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Identification Prerequisites Language Compulsory/Elective Required textbooks and course materials Subject ETR 357 Electromagnetic Theory – 3 credits (code, title, credits) Department Electronics, Telecommunications and Radio Engineering Program Undergraduate (undergraduate, graduate) Term Spring 2015 Instructor Shahmerdan Amirov E-mail: [email protected] Phone: (+99450) 210-16 -20 Classroom/hours 203N Thursday 15:10-18:00 Office hours Physics II (PHSC 112) English Compulsory Core textbook: Hugh D.Young, Roger A.Freedman University Physics. Pearson International Edition.P.1551 Supplementary books.2.. Douglas C.Giancoli. Physics for scientists and engineers. Pearson International Edition. 3.M.Sadigi Fundamentals of Circuit Theory 4. Amirov Sh.Sh. Lectures in Medical and Biological Physics. P.283 Course website http://www.maths.tcd.ie Course outline Electromagnetic theory covers basic principles of electronic filaments, cathode rat tubes, ionic devices, semiconductors, resistors and diodes on their base, transistors, amplifiers, operational amplifiers , oscillatory circuits, generators of sinusoidal oscillations, as well as the rectifiers. After studying this course the student should be able to: • Calculating electric fields and electric potentials • Analysis combination of capacitors. Calculating power and energy in circuits. • Applying Kirchoff’s current and voltage laws in circuits.. • Analysis of magnetically coupled circuits. Lecture Group discussion Experiential exercise Case analysis Simulation Course paper Others Methods Date/deadlines Percentage (%) Midterm Exam 30 Case studies Class Participation 10 Assignment and quizzes 20 Project Course objectives Teaching methods Evaluation Final Exam Others Total 40 100 Wee k Policy Date/Day (tentative) 1 29.01.15 2 05.02.15 Tentative Schedule Topics Electric charge. Conductors, Insulators and induced charges. Vector form of Coulomb’s law. Electric field and electric forces. The superposition of electric fields. calculations. Electric field lines The Electric field of a ring of charge. The electric field of a line of charge. Problem solving Charge and Electric Flux. Calculating Electric Flux. Gauss’s Textbook/Assignments p.709-741 p.750-773 law. Field of charged conducting sphere. Field of a line charge. Field of an infinite plane sheet of charge. Field between opposite charged parallel conducting plates. Field of uniformly charged sphere. Field of a hollow charged sphere. Problem solving Electric potential energy. Work –energy theorem. Electric potential energy in a uniform electric field and between two point charges. Electric potential energy with several point charges. Electric potential due to two point charges. Problem solving Electric potential of a charged conducting sphere, a ring charge and a line charge. Equipotential surfaces. Electric dipoles. Dipole in an external electric field. Electric potential due to dipole. Problem solving Capacitors and capacitance. Capacitors in series and parallel. Energy storage in capacitors and electric field energy.Dielectrics. Electric Flux density and Dielectric constant. The boundary conditions for electrostatic fields. Problem solving Current resistance and electromotive force. Resistivity. Electromotive force and circuits. Energy and power in electric circuits. Problem solving Direct current circuits. Resistors in series and parallel. Kirchoff’s current and voltage rules. R-C circuits. Problem solving Midterm Exam Magnetostatics. Magnetic field of a moving charge. Magnetic field of a current element. Magnetic field of a straight current carrying conductor. Magnetic field of a circular current loop. Ampere’s law. Problem solving Magnetic field lines and magnetic flux. Motion of charged particles in a magnetic Field. Magnetic force on current carrying conductor. Force and Torque on a current loop. Force between parallel conductors. Problem solving Magnetic properties of matter. Magnetizability. Types of magnets(Para-,Dia- and Ferro magnets. Magnetization vector. Problem solving 3 12.02.15 4 19.02.15 5 26.02.15 6 05.03.15 7 12.03.15 8 19.03.15 9 26.03.15 10 02.04.15 11 09.04.15 Electromagnetic induction. Faraday’s law. Lenz’s law. Motional electromotive force. Induced electric fields. Eddy currents. Displacement current. Problem solving p.993-1020 12 16.04.15 p.1030-1045 13 23.04.15 14 30.04.15 15 07.05.15 Mutual inductance.Self inductance and inductors. Inductors and magnetic field energy. The R-L circuit. The L-C circuit. Problem solving Problem solving Phasors and alternating currents. Resistance and reactance. The LR-C- series circuit. Power in alternating current circuits. Resonance in alternating current circuits. Problem solving Magnetically coupled circuits. Dot convention for coils in series. Energy in a coupled circuit. Linear transformers. Coupled impedance. Problem solving Maxwell’s equations and electromagnetic waves.Plane and sinusoidal electromagnetic waves.Energy and momentum in electromagnetic waves. Standing electromagnetic waves. Problem solving Final Exam p-780-795 p.800-815 p.815-838 p.846-872 p.881-900, p.957-984 p.916-947 p. 73-96 p.1061-1085 p.555-611 p.1092-1116