Aim
The student should develop his understanding of basic concepts and ideas within both classical and modern physics needed in subsequent courses and necessary for a future role as an electrical engineer. Many of the concepts introduced are also of great importance for a deeper understanding of the world around us and as parts of the general scientific knowledge. The course should also train the student in scientific problem-solving techniques and in written presentations of experimental data and comparisons with physics models. Together with other courses in the program the student should expand and maintain his ability to use high-level programs (e.g. MatLab) as a tool for presenting and analyzing experimental data and physics models.

Knowledge and understanding
For a passing grade the student must

• understand the relation between experiments, models and theory

• be able to use the fundamental laws of mechanics to investigate simple static and dynamic cases, particularly oscillating systems.

• understand basic wave phenomena and their application in optics and acoustics

Skills and abilities
For a passing grade the student must

• be able to formulate and solve problems in physics using mathematical methods.

• appreciate the scientific method of applying the same models, with different degree of approximation, to a number of different problems.

• be able to plan and perform physics experiments.

• be able to write a laboratory report that presents and analyzes experimental data in relation to physical models.

• be able to orally demonstrate and discuss a simple physics experiment

• be able to use high-level software (e.g. MatLab) to visualize, present and analyze data and theoretical models

Judgement and approach
For a passing grade the student must

• be able to evaluate models and technical applications in a scientific manner

• increase his ability to work in a group towards a common goal

Contents
Key concepts of mechanics: velocity, acceleration, force, energy, power, momentum, moment of inertia, angular momentum and torque. Newtons laws. Conservation laws. Static equilibrium, center of mass, free body diagrams and friction. Harmonic oscillations: free, damped and driven. Basic understanding of various wave phenomena in acustics and optics. Examples of such phenomena are wave propagation, reflection, dispersion, diffraction and interference. Gratings and grating spectroscopy. Polarization.

Literature
Tipler, P A, Mosca, G. Physics for Scientists and Engineers. Extended version, sixth edition. Freeman 2008, ISBN: 0-7167-8964-7
Laboratory work manual Fysik - Mekanik och Vågor för E.

Code: 0108. Name: Physics - Mechanics and Waves.
Higher education credits: 7. Grading scale: TH. Assessment: Written exam.

Code: 0208. Name: Laboratory Sessions in Mechanics and Waves.
Higher education credits: 2. Grading scale: UG. Assessment: Completed laboratory sessions and reports. Contents: The laboratory sessions: Motion of a falling body, Oscillatory motion, Geometrical optics, Diffraction of light.