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Faculty of Science Handbook, Session 2019/2020


               5.  J. Morrison, Modern Physics: for Scientists and Engineers, 2  ed.   LEVEL 2
                                                      nd
                  (Academic Press, 2015)
               6.  P Amore, JD Walecka, Introduction to Modern Physics: Solutions
                  to Problems (World Scientific, 2013)          SIF2001 QUANTUM MECHANICS I (3 CREDITS)

               SIF1005 ELECTRONICS I (2 CREDITS)                Basic  principles:  wave  packets,  eigen  functions,  superposition
                                                                principles,  quantum  mechanical  postulates  and  probability  density,
               Circuit Theory: Kirchhoff’s law, Thevenin’s theorem, Norton’s theorem,   uncertainty in measurements, Heisenberg uncertainty principles, space
               Ohm’s law, circuit analysis technique, impedance matching.   representation  and  momentum  representation,  measurement  effect,
               Semiconductor  Diodes:  Properties  of  semiconductor,  pn  junction,   commutators  and  constant  of  motion,  equation  of  flux  continuity,
               forward and reverse bias conditions, basic energy band diagrams, the   probability, Ehrenfest theorem.
               current-voltage  characteristics  and  simple  diode  circuits;  the  use  of   Time independent Schroedinger equation: free particle, step potential,
               diodes in power supply circuits: half-wave, full-wave, bridge rectifiers;   square well potential and barrier potential, Harmonic oscillator.
               transformer,  capacitor-input  and  choke-input  filters,  special  diodes–  Hydrogen atom: quantum mechanics in 3-D, solution of Schroedinger
               Zener diode, voltage regulators.                 equation, quantum numbers, eigen values and degenerates.
               Bipolar junction Transistor (BJT): Characteristics of transistor, simple   Angular  momentum:  angular  momentum  operators,  orbital  magnetic
               transistor circuit, current and voltage gain, load line concept, biasing   moment, spin and total angular momentum.
               requirements, D.C analysis of the circuits and A.C analysis of the BJT
               circuit.                                         Assessment Method:
                                                                 Final Examination:     60%
               Assessment Method:                                Continuous Assessment:    40%
                Final Examination:     60%
                Continuous Assessment:    40%                   Medium of Instruction:
                                                                English
               Medium of Instruction:
               English                                          Soft-skills:
                                                                CS3, CTPS3, LL2
               Soft-skills:
               CS2, CTPS2, CTPS3,LL1                            References:
                                                                1.  Franz Mandl, Quantum Mechanics (John Wiley & Sons, 2013)
               References:                                      2.  Albert Messiah, Quantum Mechanics (Dover Pubns, 2011)
               1.  R.  Boylestad  &  L.  Nashelsky,  Electronic  Devices  and  Circuit   3.  Y.B. Band & Y vishal, Quantum Mechanics with Applications to
                  Theory, 11th ed. (Prentice Hall, 2012)           Nanotechnology & Information Science (Elsevier Ltd, 2013)
               2.  T.L.  Floyd  &  D.  Buchla,  Electronics  Fundamentals:  Circuits,   4.  D.  Griffiths,  Introduction  to  Quantum  Mechanics  (Prentice  Hall,
                  Devices, and Applications (Prentice Hall, 2013)   2004)
               3.  A.P. Malvino & D. Bates, Electronic Principles with simulation CD   5.  W. Greiner, Quantum Mechanics. An Introduction (Springer, 2008)
                  (McGraw-Hill Education, 2015)
               4.  A.J.  Diefenderfer  &  B.E.  Holton,  Principles  of  Electronic   SIF2002 ELECTROMAGNETISM I (3 CREDITS)
                  Instrumentation, 3rd Edition (Saunders Coll. Publ., 1994)
                                                                charge,  Coulomb’s  law,  continuous  charge  distribution,  electric  field,
               SIF1006 PRACTICAL PHYSICS I (2 CREDITS)          Gauss’s law, electric potential energy and potential, work done to move
                                                                charges, energy of point charge and continuous charge distributions,
               Experimental data analysis: precision and accuracy, significant figures,   conductors, induced charge.
               systematic  error,  statistical  error,  propagation  of  uncertainties  of   Dielectrics,  induced  dipoles,  polarization,  bound  charge,  field  in
               measurement, uncertainty analysis, statistical analysis   dielectrics;  electric  displacement,  linear  dielectrics,  susceptibility,
               Physics experiments on the topics of mechanics   permittivity  and  dielectric  constant,  forces  and  torques  using  the
               Physics experiments on the topics of heat        electrostatic energy,  capacitors and capacitance, RC circuit and RCL
               Physics experiments on the topics of electricity   circuit.
               Physics experiments on the topics of magnetism   Lorentz force law on charges and current in magnetic field and electric
               Physics experiments on the topics of optics and modern physics   field, Biot-Savart law, steady current, magnetic field of steady current,
                                                                Ampere’s law and displacement current.
               Assessment Method:                               Magnetic dipoles, magnetic dipole moments, Diamagnet, paramagnet
                Final Examination:     60%                      and  ferromagnet,  magnetization,  bound  current,  Ampére  law  in
                Continuous Assessment:    40%                   magnetized  materials,  magnetic  susceptibility  and  permeability,
                                                                ferromagnetism, antiferromagnetism.
               Medium of Instruction:                           Electromotive force (emf), motional emf; Faraday’s law and Lenz’s law,
               English                                          electromagnetic induction, mutual inductance, self-inductance, energy in
                                                                magnetic fields, displaced current, Maxwell’s equations.
               Soft-skills:
               CS2, CTPS2, LL1, TS1, LS1                        Assessment Method:
                                                                 Final Examination:     60%
               References:                                       Continuous Assessment:    40%
               1.  Douglas  C.  Montgomery,  Introduction  to  Linear  Regression
                  Analysis, (Wiley, 2012)                       Medium of Instruction:
               2.  S. V. Gupta , Measurement Uncertainties: Physical Parameters and   English
                  Calibration of Instruments Hardcover , (Springer, 2012)
               3.  D. V. Skobel tsyn, Experimental Physics: Methods and Apparatus   Soft-skills:
                  (The Lebedev Physics Institute Series) (Springer, 2012)   CS2, CTPS2,CTPS3, LL2
               4.  J.R. Taylor, An Introduction to Error Analysis (University Science,
                  1997)                                         References:
               5.  N.C.  Barford,  Experimental  Measurements:  Precision,  Error  and   1.  S.  Grant  and  W. R.  Phillips,  Electromagnetism,  2nd  ed.  (Wiley,
                  Truth (Wiley, 1991).                             1990)
                                                                2.    E.  M.  Purcell,  D.  J.  Morin,  Electricity  and  Magnetism,  3   ed.
                                                                                                      rd
                                                                   (Cambridge University Press, 2013)
                                                                3.  J.  Reitz,  F.  Milford,  R.  Christy,  Foundations  of  Electromagnetic
                                                                   theory, 4th ed. (Pearson, 2008)
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