Physics Course code: FIZ 220014 | 6 ECTS credits
Basic information
Level of Studies:
Undergraduate applied studies
Year of Study:
1
Semester:
2
Requirements:
Knowledge of mathematics.
Goal:
Developing basic scientific literacy; understanding phenomenons, changes, processes and relations through the knowledge of laws, models and theories; developing logical thinking and a critical attitude; understanding the interactions between physics and textile technology; developing independence and perseverance in solving problems; developing the awareness of personal knowledge and abilities and further professional orientation.
Outcome:
The students should be able to: know and use scientific terminology; know and use the International System of Units (SI) while gaining experience in measuring and confirming the laws; understand and use formulae, interpret charts and diagrams; understand that phenomena on a micro level influence those on the macro level; use the laws of motion; be familiar with the elements of physics of gases, liquids and solids; understand the notions and laws used to describe electromagnetic phenomena; understand the notion of field in physics and the parameters used to describe them; understand how EM waves are created, their nature, character and application; know the basic laws of geometrical and wave optics and how to apply them; know colorimetry.
Contents of the course
Theoretical instruction:
- Introduction. The International System of Units; physical measures and their nature: scalars and vectors.
- Classical science of motion and its base in physics. Elements of kinematic translation and rotation; motion equations.
- Newton’s laws for the dynamic of translation and rotation.
- Work, energy and power. Conservation laws.
- Oscillatory motion and elasticity. Types of deformations and Hooke’s law. Wave motion.
- Elements of the physics of gases, liquids and solids. Ideal gas. The basic equation of the kinetic theory of gases. Temperature and the average kinetic energy of a molecule.
- Gas laws. Equation for the ideal gas state. Internal energy of a physical system. The amount of heat, specific heat and latent heat. Thermal expansion.
- Liquid properties. Surface tension, capillary phenomena and viscosity.
- Electrostatics. Electronic theory of electric charge. Coulomb’s law. Conductors, insulators and semiconductors. Electric field. Electric properties of textile. Application of static electricity in printing and dyeing.
- Electric current. Direct current. Current strength, electric resistance, voltage. Direct current work and strength. Joule’s law. Ohm’s law.
- Magnetism. Magnetic forces and magnetic fields. Electromagnetic induction and self-inductance. Alternating currents. Ohm’s law for the RLC circuit.
- Optics. The nature of light. Dispersion of light. Reflection and refraction of light. Total reflection. Interference, diffraction and polarization of light.
- Geometrical optics. Flat and spherical mirrors. Construction of the image and mirror equation. Lenses, image construction and lens equation. Prentice’s rule. Optical instruments: magnifying glass and microscope.
- The basics of colorimetry. Seeing and measuring colors. Color systems. Applying colorimetry in the textile industry.
Practical instruction (Problem solving sessions/Lab work/Practical training):
- The International Measuring System; scalars and vectors; measuring length with measuring tape. Science of motion; equations for translatory and rotational motion; Newton's laws for the dynamic of translation and rotation. Work, power and energy. Conservation laws. Body density; determining the density of a solid body with a pycnometer. Hooke’s law; determining Young’s modulus of elasticity by using Hooke’s law. Elements of physics of gases, liquids and solids. Amount of heat; measuring the temperature of a mixture of hot and cold water after thermodynamic equilibrium has been reached. Surface tension, capillary phenomena and viscosity. Determining the surface tension coefficient with a capillary tube; determining the coefficient of viscous friction using Stokes’ method. Electric current. Direct current in a simple and complex circuit. Magnetism. Alternating currents. Ohm’s law for the RLC circuit; confirming Ohm’s law in an electric circuit. Determining the resistance in mixed resistor circuits. Optics; mirror equation; lens equation. Determining focal length with an optical bench. Color mixing.
Textbooks and References
- D. Cerović, G. Božić, Osnovi teorije iz fizike sa zbirkom i praktikumom, Beograd 2004 (skripta)
- V. Drinčić, Osnovi Fizike, Beograd 2005
- Boško Pavlović, Dimitrije Stanojević, Fizika, Naučna knjiga, Beograd, 1989.
Number of active classes (weekly)
Lectures:
2
Practical classes:
2
Other types of classes:
0
Grading (maximum number of points: 100)
Pre-exam obligations
Points
activities during lectures
0
activities on practial excersises
0
seminary work
0
colloquium
0
Final exam
Points
Written exam
0
Oral exam
0