* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project
Download HUJI Syllabus
Hall effect wikipedia , lookup
Electric machine wikipedia , lookup
Static electricity wikipedia , lookup
Electromotive force wikipedia , lookup
Superconductivity wikipedia , lookup
Magnetic monopole wikipedia , lookup
Magnetochemistry wikipedia , lookup
History of electromagnetic theory wikipedia , lookup
Force between magnets wikipedia , lookup
Electricity wikipedia , lookup
Multiferroics wikipedia , lookup
Eddy current wikipedia , lookup
Magnetohydrodynamics wikipedia , lookup
Faraday paradox wikipedia , lookup
Electrostatics wikipedia , lookup
Lorentz force wikipedia , lookup
Scanning SQUID microscope wikipedia , lookup
History of electrochemistry wikipedia , lookup
History of geomagnetism wikipedia , lookup
Maxwell's equations wikipedia , lookup
Mathematical descriptions of the electromagnetic field wikipedia , lookup
Syllabus ELECTRICITY AND MAGNETISM - 77102 Last update 29-07-2015 HU Credits: 6 Degree/Cycle: 1st degree (Bachelor) Responsible Department: physics Academic year: 0 Semester: 2nd Semester Teaching Languages: Hebrew Campus: E. Safra Course/Module Coordinator: Yoram Burak Coordinator Email: [email protected] Coordinator Office Hours: By appointment Teaching Staff: Ms. Noga Weiss Mr. Nimrod Shaham page 1 / 3 Mr. Eli Engelberg Prof Yoram Burak Dr. Eilon Sherman Course/Module description: See course description. Course/Module aims: See course description. Learning outcomes - On successful completion of this module, students should be able to: See course description. Attendance requirements(%): 0 Teaching arrangement and method of instruction: Lesson and Recitation Course/Module Content: 0. Introduction - The forces of nature, basic principles of electricity and magnetism. Electro-Statics: 1. Coulomb's Law, units and dimensions, charge distribution, superposition. 2. Electric field and flux - Gauss' Law (integral and differential form) 3. Gauss' Law (integral form) and divergence 4. Potential and Energy - Electrostatics, the rotor (curl), and conservative forces. 5. Poisson and Laplace equations - uniqueness and boundary conditions. 6. Conductivity - the image method. 7. Capacitance - placed in series or parallel, energy. 8. Electrostatic dipoles, the multipole expansion, forces, moment. 9. Dialectric materials and macroscopic polarization - the connection to the microscopic dipole, susceptibility, fields in polarized matter, the displacement field. Currents and Magneto-Statics: 10. Current - current density and continuity, Darode model and resistance, Ohm's law, power, different configurations of resistors, Kirchhoff's laws. 11. Lawrence's force, the force between two wires, a charge in a a uniform magnetic field, the Hall effect. page 2 / 3 12. Magnetism as a relativistic effect. 13. Bio-Savart's law, Ampere's law, vector potential, a current loop and the magnetic dipole. Electrodynamics: 14. Inductance (self and mutual), RLC circuits, differential equations, transient response, impedance, the solution after a long time. 15. Displacement current. 16. Magnetic Materials. 17. A summary of Maxwell's equations - the differential and integral forms. 18. Electromagnetic waves - plane waves and stationary waves, energy flux and vector Poynting. Required Reading: None Additional Reading Material: E. M. Purcell, Electricity and Magnetism, Berkeley physics Vol. 2, 2nd ed. (there is also a good translation to Hebrew by the Open University) Course/Module evaluation: End of year written/oral examination 70 % Presentation 0 % Participation in Tutorials 0 % Project work 0 % Assignments 10 % Reports 0 % Research project 0 % Quizzes 20 % Other 0 % Additional information: The quiz cannot bring down the final grade. There are bonus assignments such as building an engine and a numeric problemset. page 3 / 3 Powered by TCPDF (www.tcpdf.org)