Nanostructures and computer simulations in materials science
Nanotechnology is an advanced and interdisciplinary field of science whose task is to design new materials, systems and methods based on nanostructures with well-defined and desired properties. Thanks to nanotechnology, we can solve the problems of everyday life, increasing the comfort of human life and meet many global challenges of the modern world, such as, for example, clean water supply, effective production and storage of energy based on renewable sources, effective diagnostics and therapy of cancer diseases. Therefore, we offer you master study program in nanotechnology, where with the international community, you can find the answer for modern-day problems.

Upon successful completion of the program students are awarded the Master of Science in Engineering (magister inżynier) in Nanotechnology.
The program focuses on the design and analysis of the properties of innovative nanomaterials and functional materials. During your studies you will gain knowledge and skills in the field of: synthesis of nanomaterials, measurements and analysis of their structural, mechanical, electrical and magnetic properties using advanced experimental techniques and facilities (X-ray diffraction; optical, confocal, electron and scanning probe microscopy; X-ray, photoemission, UV-Vis, IR and impedance spectroscopy; nanoindentention; differential scanning calorimetry and thermogravimetry) and computer-aided design and modeling of materials by classical and quantum molecular dynamics simulations using computing resources of Academic Computer Centre in Gdansk (CI TASK).

The NCSMS study program is a 4-semester program, during its implementation you collect at least 120 ECTS points in accordance with the following study plan:
| 
			 Name of the course  | 
			
			 Number of hours  | 
			
			 ECTS credits  | 
		|
| 
			 SEMESTER 1 (winter semester)  | 
		|||
| 
			 1  | 
			
			 Basics of nanophysics  | 
			
			 15  | 
			
			 1  | 
		
| 
			 2  | 
			
			 Magnetism: from fundamentals to spintronics  | 
			
			 30  | 
			
			 2  | 
		
| 
			 3  | 
			
			 Thermodynamics  | 
			
			 45  | 
			
			 3  | 
		
| 
			 4  | 
			
			 Microscopy methods in nanotechnology  | 
			
			 45  | 
			
			 3  | 
		
| 
			 5  | 
			
			 Introduction to quantum mechanics  | 
			
			 60  | 
			
			 6  | 
		
| 
			 6  | 
			
			 Chemistry and nanochemistry  | 
			
			 45  | 
			
			 4  | 
		
| 
			 7  | 
			
			 Physics of materials  | 
			
			 90  | 
			
			 9  | 
		
| 
			 8  | 
			
			 Foreign language  | 
			
			 30  | 
			
			 2  | 
		
| 
			 Total  | 
			
			 360  | 
			
			 30  | 
		|
| 
			 SEMESTER 2 (summer semester)  | 
		|||
| 
			 1  | 
			
			 Synthesis methods of nanomaterials  | 
			
			 45  | 
			
			 4  | 
		
| 
			 2  | 
			
			 Physical testing methods of materials  | 
			
			 45  | 
			
			 4  | 
		
| 
			 3  | 
			
			 Surface science  | 
			
			 30  | 
			
			 2  | 
		
| 
			 4  | 
			
			 Experimental nanotechnology  | 
			
			 45  | 
			
			 4  | 
		
| 
			 5  | 
			
			 Solid state electronics and nanoelectronics  | 
			
			 30  | 
			
			 2  | 
		
| 
			 6  | 
			
			 Spectroscopy methods in nanotechnology  | 
			
			 60  | 
			
			 5  | 
		
| 
			 7  | 
			
			 Glasses and glass-nanoceramic composites  | 
			
			 45  | 
			
			 3  | 
		
| 
			 8  | 
			
			 Foreign language  | 
			
			 30  | 
			
			 2  | 
		
| 
			 9  | 
			
			 Team research project I  | 
			
			 40  | 
			
			 3  | 
		
| 
			 10  | 
			
			 Humanities and social science course 1: Methodology of scientific research  | 
			
			 15  | 
			
			 1  | 
		
| 
			 Total  | 
			
			 385  | 
			
			 30  | 
		|
| 
			 SEMESTER 3 (winter semester)  | 
		|||
| 
			 1  | 
			
			 Computer modeling and design of nanomaterials  | 
			
			 60  | 
			
			 5  | 
		
| 
			 2  | 
			
			 Materials Science - classical particle approach  | 
			
			 75  | 
			
			 6  | 
		
| 
			 3  | 
			
			 Materials Science - quantum particle approach  | 
			
			 75  | 
			
			 6  | 
		
| 
			 4  | 
			
			 Theoretical principles of nanotechnology  | 
			
			 60  | 
			
			 5  | 
		
| 
			 5  | 
			
			 Humanities and social science course  | 
			
			 30  | 
			
			 2  | 
		
| 
			 6  | 
			
			 Faculty elective courses I (FTiMS)  | 
			
			 45  | 
			
			 3  | 
		
| 
			 7  | 
			
			 Team research project II  | 
			
			 40  | 
			
			 3  | 
		
| 
			 Total  | 
			
			 385  | 
			
			 30  | 
		|
| 
			 SEMESTER 4 (summer semester)  | 
		|||
| 
			 1  | 
			
			 Diploma seminar  | 
			
			 15  | 
			
			 1  | 
		
| 
			 2  | 
			
			 Nanotechnology and human environment  | 
			
			 30  | 
			
			 2  | 
		
| 
			 3  | 
			
			 MSc thesis laboratory  | 
			
			 90  | 
			
			 9  | 
		
| 
			 4  | 
			
			 Msc thesis  | 
			
			 30  | 
			
			 12  | 
		
| 
			 5  | 
			
			 Faculty elective courses II (FTiMS)  | 
			
			 45  | 
			
			 3  | 
		
| 
			 6  | 
			
			 Interdisciplinary Elective Course  | 
			
			 40  | 
			
			 3  | 
		
| 
			 Total  | 
			
			 250  | 
			
			 30  | 
		|
| 
			 Total  | 
			
			 1380  | 
			
			 120  | 
		|
Individual study plans may also be taken into account, if appropriately motivated, but they will have to be approved by NCSMS program coordinator.
Details of the admission procedure: https://pg.edu.pl/en/admission/master-studies
On-line admission: https://rekrutacja.pg.edu.pl/
For further details please contact:
- Agnieszka Witkowska 
e-mail: agnieszka.witkowska@pg.edu.pl
Phone: (+48 58) 348 66 08
Room: 4/10 Nanotechnology Centre A