Course Description
COURSE CONTENT
Lectures:
- Physical methods, units, and measurement (2 h)
- Mechanics (2 h)
- Mechanics of fluids (2 h)
- Vibrations and waves (2 h)
- The basic concepts of kinetic theory and thermodynamics (2 h)
- Electrostatics (2 h)
- Electromagnetism (2 h)
- Geometrical optics (2 h)
- Atomic structure of matter and basics of quantum mechanics (2 h)
- Basics of nuclear physics and dosimetry (2 h)
Seminars:
- Damped and forced oscillation, resonance. Mechanical waves.(2 h)
- Magnetic field. Biot-Savart's law. Amperé law. (2 h)
- Electromagnetic waves. (2 h)
- Basic laws of optics. (2 h)
- Radiation Detectors. Dosimetry units. (2 h)
Exercises:
Two exercises from the list:
- Density
- Friction force
- Mathematical pendulum
- Energy conservation
- Free and damped oscillations
- Torsional oscillations
- Tension
- Viscosity
- Expansion coefficient
Total time of execution, processing of data and reports writing - 15 h
LEARNING OUTCOMES
- analyze physical processes in operation and maintenance of technological devices
- define the fundamental laws of physics (Newton's laws, conservation laws)
- analyze physical processes in fluid mechanics and thermodynamics
- explain the fundamental physical principles of vibration and waves
- explain the basic concepts of electrostatics and current circuits
- describe the basics of the mass spectrometer using Lorentz force and describe the use of magnetic induction
- apply laws of geometric optics
- describe the quantization of electromagnetic radiation on the radiation of the black body and the photoelectric effect
- describe the basic laws of nuclear physics and the impact of ionizing radiation on organic matter
- conduct, according to the given instructions, simple laboratory exercises.