Basic subjects
Mathematical analysis. Analytical geometry and linear algebra Information technology Information and communication technologies and engineering graphics Optics Chemistry Electricity and magnetism Introduction to project activities
Specialized subjects
Diffraction methods for studying matter; Differential equations, probability theory and mathematical statistics, methods of mathematical physics; Quantum and optical electronics; Quantum Mechanics; Crystal chemistry and crystal physics; Materials and methods of nanotechnology; Methods of analysis and control of nanostructured materials and systems; Methods of mathematical modeling; Metrology, standardization and technical measurements; Mechanics and molecular Physics; Modeling of micro- and nanostructures; Fundamentals of crystallography and group theory; Applied tensor analysis; Design activities; Special practice. Materials Science of nanosystems; Statistical physics and thermodynamics; Physics of the atom and atomic phenomena; Physics of heteroepitaxial structures; Physics of condensed matter; Physics of semiconductors and dielectrics; Physical foundations of micro- and nanosystem engineering; Electrodynamics; Electrical engineering and electronics; Educational introductory practice; Self-organization of biological nanostructures; Topological excitations in ferroelectric nanostructures
Program Overview
During the education students will become familiar with modern methods of producing nanomaterials, experimental research methods, and the basic principles of developing functional devices based on nanostructured materials. There will be a strong focus on training in information technology and mathematical modeling. Students will take basic courses in mathematics, physics, chemistry, and biology, in sections in theoretical physics such as electrodynamics, quantum mechanics, statistical physics, and thermodynamics.
They will also study core disciplines such as condensed state physics, material science of nanostructured materials, probe microscopy of nanostructures, and the physical and chemical bases of micro- and nanotechnology processes and micro- and nanosystems technology. While mastering these professional disciplines students will learn to create, modify, and research new materials; model, design, and manufacture devices; develop nano- and microsystem technologies for various functional purposes. Students will also learn how to develop and apply nanotechnology processes and methods for diagnosing nanosystems. The learning process is based on project-based learning principles which allow students to study complex processes in an accessible and exciting way.
Program Benefits
Nanotechnology is a priority for developing science-intensive high-tech sectors of the economy that are integrated into the global space. This is written in several state documents and the SFU development program. Nanotechnology is one of the most important areas of science, technology and engineering development in the Russian Federation. The Bachelor's degree program "Nanotechnology and Microsystems Engineering" is new and different because it teaches students modern ways to make nanocrystalline materials in different designs (nanotubes, monolayers, nanoparticles, nanodots, nanorods and superlattices) and the features of their diagnostics. Nanostructured materials are important for the future of nanoelectronics.
Our educational program is original because it focuses on getting a better understanding of the field of "Nanotechnologies and microsystems engineering." Foreign educational programs of the world's best universities (Harvard University, Yale University, and Brown University) focus on liberal arts education. The goal of this education is to develop specialists who are intelligent and can think critically and act effectively. At the same time, it is not decided in advance how and where graduates will use the knowledge they have gained.
Prospects. Career & Employment
In leading research institutes in the Russian Federation and foreign research centers.
R&D departments of leading corporations and tech startups.
Embedded programmers for various purposes.
Students can also continue studying in SFedU master’s program and in the master’s programs of the best Russian and foreign universities.
Why is it important to pursue a higher education?
The modern labor market is searching for graduates of this specialization because it is primarily driven by the demand for specialists who can develop modern technologies for creating new functional nanostructured materials. These specialists should also understand the fundamentals of the strategic and innovative management of these materials considering their cost and quality. This educational program provides an advanced basic education that can be continued in master's degree interdisciplinary programs.
The statistics of the employment of graduates over the past two years showed that 93% of bachelor’s degree students aspire to earn a master’s degree in the same field for improving their qualification. Approximately 40% of master's degree students including all graduates since 2010 are employed in research intensive companies both in the Rostov region and in other regions. About 40% of graduates work in universities and carry out researchers both in Russia and abroad. Approximately 15% of graduates work in IT companies. Only about 5% of graduates choose other fields. The questionnaire shows that students are satisfied with their employers, working conditions, and salaries. The employment of graduates is monitored every year. We have strong cooperation with many of our graduates.