Quantum Physics
Gustaw Szawioła
The course introduces students to basic experimental facts, concepts, and postulates of quantum physics, highlighting the fundamental differences between the description of the microworld and classical physics. Participants learn the mathematical formalism of quantum mechanics in matrix and wave representations, along with appropriate tools for quantitative analysis of quantum phenomena. The curriculum also covers understanding the structure of the quantum description of reality and its implications for technical applications.
Atomic Physics
Magdalena Elantkowska
The course introduces students to atomic and nuclear physics topics, including energy quantization, models of the hydrogen atom and multi-electron systems, as well as the fine and hyperfine structure of matter. Participants become familiar with the laws governing the microworld and their practical use in modern spectroscopic methods. The curriculum also develops skills in analyzing physical phenomena and utilizing specialized scientific literature.
Optical Constructions
Andrzej Jarosz
The course introduces students to the fundamentals of geometrical and wave optics and the design process of modern optical devices. Participants learn about the properties of optical materials, types of elements such as lenses, mirrors, or prisms, as well as key physical phenomena affecting image rendering quality. The curriculum also includes practical principles of constructing optical systems and using specialized software to support the process.
Nuclear Power Engineering
Magdalena Elantkowska
The course introduces students to the fundamentals of nuclear physics and nuclear energy, including nuclear models, reaction mechanisms, and the principles of operation and construction of nuclear reactors. Participants gain an overview of power reactor types, an analysis of historical power plant accidents, and computational methods in reactor physics. The curriculum concludes with a discussion on thermonuclear fusion and the prospects for its utilization.
Laser Optics
Bogusław Furmann
The course introduces students to advanced optics, matrix description of systems, interferometry, and fiber optic technology. Participants learn about quantum laser radiation generation processes, resonator types, active medium properties, and the operating principles of core laser components. The curriculum also covers topics related to light modulation, ultra-short pulse generation, and tunable laser operation.
Fundamentals of Quantum Engineering
Gustaw Szawioła
The course introduces students to the fundamentals of quantum engineering, covering mathematical description, manipulation, and tomography of single- and two-qubit states. Participants learn key physical implementations and tools, such as ion traps or resonant cavities, as well as their practical applications in modern quantum computing and quantum metrology.
Laser Techniques and Measuring Apparatus
Bogusław Furmann
The course presents advanced applications of laser technology in science, medicine, industry, and measurement technologies, aligning with the latest development trends in optoelectronics and quantum engineering. It covers beam shaping and stabilization methods, spectroscopy, laser cooling, and practical laser applications in surgery, material processing, holography, and lidar systems. Participants also learn the specifics of ultra-short pulse generation and various applications ranging from modern metrology to military systems.
Construction of Measuring Apparatus
Andrzej Jarosz
The course introduces students to the design, configuration, and operating principles of advanced research equipment used across various fields of physics. The curriculum covers signal processing, noise reduction techniques, and modern measuring apparatus, including optical spectroscopy, radiospectroscopy, and mass spectrometry. Participants gain practical knowledge essential for solving technical problems and integrating complex measurement systems.
Canons of Modern Physics
Gustaw Szawioła
The course explores branches of modern physics, combining analytical, statistical, and quantum approaches. Participants learn advanced dynamics formalisms, ensembles in statistical physics, and quantum mechanics in phase space using the Wigner function. The curriculum also includes relativistic quantum physics based on the Dirac equation and the fundamentals of second quantization in quantum field theory.
Advanced Laboratory of Laser Spectroscopy
Gustaw Szawioła, Andrzej Jarosz
The course introduces students to the practical application of laser spectroscopy methods, such as Laser-Induced Fluorescence (LIF) and Optically Detected Magnetic Resonance (ODMR). Participants learn about apparatus, signal recording procedures, and measurement data analysis methods. The sessions provide a direct introduction to modern quantum engineering techniques based on the interaction of laser light and microwave radiation with matter.
Experimental Methods of Quantum Engineering
Bogusław Furmann
The course introduces students to advanced experimental methods and the realization of quantum processes, focusing on designing and operating modern research setups. The curriculum includes light control techniques, single-photon detection, and trapping methods for ions and neutral atoms in electromagnetic and optical traps (such as Paul traps or optical lattices). Participants also learn operating principles of quantum processors, atomic time and frequency standards, and the fundamentals of carrying out advanced quantum experiments.
Quantum Optics
Gustaw Szawioła
The course introduces students to quantum states of the electromagnetic field and quantum optics processes in the context of their applications in information processing, quantum communication, and quantum metrology. Participants learn the mathematical description of light states, principles of interferometry, and operations of optical and atomic quantum logic. The curriculum also covers atom-quantized field interaction and the construction of light-matter interfaces as key elements of modern quantum networks.
Quantum Information Science
Danuta Stefańska
The course introduces students to fundamental topics in quantum computing and information science, combining theoretical foundations of quantum mechanics, qubits, and algorithms with hardware technology and quantum communication. Participants become familiar with software and quantum computer architecture, as well as the basics of cryptography and quantum teleportation. In laboratory sessions, students conduct practical experiments in quantum optics and polarization state measurements.
Quantum Algorithms
Gustaw Szawioła
The course focuses on key quantum algorithms and their practical implementation in modern software development environments (Q-SDK). Participants learn the mathematical description of quantum registers, gates, and circuits, as well as canonical algorithms such as Grover's algorithm, quantum Fourier transform, and Shor's algorithm. The curriculum also covers advanced applications of quantum algorithms, including variational algorithms and machine learning, hardware limitations, and practical laboratory exercises on simulators.
Construction of Research Apparatus
Bogusław Furmann
The course introduces students to the design, operation, and maintenance of advanced research equipment, as well as physical quantity measurement techniques and noise reduction in signal systems. The curriculum covers modern laser metrology, a wide range of advanced spectroscopic techniques, radiospectroscopy, and mass spectrometry. Participants also learn about apparatus for studying atmospheric pollution and basic quantum engineering devices, such as atomic/ion traps and optical tweezers.
Quantum Communication
Gustaw Szawioła
The course introduces students to the physical conditions and operating principles of quantum communication, with a special focus on Quantum Key Distribution (QKD) protocols. Participants learn classical and quantum information theory, implementations based on single and entangled photons, and key hardware elements used in QKD systems. The curriculum also includes a project component where students simulate layers of selected protocols and design educational key distribution systems.
