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Freie Universität Bozen

Physik II

Semester 1 · 42439 · Bachelor in Elektro- und Informationstechnik · 7KP · EN


· Electrostatics I: electric charge; coulomb law; electric field; electric potential.
· Electrostatics II: Electric energy storage: capacitance; dielectrics
· Electric currents: Ohm’s law; resistance; Joule’s effect; power; direct/alternating current; electric circuits; Kirchhoff’s laws.
· Magnetostatics: magnetostatic fields; magnetic induction; Lorentz’s forces; Ampère’s law; magnetic dipoles; magnetic energy.
· Electromagnetic induction and Faraday’s law.
· Electromagnetic waves: Maxwell’s equations; light propagation; polarization of electromagnetic waves.
· Optics: reflection, refraction, interference, diffraction. Thin lenses.

Lehrende: Manuela Ciocca, Franco Cacialli

Vorlesungsstunden: 46
Laboratoriumsstunden: 46
Anwesenheitpflicht: Strongly Recommended

Themen der Lehrveranstaltung
· Electrostatics I: electric charge; coulomb law; electric field; electric potential. · Electrostatics II: Electric energy storage: capacitance; dielectrics · Electric currents: Ohm’s law; resistance; Joule’s effect; power; direct/alternating current; electric circuits; Kirchhoff’s laws. · Magnetostatics: magnetostatic fields; magnetic induction; Lorentz’s forces; Ampère’s law; magnetic dipoles; magnetic energy. · Electromagnetic induction and Faraday’s law. · Electromagnetic waves: Maxwell’s equations; light propagation; polarization of electromagnetic waves. · Optics: reflection, refraction, interference, diffraction. Thin lenses.

Unterrichtsform
Frontal lectures, exercises, labs

Bildungsziele
1. Knowledge and understanding Knowledge and basic understanding of physical laws: 1. Fundamentals of atomic structures 2. Electrostatics 3. Electrodynamics 4. Magnetism 5. Electromagnetic waves and optics 6. Fundamentals of quantum mechanics 2. Applying knowledge and understanding Students are expected to develop the ability to explain physical phenomena, systems and components based on the concepts learned in the course 3. Making judgements Students are expected to develop the ability to give explanations of physical phenomena, systems or devices basing their explanation on the concepts learned in the course. 4. Communication skills Maturing of technical-scientific terminology. 5. Ability to learn Development of an analytic attitude leading the student to decompose a problem in sub-tasks which can be solved with the knowledge already acquired, and the ability to acquire knowledge beyond this course.

Bildungsziele und erwartete Lernergebnisse (zus. Informationen)
The student should understand the basic principles of electrostatics, electrodynamics, magnetism, optics, and elementary quantum mechanics as well as be able to apply them.

Art der Prüfung
Formative assessment Form: In-class exercises Details: Continuously as part of the course problem classes ILOs assessed: 1-5 Summative assessment Form: Written - Closed-book exam/Oral (at the discretion of the examination committee) Questions on theory, problems solution ILOs assessed: 1-5

Bewertungskriterien
The exam includes a written and an oral component. The written exam (2.5 hours) consists of two parts: a first part (problem 1) with a series of (mostly) qualitative or semi-quantitative questions based on the understanding of the topics covered in the lectures, as well as a second part (problems 2-5) consisting of several numerical or symbolic problems to be solved related to the various topics covered in the lectures. Grading will be based upon: - The correctness of the approach and the mathematical steps of the solution, the calculation of numerical results and the correct use of physical quantities and units. - The correctness of the provided answers and of the presented, as well as the terminology used. To pass the exam the final grade must be greater or equal to 18. If the final score is greater than 30, a “cum laude” grade is awarded. The student can have access to the exam with pen, pencil and a portable calculator. A short list of constants is provided to the students along with the text of the exam. Students should also be able provide proof of identity (e.g. Campus card, ID card, passport) before the start of the exam. Depending on the outcome of the written exam students may be invited, at the discretion of the examiner(s), to an oral exam that may include questions on the programme covered in the lectures (including those of the written part of the exam) and may lead to an increase or a reduction of the grade of the written component. Students should also be able provide proof of identity (e.g. Campus card, ID card, passport) before the start of the exam

Pflichtliteratur

Blackboard / Lecture notes / Selected readings from Physics for Scientists and Engineers with Modern Physics, Douglas C. Giancoli, Pearson, 4th edition, 2008.

Also available in electronic format (pdf) from UNIBZ library.



Weiterführende Literatur

Physics for Scientists and Engineers with Modern Physics, Douglas C. Giancoli, Pearson, 4th edition, 2008.

Other languages: 1.   Physik, Douglas C. Giancoli, Pearson Studium, Pearson Deutschland GmbH, 3rd edition, 2010 (based on 3rd edition “Physics for scientists and engineers with modern physics”, 2000).

Fisica. Con fisica moderna, Douglas C. Giancoli, terza edizione, 2017 (based on 7th edition “Physics. Principles with applications”, 2014). 




Als PDF herunterladen

Ziele für nachhaltige Entwicklung
Diese Lehrtätigkeit trägt zur Erreichung der folgenden Ziele für nachhaltige Entwicklung bei.

7 9 14 15

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