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English Language Master's Degree Programme Technical Physics

As a basic natural science, the study of physics forms the foundation of innovative developments in cutting-edge technologies and future topics such as energy, the environment and digitisation. The Master's Degree Programme in Technical Physics offers a modern physics education that prepares you for a career in research or industry.

Quick Facts

  • Duration of study: 4 semesters
  • ECTS credit points: 120
  • Academic degree: Diplom-Ingenieurin or Diplom-Ingenieur (Dipl.Ing. or DI), equivalent to the Master of Science (MSc)
  • Language of instruction: English

The Master's Programme

You will build on your bachelor's programme in physics in the Master's Degree Programme in Technical Physics, expanding your physical and mathematical problem-solving skills and addressing research and practical issues.

A unique feature of this degree programme is the wide range of specialisation areas, which include:

  • Nano and Quantum Materials for the development of novel functional structures as well as concepts that can be applied to create materials that will be used in the future – even artificial skin,
  • State-of-the-art laser spectroscopy for the investigation of physical processes on atomic-length and -time scales,
  • Computer simulations that can be used for many purposes, from basic research to targeted material development.

All of the degree programme modules include a “research laboratory” in which students acquire a deeper understanding of specific subjects by carrying out practical exercises. In these labs, they have access to high-end equipment and laboratory facilities, including the world's best measuring instruments with atomic resolution, a femtosecond laser laboratory and state-of-the-art computer clusters.

In addition, a student-run laboratory, the PhiLab, provides an open makerspace for students and their projects (e.g. drones, Tesla coils).

Focus Areas

The following compulsory modules provide you with a broad basic education:

Statistical and Computational Physics: You will acquire knowledge of statistical physics and quantum statistics and learn the most important computer simulation methods.

Advanced Quantum Mechanics and Atom Physics: You will study the principles of advanced quantum mechanics and the composition of angular momenta, identical particles, scattering theory and the interactions between radiation and matter.

Advanced Solid-State Physics and Radiation Physics: You will explore areas of radiation physics, including radiation detection and dosimetry, radiation protection and the application of ionizing radiation. You will gain a basic understanding of crystalline solids.

Business and Entrepreneurship: You will learn more about the structure, organisation and management of companies and learn methods used during the innovation process.

In addition, you can specialise in three advanced Technical Physics modules, choosing from among 13 advanced modules.

You can also choose one or more elective subjects from among the courses offered in the Master's Degree Programme in Physics .

Collaborations and Networks

International exchange that takes place on a scientific level, e.g. as part of the Physics Colloquium, is assigned great importance in the master's programme. In addition, internationally renowned professors are invited to visit TU Graz for several weeks and provide insight into their research areas.

Students benefit from the cooperation with international research institutions such as CERN or the Max Planck Institute for Fusion Plasma Physics, as well as from collaboration with international universities. It is also possible for students to gain practical insights and conduct master’s thesis work with renowned companies, such as ams, AVL, EPCOS and Infineon, due to their long-term partnerships with TU Graz.

Physics graduates and students have the opportunity to build worldwide networks by joining the IAPS - International Association of Physics Students. As members of IAPS, for example, they can visit conferences, undertake excursions to research institutions (e.g. CERN, JET, Gran Sasso), attend summer schools, or join exchange programmes.

Admission

The prerequisite for admission is a completed bachelor’s degree in a relevant subject (see curriculum).

Additionally, you need to provide evidence of competence in the English language.

1. Admission Procedure

For the academic year 2024/25 there will be no admission procedure.

You can go directly to the next step (2. Admission).

2. Admission

If you have already been admitted to a degree programme at TU Graz, or have studied at TU Graz before, please come to the Registrar's Office in person to complete your admission during the admission period.

Fragen zur Zulassung?

Contact studynoSpam@tugraz.at

Career Prospects

Professional Fields

Technical physicists are regarded as universal problem solvers in innovative sectors of industry. They work as highly qualified specialists in scientific and technical fields in industry, business and science, both in Austria and abroad.

Graduates have a wide range of career options and are primarily active in the following sectors:

  • Universities and other educational and research institutions
  • Data processing
  • Electronics and electrical engineering
  • Precision mechanics and optics
  • Mechanical engineering and vehicle construction
  • Health and public service
  • Service sector and business services

Technical physics forms the basis of all engineering sciences and therefore offers graduates a variety of fields of application in industry.

I am particularly fascinated by the representation of complex systems of reality through mathematical models, the simulation of these virtual models by means of numerical methods and the verification of the simulation results through experiments. All these topics are discussed in the master’s degree programme Technical Physics and the required specialist knowledge is imparted.

Understanding scientific and technical principles and using this knowledge to solve complex problems – that motivated me to start studying physics and also during my studies. Because I wanted to take a hands-on work approach, I chose to conduct experimental work for my degree theses. Now I work in a high-tech company that depends heavily on vertical integration. Exactly this kind of motivation and these types of skills are needed to work efficiently in an interface function on a wide range of topics.