* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project
Download modello di descrizione delle singole attivita`formative
Static electricity wikipedia , lookup
Magnetoreception wikipedia , lookup
Electric charge wikipedia , lookup
Magnetic monopole wikipedia , lookup
Magnetochemistry wikipedia , lookup
Superconductivity wikipedia , lookup
Electroactive polymers wikipedia , lookup
Force between magnets wikipedia , lookup
Eddy current wikipedia , lookup
Magnetohydrodynamics wikipedia , lookup
Faraday paradox wikipedia , lookup
Electric current wikipedia , lookup
History of electrochemistry wikipedia , lookup
Multiferroics wikipedia , lookup
Electric machine wikipedia , lookup
Electromotive force wikipedia , lookup
History of electromagnetic theory wikipedia , lookup
Computational electromagnetics wikipedia , lookup
General Electric wikipedia , lookup
Maxwell's equations wikipedia , lookup
Lorentz force wikipedia , lookup
Mathematical descriptions of the electromagnetic field wikipedia , lookup
Electricity wikipedia , lookup
Electromagnetism wikipedia , lookup
DESCRIPTION OF THE EDUCATIONAL ACTIVITY Academic year: 2002-2003 Course title: Physics II Course number: 16649 Type of educational activity: basic subject Subject Group: FIS 01 Year of study: 1st year “Laurea” Semester: 2nd Total number of credits: 6 Global workload (n. of hours) : 150 Number of hours allocated to: lectures, tutorials, laboratory, individual study: 40, 20, 0, 90 Name of lecturer: Antonio Di Bartolomeo Objectives of the course: Ability to solve simple problems and to mathematically describe physical phenomena arising in the electromagnetic field. Prerequisites: Physics I Course contents: Electricity: electric charge; Coulomb’s law, static electric field; electric dipole; Gauss law; conductors; electric potential and potential energy; capacitors; energy density of the electric field; D field. Electric current: electromotive force; Ohm, Joule, Kirchhoff’s laws. Magnetism: magnets and magnetic dipoles; Lorenz force; Ampère’s equivalence principle; 1st and 2nd Laplace formula; Ampère’s Law; H field. Faraday-Neumann-Lenz induction law: inductance and mutual inductance. Energy density of the magnetic field. Maxwell equations in integral and differential form. Waves. Recommended reading: Mazzoldi, Nigro, Voci - Elementi di Fisica, Elettromagnetismo - EdiSES Resnick, Halliday, Krane - Fondamenti di Fisica - Casa Ed. Ambrosiana Teaching methods: lectures and practicing classes Assessment methods: written and oral tests Language of instruction: Italian Additional information: further information can be requested via e-mail: [email protected] www.unisa.it