Master in Advanced Materials Physics and Nanostructures
Bucharest, Romania
Master degree
DURATION
2 years
LANGUAGES
Romanian
PACE
Full time
APPLICATION DEADLINE
EARLIEST START DATE
Sep 2026
TUITION FEES
STUDY FORMAT
On-Campus
Key Summary
About: The Master in Advanced Materials Physics and Nanostructures at the University of Bucharest covers quantum theory of identical particles, mesoscopic and condensed-matter physics, transport in disordered materials, semiconductor and optoelectronic device physics, crystal growth, thin-film and nanostructure technologies, optical nonlinearities, dielectrics, liquid crystals, polymer interfaces, computational electronic-structure methods, advanced numerical and parallel computing, virtual instrumentation and data acquisition.
Career Outcomes: Graduates can work as research scientists, R&D engineers, optoelectronic or device engineers, nanotechnology specialists, or materials characterization experts in academia, industry or applied research labs. They can also pursue PhD study in condensed matter, nanoscience or computational materials research.
- Introduction to quantum theory of identical particle systems
- Special Mathematics Chapters
- Introduction to physics of mesoscopic systems
- Linear response phenomena
- Transport phenomena in disordered materials
- Methods for modeling electronic and optoelectronic devices
- Crystal growth techniques
- Nanostructures with applicability in electronics, optoelectronics, sensory and bio-electrochemistry
- Techniques for measuring optical and semiconductor coefficients
- Physics and thin film technology
- Optical non-linear phenomena
- Physics of dielectrics
- Optoelectronic properties of liquid crystals and thin film films. Technological applications.
- Interface phenomena in polymer structures. Nanotechnologies and applications.
- Computational methods in the theory of electronic structure of materials
- Advanced numerical methods in the physics of multiple particle systems
- Electronic devices and special optoelectronics
- Physics of semiconductor devices
- Phase transitions in condensed matter
- Advanced parallel computing methods
- Virtual Instrumentation and Data Acquisition