This course explores the current state and future prospects of quantum technologies, a field that pushes the boundaries of our everyday experience. You'll investigate what products might emerge from this mysterious area of knowledge, the role of both theoretical and experimental research, and the concept of a 'quantum engineer'. The course will explain how 'quantum paradoxes' aid in teaching and explore the capabilities and limitations of quantum computers. You will also learn why information cannot be extracted from a single photon and how this principle enables the creation of absolutely secure information transmission systems. The curriculum covers how modern experimental physics tools allow manipulation of individual atoms and photons, how to store and retrieve information using quantum objects, and the meaning of 'measuring the state of a quantum system'. The course aims to explain why these advancements are important for humanity, tracing a path from atomic bombs to single-atom control, from lasers to photon statistics, and from crystal lattices to photonic crystals, illustrating how this science often moves from large, complex systems to smaller, simpler ones.
The course program includes the following topics:
Graduates of the faculty are competitive in the labor market due to a combination of deep theoretical knowledge and active practical and research work. Graduates work in all fields where computing is used, including academic and research institutes, universities, government institutions, banks, financial firms, and IT companies. Approximately one-third of graduates continue their education in postgraduate programs. The faculty has agreements with foreign universities for cooperation and student exchange, as well as with major companies like Intel, Microsoft, IBM, and Samsung.
The course is designed for a wide audience of non-specialists. It can be used for the educational process in universities for bachelor's, master's, and specialist programs as supplementary education.
The course is designed for a wide audience and requires knowledge of basic physics and mathematics at the level of a school program. It can be used as supplementary education for university students in bachelor's, master's, and specialist programs.
This course explores the current state and future prospects of quantum technologies, including quantum computing, quantum cryptography, and the manipulation of individual atoms and photons. You will learn about the capabilities and limitations of quantum computers and how quantum principles enable secure information transmission.
The programme is delivered through distance education with weekly sessions featuring video lectures and automated testing. A significant part of the learning involves writing analytical essays based on provided topics, supported by course materials and academic literature.
Graduates are competitive in the labor market and can find roles in academic and research institutes, higher education institutions, government bodies, financial firms, and IT companies. Approximately one-third of graduates continue their education in postgraduate programs.
Enrollment is available through the OpenEdu platform. You need to visit the course enrollment page on OpenEdu and follow the instructions to register for the 'Quantum Technologies' course.