
More information on Aalto University’s minor subjects:
Students choose 25–30 ECTS of elective studies. As elective studies, students can complete a minor and/or take individual courses from other programmes at Aalto University or other Finnish universities. Students can also participate in an international student exchange programme or do an internship in Finland or abroad (max. 10 cr). The elective studies can also contain a minor.
For more information on internationalisation, Aalto University’s minor subjects or internship:
Language studies
Compulsory language studies for students whose language of education is Finnish or Swedish are included as part of the bachelor’s degree. If the language studies have not been completed in the phase preceding master’s studies, they must be taken during the master’s degree studies. In this case, the student must take 2 ECTS in second national language and demonstrate both oral (o) and written (w) proficiency in one foreign language (3 ECTS) in order to fulfil language proficiency requirements.
Students who have received their education in a language other than Finnish or Swedish or received their education abroad are required to complete only 3 ECTS in one foreign language (including both oral (o) and written (w) proficiency).
Students with excellent command of English (e.g. English as a first language) may apply for the exemption from the compulsory foreign language requirement and take 3 ECTS of Finnish courses instead. In this case, according to the Degree Regulations, the student has not demonstrated the requisite written and oral language requirement in a foreign language, which is reflected in the appendix of the degree certificate. Students may apply for an exemption in the beginning of each term (deadlines 15 September and 15 January) with an application form.
The language studies are included in student’s elective studies.
More information about language courses can be found on the Language Centre’s website.
Students are required to complete a master's thesis, which is a research assignment with a workload corresponding to 30 credits. The thesis is written on a topic usually related to the student's major, or in some special cases to the minor, and agreed upon between the student and a professor who specializes in the topic of the thesis. The supervisor of the thesis must be a professor in the University, whereas the thesis advisor(s) must have at least a master’s degree.
Master’s thesis work includes a seminar presentation or equivalent presentation. The student is also required to write a maturity essay related to the master’s thesis.
The master’s thesis is a public document and cannot be concealed.
For more information about the master's thesis process, please see https://mycourses.aalto.fi/course/view.php?id=19277.
Engineering Physics major 2018–2020
Professor in charge: Mika Sillanpää
Extent: 40 cr (compact major), 65 cr (long major)
Abbreviation: EngPhys
Code: SCI3056
The objective of the major is to give the student the chance of profiling the studies for the future professional life while providing a very strong background in physics and mathematics. The studies include a lot of hands-on experience with research. Many of the students continue with a career in research, first with PhD studies.
The core idea of the major is to maintain the rigorous training while giving a possibility for the student to tune the contents. This rigor is a main strength, traditionally, of the program, both for doctoral studies and as regards its “brand name” on the job market.
Content and structure
The Engineering Physics major consists of two parts: a core content and a flexible choice of courses selected by the student. The core courses of the major cover important topics for engineering physics, and methods from computational, theoretical, and experimental physics. The core content includes also some choices for more detailed focusing on a certain subject. The rest of the studies have a very flexible structure, and provide the student with the possibility of focusing in physics, nanoscience, energy studies, or designing a more cross-disciplinary content for the major. The student can also choose to complete a minor subject, or complete a long major (65 cr).
The content of the compact major (40 cr) is: one mathematics, applied mathematics, or systems analysis course (5 cr), a choice between the Advanced Physics Laboratory or Computational Physics (5 cr), a Special Assignment (research or literature study, 10 cr), and 4 courses from the structure (together 40 cr).
In the case of the compact major the student is recommended to take 30 cr of the major courses and 30 cr of others during the first year. The special assignment can also be completed during the summer between the first and second year in the programme.
Compulsory courses (20 cr)
Code | Name | ECTS credits | Period | Year |
---|---|---|---|---|
PHYS-E0411 | Advanced Physics Laboratory | 5 | III-V | 1. |
OR | ||||
PHYS-E0412 | Computational Physics | 5 | III-V | 1. |
PHYS-E0441 | Physics Special Assignment V | 10 | varies | 2. |
MS-Exxxx |
One mathematics, applied mathematics or systems analysis course* * The mathematics courses on the MSc level include: MS-E1651 Numerical matrix computations, MS-E1652 Computational methods for differential equations, MS-E1653 Finite element method, MS-E1654 Computational inverse problems, MS-E2122Nonlinear optimization, MS-E1600 Probability theory. |
5 | 1. |
Optional courses (20 cr)
Select four courses (20 cr) from the selection below:
Code | Name | ECTS credits | Period | Year |
---|---|---|---|---|
PHYS-E0419 | Dynamics of particles, fluids and solids | 5 | I-II | 1. |
PHYS-E0414 | Advanced Quantum Mechanics | 5 | I-II | 1. |
PHYS-E0415 | Statistical Mechanics | 5 | I-II | 1. |
PHYS-E0421 | Solid-State Physics | 5 | IV-V | 1. |
PHYS-E0422 | Soft Condensed Matter Physics | 5 | III-IV | 1. |
PHYS-E0435 | Optical Physics | 5 | I-II | 1. |
PHYS-E0460 | Introduction to Reactor Physics | 5 | I-II | 1. |
PHYS-E0483 | Advances in New Energy Technologies | 5 | III-IV | 1. |
PHYS-E0411 | Advanced Physics Laboratory | 5 | III-V | 1. |
PHYS-E0412 | Computational Physics | 5 | III-V | 1. |
PHYS-E0461 | Introduction to Plasma Physics for Fusion and Space Applications | 5 | I-II | 1. |
To complete a long major (65 cr), the student selects elective physics or other relevant courses in addition to the core courses (40 cr) listed above so that the extent of the major is 65 cr. All the courses listed in the table above or in the example tracks of the long major are acceptable (see the example tracks of the long major: Materials physics and quantum technology tracks and Advanced Energy Technologies tracks).
The long major offers a chance of profiling the studies by a specialization in a topic. Examples of this are in-depth studies of theoretical/computational physics of materials, experimental physics, and energy sciences. To this end, if the student wishes to include other courses to the long major than the courses listed above or in the example tracks, the student may seek advice on the course selection with the professor in charge of the major or with his/her teacher tutor.
In addition to normal Master’s programme, engineering physics will be offered as a doctoral track, with the student's studies tailored towards a research career. Mentored by a professor of the department, the student can start working towards a PhD in one of the department’s research groups (linked to: http://physics.aalto.fi/en/groups/) already during their Master studies. Within the track there are suggested packages (see below) tailoring studies towards more computational or experimental approaches, as well as balanced options and also the possibility to focus on energy physics applications. Please note that after completing the Master’s degree, students need to apply separately for doctoral studies if they want to continue their studies towards a PhD.
In the case of a long major (65 cr) the student is recommended to take 40 cr of the major courses and 20 cr of others during the first year. The special assignment can also be completed during the summer between the first and second year in the programme.
Balanced track (65 cr)
Code | Name | ECTS credits | Period | Year |
---|---|---|---|---|
PHYS-E0441 | Physics Special Assignment | 10 | varies | 2. |
PHYS-E0415 | Statistical Mechanics | 5 | I-II | 1./2. |
PHYS-E0421 | Solid-State Physics | 5 | IV-V | 1./2. |
PHYS-E0414 | Advanced Quantum Mechanics | 5 | I-II | 1./2. |
PHYS-E0424 | Nanophysics | 5 | I-II | 1./2. |
PHYS-E0422 | Soft Condensed Matter Physics | 5 | III-IV | 1./2. |
PHYS-E0411 | Advanced Physics Laboratory | 5 | III-V | 1./2. |
PHYS-E0412 | Computational Physics | 5 | III-V | 1./2. |
PHYS-E0417 | Experimental Methods in Physics | 5 | I-II | 1./2. |
PHYS-E0419 | Dynamics of particles, fluids and solids | 5 | I-II | 1./2. |
MS-E1651 | Numerical Matrix Computations | 5 | II | 1./2. |
MS-E1654 | Computational Inverse Problems | 5 | IV | 1./2. |
Computational track (65 cr)
Code | Name | ECTS credits | Period | Year |
---|---|---|---|---|
PHYS-E0441 | Physics Special Assignment | 10 | varies | 2. |
PHYS-E0415 | Statistical Mechanics | 5 | I-II | 1./2. |
PHYS-E0412 | Computational Physics | 5 | III-V | 1./2. |
PHYS-E 0419 | Dynamics of particles, fluids and solids | 5 | I-II | 1./2. |
PHYS-E0421 | Solid-State Physics | 5 | IV-V | 1./2. |
PHYS-E0414 | Advanced Quantum Mechanics | 5 | I-II | 1./2. |
PHYS-E0546 | Density-Functional Theory for Practitioners | 5 | I-II (in odd years) | 1. |
PHYS-E0546 | Density-Functional Theory for Experts | 5 | I-II (in even years) | 2. |
CHEM-E4225 | Computational Chemistry II | 5 | IV-V | 1./2. |
CS-E3210 | Machine Learning: Basic Principles | 5 | I-II | 1./2. |
CS-E4890 | Deep Learning | 5 | IV-V | 1./2. |
MS-E1651 | Numerical Matrix Computations | 5 | I II | 1./2. |
OR | ||||
MS-E1654 | Computational Inverse Problems | 5 | IV | 1./2. |
Experimental track (65 cr)
Code | Name | ETCS credits | Period | Year |
---|---|---|---|---|
PHYS-E0441 | Physics Special Assignment | 10 | varies | 2. |
PHYS-E0415 | Statistical Mechanics | 5 | I-II | 1./2. |
PHYS-E0424 | Nanophysics | 5 | I-II | 1./2. |
PHYS-E0416 | Quantum Physics | 5 | III-IV | 1./2. |
PHYS-E0417 | Experimental Methods in Physics | 5 | I-II | 1./2. |
PHYS-E0411 | Advanced Physics Laboratory | 5 | III-V | 1./2. |
PHYS-E0435 | Optical Physics | 5 | I-II | 1./2. |
PHYS-E0423 | Surface Physics | 5 | III-IV (in even years) | 1./2. |
PHYS-E0551 | Low Temperature Physics | 5 | varies | 1./2. |
PHYS-E0422 | Soft Condensed Matter Physics | 5 | III-IV | 1./2. |
PHYS-E0421 | Solid-State Physics | 5 | IV-V | 1./2. |
MS-E1651 | Numerical Matrix Computations | 5 | II | 1./2. |
OR | ||||
MS-E1654 | Computational Inverse Problems | 5 | IV | 1./2. |
Theoretical track (65 cr)
Code | Name | ECTS credits | Period | Year |
---|---|---|---|---|
PHYS-E0441 | Physics Special Assignment | 10 | varies | 2. |
PHYS-E0415 | Statistical Mechanics | 5 | I-II | 1. |
PHYS-E0414 | Advanced Quantum Mechanics | 5 | I-II | 1. |
PHYS-E0421 | Solid-State Physics | 5 | IV-V | 1. |
PHYS-E0435 | Optical Physics | 5 | I-II | 1./2. |
PHYS-E0416 | Quantum Physics | 5 | III-IV | 1. |
PHYS-E0551 | Low Temperature Physics | 5 | varies | 1./2. |
PHYS-E0419 | Dynamics of particles, fluids and solids | 5 | I-II | 1./2. |
PHYS-E0412 | Computational Physics | 5 | III-V | 1. |
PHYS-E0418 | Advanced Statistical Physics | 5 | III-V (in even years) | 1. |
Choose two of the mathematics courses:
In order to tailor the Engineering Physics major towards the energy sector, the student is advised to include following courses in the core part of the major:
Code | Name | ECTS credits | Period | Year |
---|---|---|---|---|
Compulsory courses (20 cr): | ||||
Recommended optional courses (20 cr): | ||||
PHYS-E0441 | Physics Special Assignment | 10 | varies | 2. |
PHYS-E0411 | Advanced Physics Laboratory | 5 | III-V | 1. |
OR | ||||
PHYS-E0412 | Computational Physics | 5 | III-V | 1. |
MS-Exxxx | One mathematics, applied mathematics or systems analysis course* | 5 | 1./2. | |
PHYS-E 0419 | Dynamics of particles, fluids and solids | 5 | I-II | 1. |
PHYS-E0460 | Introduction to Reactor Physics | 5 | I-II | 1. |
PHYS-E0483 | Advances in New Energy Technologies | 5 | III-IV | 1. |
PHYS-E0461 | Introduction to Plasma Physics for Fusion and Space Applications | 5 | I-II | 1. |
* The mathematics courses on the MSc level include: MS-E1651 Numerical matrix computations, MS-E1652 Computational methods for differential equations, MS-E1653 Finite element method, MS-E1654 Computational inverse problems, MS-E2122 Nonlinear optimization, MS-E1600 Probability theory.
For completing the long major, the student can choose 25 cr from the following courses, and also include special assignments and other individual studies, upon agreement with Profs. Tuomisto, Lund or Groth. Further courses relevant to this major can be found in the course listings of the Aalto Nuclear Safety Minor and Multidisciplinary Energy Studies Minor.
Courses in Nuclear Science and Technology (choose 25 cr):
Code | Name | ECTS credits | Period | Year |
---|---|---|---|---|
+ Through JOO at LUT: | ||||
PHYS-E0460 | Introduction to Reactor Physics | 5 | I-II | 1./2. |
PHYS-E0562 | Nuclear Engineering, advanced course | 5 | IV-V | 1./2. |
PHYS-E0461 | Introduction to Plasma Physics for Fusion and Space Applications | 5 | I-II | 1./2. |
PHYS-E0566 | Advanced course in plasma physics with computational emphasis | 5 | III-V | 1./2. |
PHYS-E0463 | Fusion Energy Technology | 5 | III-IV | 1./2. |
PHYS-E0564 | Nuclear competence portfolio | 1 | varies | 1./2. |
PHYS-E0565 | Programming course on Monte Carlo particle transport simulations | 5 | I-II | 1./2. |
PHYS-C0360 | Säteilyfysiikka ja -turvallisuus | 5 | I-II | 1./2. |
PHYS-C6360 | Johdatus ydinenergiatekniikkaan | 5 | III-IV | 1./2. |
BH30A1900 | Thermal Hydraulics of Nuclear Power Plants | |||
BH30A2000 | Modelling of Thermal Hydraulics of Nuclear Power Plants | |||
BH30A2200 | Experimental Nuclear Thermal Hydraulics |
Internationally, students can take courses available through the European Nuclear Education Network ENEN (http://www.enen.eu). An additional benefit provided by ENEN is the European Master of Science in Nuclear Engineering Certification EMSNE (requires a 300 ECTS-MSc-level degree where 60 ECTS are in nuclear science and technology, preferably engineering, including a MSc thesis project in the nuclear field, and 20 ECTS need to be earned in a country other than that of the home university). For further information, contact Prof. Filip Tuomisto.
Courses in Renewable Energy Technologies (choose 25 cr):
Code | Name | ECTS credits | Period | Year |
---|---|---|---|---|
PHYS-C1380 | Multi-disciplinary energy perspectives | 5 | III-IV | 1./2. |
PHYS-C6370 | Fundamentals of New Energy Sources | 5 | I-II | 1./2. |
PHYS-E0483 | Advances in New Energy Technologies | 5 | III-IV | 1./2. |
PHYS-E6570 | Solar Energy Engineering | 5 | III-IV (in even years) | 1./2. |
PHYS-E6571 | Fuel Cells and Hydrogen Technology | 5 | III-IV (in odd years) | 1./2. |
PHYS-E6572 | Advanced Wind Power Technology | 5 | I-II (in even years) | 1./2. |
PHYS-E0582 | Special Course in Advanced Energy Technologies | varies | 1./2. | |
PHYS-E0544 | Individual Studies in Physics: The contents and requirements for the individual studies have to be agreed with Professor Peter Lund. | varies | 1./2. |
Curriculum for Academic Year 2017–2018
Curriculum 2015–2017
Curricula 2015–2016 and 2016–2017 are in PDF format.
- Published:
- Updated: