. "Electronics"@en . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . "Power sources"@en . . "5" . "Learning outcomes of the course unit:\nAfter completing the course, students have knowledge of basic electrochemical energy sources with emphasis on primary and secondary batteries and fuel cells for use in space engineering and space applications. Students understand the principles of operation of these resources, they are acquainted with their construction, degradation mechanisms, and systems for managing their performance. Students are also informed about hydrogen generators and methods of its storage. The knowledge is focused on the design and use of electrochemical energy sources for space applications, but they can also be used in other industries.\nStudents also have knowledge of solar radiation and its use, they will learn the principles of photovoltaic transformation. The knowledge is focused on materials and material structures for photovoltaic transformation with an emphasis on extraterrestrial applications and specific conditions in the space environment.\nBy completing the course, students will gain knowledge of the constructions and materials of cable systems used for the transmission of electrical energy in space applications. They will also gain basic knowledge of the nuclear energy sources used in space Course Contents:\nRequirements for electrochemical sources in space, principle of electrochemical energy storage, primary and secondary batteries, Li-ion batteries, fuel cells and hydrogen systems, hydrogen generators and hydrogen storage, degradation mechanisms of energy sources with emphasis on space conditions, power management systems for electrochemical energy sources, construction of energy sources for space applications.\nEnergy systems for space applications. The sun as a source of energy, solar radiation in terrestrial and extraterrestrial conditions. Photovoltaic transformation, photoelectric and photovoltaic phenomenon, solar cells and modules, specific requirements of space applications, photovoltaic systems in space. Degradation processes. Thermal energy, waste heat.\nTransport of electricity, wires and cables for space applications. Nuclear energy sources in space. Radioisotope thermoelectric generators (X-ray). Nuclear reactors for space applications." . . "Presential"@en . "TRUE" . . "Master in Space Engineering"@en . . "https://www.stuba.sk/english-1/stu/ects-label/ects-information-package/information-on-degree-programmes/all-programmes.html?page_id=5552&f=30&le=2&l=all&c=0&pg=1&ad=true#" . "120"^^ . "Presential"@en . "The graduate of the second-degree study program Space Engineering will acquire a full university degree in the field of Electrical Engineering with a dominant focus on modern and multidisciplinary engineering technologies used mainly in high-performance cosmic and space systems, but also in other electronic system components. As part of the study and completion of profile subjects such as: Materials and construction of space systems, Sensors and actuators, Energy sources, Microsystem technology, Interaction of radiation and matter, Space devices, Space research methods, the graduate will acquire a wide range of knowledge and skills in areas that are an integral part of integrated technological systems for space applications. The graduates will be able to solve complex technical tasks and research issues under different individual projects. Students will also practice working in a project team, where they gain management skills and other soft skills. Thus, the graduates of Space Engineering study will obtain competitiveness not only in space applications but also in other research areas, industry fields, as well as social life. Key Learning Outcomes:\n\"The graduate will learn to design, optimize, and construct advanced embedded electronic systems, sensor systems, various types of microsystems, robotic and propulsion systems, as well as control, navigation, and communication systems, and will use information technology and artificial intelligence in their design.\nThe graduate has knowledge of astrophysics, astrodynamics, astrobiology as well as mechanics and thermo-kinetics of space systems and can apply skills in the use of modern engineering CAE tools, including modelling and simulation of electro-mechanical systems.\nThe graduate is prepared to solve theoretical and practical tasks in the development of complex systems, especially for space applications using modern engineering tools, technologies, and an interdisciplinary systems approach.\""@en . . . "2"@en . "FALSE" . . . "Master"@en . "Final Exam of content of DP" . "15100.00" . "British Pound"@en . "31100.00" . "None" . "The graduate will find employment not only in the field of space engineering and advanced electronic systems, but also in related areas of industry, such as robotics, mechatronics, informatics, automotive industry (mechanical engineering), and others. Application is not limited to employment in the Slovak Republic and its surroundings, but also abroad, where graduates can offer high expertise in several industries."@en . "1"^^ . "FALSE" . "Upstream"@en . . . . . . . . . . . . . . . . . . . . . . . . . . .