- Apply calculus techniques (derivative, integration) to analysis of physical problems.
- Define kinematic variables (vectors of position, velocity, and acceleration) in three dimensional space and apply relationships between them.
- Analyze simple mechanical systems and apply Newton's equations of motion.
- Apply energy and momentum conservation principles to mechanical systems.
- Apply basic principles (2. Newton's law) to complex phenomena in mechanics (harmonic oscillator, waves).
- Explain principles of special theory of relativity.
- Explain the laws of electromagnetism and apply them to simple physical situations.
- Derive the wave equation for electromagnetic waves from Maxwell's equations.
- Explain the phenomena of light interference and polarization.
Forms of Teaching
Lectures with solved problems and experimentsPartial e-learning
Assignments through e-learning platformLaboratory
Student performed laboratory experiments
|Type||Threshold||Percent of Grade||Threshold||Percent of Grade|
|Laboratory Exercises||5 %||10 %||5 %||10 %|
|Homeworks||0 %||10 %||0 %||10 %|
|Mid Term Exam: Written||0 %||40 %||0 %|
|Final Exam: Written||0 %||40 %|
|Exam: Written||0 %||80 %|
In the mid-term exam and in the final exam one (of four) problem must be correctly solved. In the written exam two (of six) problems must be correctly completed.
Week by Week Schedule
- Kinematics (reference frame, position, velocity and acceleration of the particle); Motion in the rectangular coordinate system; Galilean transformations of the position and velocity of a particle.
- First Newton's law; Inertial frame of reference; Particle momentum; 2nd Newton's law; Newton's equation of motion; Motion under constant force (free-fall, incline, pulleys).
- Interaction of particles; 3rd Newton's law; Internal and external forces in a system of particles; Conservation of linear momentum in a system of particles.
- Definition of work and power; Kinetic energy; Conservative force; Stable and unstable equilibrium; Conservation of mechanical energy; Dissipative forces.
- Simple harmonic oscillator (mass on a spring); Equation of motion and the solution; Energy of oscillation; Damped oscillation; Subcritical, critical and supercritical damping; Forced oscillations; Amplitude and phase; Resonance; Coupled oscillators; Normal modes of oscillation.
- Propagation of waves; Frequency and phase vector; Phase speed; Superposition; Wave equation and its solution; Wave packet; Transverse wave (equation of motion, speed of propagation, power, standing wave).
- Transmission and reflexion of transversal waves; Coefficients of transmission and reflexion; Longitudinal wave (equation of motion, speed of propagation, power, standing wave); Adiabatic sound (speed of propagation, pressure amplitude, noise level); Doppler effect.
- Midterm exam.
- Experimental background; Postulates of the Special Relativity; Relativistic kinematics; Lorentz transformations; Length contraction; Time dilation; Relativistic energy and momentum; Rest mass of a particle.
- Electrostatics; Coulomb force; Electric field and the potential; Magnetostatics; Magnetic field of a straight wirel Biot-Savart law.
- First Maxwell's equation; Gauss' law for the electric field; Second Maxwell's equation; Gauss' law for the magnetic field.
- Third Maxwell's equation, Faraday's law of induction; Fourth Maxwell's equation, Ampère-Maxwell law.
- Wave equation for the electromagnetic field; Plane wave solution to the wave equation; Properties of the plane waves; Linear and circular polarisation of electromagnetic radiation; Poynting's theorem and vector; Intensity of electromagnetic radiation, Energy density of electromagnetic field; Polarization of light; Malus law.
- Coherent sources; Constructive and destructive interference of two sources; Young's experiment; Phase shift due to reflection of radiation; Interference of light reflected on thin films; Interferometry; Detection and measurement of small displacements.
- Final exam.