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Faculty of Science Handbook, Session 2017/2018



               transformations; eigenvalues and eigenvectors; special matrices. Partial  3.  G.C. King, Vibrations and Waves, 2 ed. (Wiley, 2013)
                                                                                        nd
               differentiation: power series in two variables; total differentials; chain  4.  I.G. Main, Vibrations and Waves in Physics, 3rd ed. (Cambridge
               rule;  implicit  differentiation;  application  of  partial  differentiation  to  Univ. Press, 1993)
               maximum  and  minimum  problems  including  constraints;  Lagrange  5. H. J. Pain, P. Rankin, Introduction to Vibrations and Waves (Wiley,
               multipliers, endpoint and boundary point problems; change of variables;  2015)
               differentiation of integrals, Leibniz rule.
               Mutliple  integrals:  integrated  integrals;  applications  of  Integrations;  SIF1003 THERMAL PHYSICS (2 CREDITS)
               single and multiple integrals; change of variables in integrals; Jacobian;  Temperature, heat conduction, diffusion; Zeroth law of thermodynamics;
               surface integrals.                               PVT system, Ideal gas, van der Waal gas; Work, heat, internal energy;
               Vector  analysis:  applications  of  vector  multiplication;  triple  products;  First, Second and Third  laws of thermodynamics; Entropy, enthalpy,
               fields; directional derivative, gradient; some other expressions involving  thermodynamic  potentials;  Phase  transition,  phase  diagrams;  Kinetic
               divergence; line integrals; Green’s Theorem in a plane; divergence and  theory for ideal gas; Maxwell-Boltzmann distribution; Real gas, black
               divergence theorem; Curl and Stoke’s Theorem.    body radiation, Stefan's law; Equipartition of energy, Partition function;
               Ordinary differential equations: separable equations; linear first-order  Introduction  to  statistical  mechanics;  Basic  statistics  for
               equations; second-order linear equations.        thermodynamics.
               Assessment Method:                               Assessment Method:
                Final Examination:     60%                       Final Examination:     60%
                Continuous Assessment:  40%                      Continuous Assessment:  40%
               Medium of Instruction:                           Medium of Instruction:
               English                                          English
               Soft-skills:                                     Soft-skills:
               CS2, CTPS1, CTPS2, LL1                           CS2, CTPS2, CTPS3, LL1

               References:                                      References:
               1.  Mary L. Boas, Mathematical Methods in the Physical Sciences, 3rd  1.  F.W. Sears & G.L. Salinger, Thermo-dynamics, Kinetic Theory &
                  ed. (John Wiley & Sons, 2006)                    Statistical Thermodynamics, 3 Ed. (Addison-Wesley, 1977)
                                                                                    rd
               2.  S. Hassani, Mathematical Methods: For Students of Physics and  2.  Mark  W.  Zemansky  &  Richard  H.  Dittman,  Heat  and
                  Related Fields, , 2rd Edition (Springer, 2009)   Thermodynamics, 7 Ed. (McGraw-Hill Int’l Ed., 1997)
                                                                              th
               3.  K. F. Riley, M. P. Hobson, Essential Mathematical Methods for the  3.  Daniel V. Schroeder, An Introduction to Thermal Physics (Pearson
                  Physical Sciences (Cambridge University Press, 2011)  Education, Limited, 2013)
               4.  G.B. Arfken, H.J. Weber, Mathematical Methods for Physicists: A  4.  S.J. Blundell & K.M. Blundell, Concepts in Thermal Physics, 2nd
                  Comprehensive Guide, 7th Edition (Elsevier Acad. Press, 2012)  ed. (Oxford, 2012)
               5.  G. N. Felder, K. M. Felder, Mathematical Methods in Engineering  5.  David  Goodstein,  Thermal  Physics:  Energy  and  Entropy
                  and Physics (John Wiley & Sons, 2015)            (Cambridge University Press, 2015)
               SIF1002 VIBRATIONS AND WAVES (2 CREDITS)         SIF1004 MODERN PHYSICS (2 CREDITS)
               Sinusoidal  vibrations:  Description  of  simple  harmonic  motion,  The  Special  theory  of  relativity:  Galileo-Newtonian  relativity,  Michelson-
               rotating-vector representation, Rotating vectors and complex numbers,  Morley  experiment,  Special  theory  of  relativity  postulates;    Lorentz
               Complex exponential in waves, Superposed vibrations in one dimension,  transformation,  Lorentz  contraction, time  dilation  Relativity  of  Mass,
               Two superposed vibrations of equal frequency.    Momentum  and  Energy,  4-vector  time-position:  4-vector,  velocity  4-
               Superposed vibrations of different frequency: beats, Many superposed  vector, momentum 4-vector and momentum–energy.
               vibrations of the same frequency, Combination of two vibrations at right  Quantum  Theory:  The  need  for  quantum  theory,  Duality  of  Particle-
               angles, Perpendicular motions with equal frequencies.  Wave,  Wave  Function,  Heisenberg  uncertainty, Time  independent
               Perpendicular motions with different frequencies: Lissajous figures, Free  Schrodinger equation, Examples in 1-D: zero free particle and infinite
               vibrations of physical systems; basic mass-string problem, Solving the  square well potential.
               harmonic  oscillator  equation  using  complex  exponentials,  Damped  Atomic matter: summary of atomic structure and the physics of periodic
               oscillations, Forced vibrations and resonance, Undamped oscillator with  table, Types of Atomic Bonding, Van de Waals bond, X-ray spectrum
               harmonic forcing, Complex exponential method for forced oscillations,  and  atomic  number,  Crystal  structures,  basic  concept  of  phonons  ,
               Forced  oscillations  with  damping,  transient  phenomena,  Power  Introduction  to  electron  conduction  in  conductor,  semiconductor  and
               absorbed by a driven oscillator.                 insulator.
               Coupled  oscillators  and  normal  modes:  Two  coupled  pendulums,  Nuclear  Physics  and  Radioactivity:  Structure  and  characteristics  of
               Superposition of normal modes, Normal frequencies - general analytical  nucleus,  binding  energy,  Nuclear  forces.  Radioactivity,  Conservation
               approach, Forced vibration and resonance for two coupled oscillators.  Laws, Q-value, natural Radioactivity Series, Nuclear reactions, nuclear
               Progressive  waves:  what  is a  wave?  Normal  modes  and  travelling  reactor and technology.
               waves,  Progressive  waves  in  one  direction,  Superposition  of  wave  Particle physics:  Elementary particles and forces.
               pulses.                                          Cosmology and astrophysics:  Introduction to Big-Bang theory, structure
               Dispersion: phase and group velocities           and evolution of stars and galaxies.
               Assessment Method:                               Assessment Method:
                Final Examination:     60%                       Final Examination:     60%
                Continuous Assessment:  40%                      Continuous Assessment:  40%

               Medium of Instruction:                           Medium of Instruction:
               English                                          English
               Soft-skills:                                     Soft-skills:
               CTPS2, LL1                                       CS2, CTPS2, LL1
               References:                                      References:
               1.  P. French, Vibrations and Waves. (CRC Press, 2003)  1.  S.T.  Thornton  &  A.  Rex,  Modern  Physics  for  Scientists  and
               2.  H.J.  Pain,  The  Physics  of  Vibrations  &  Waves,  6th  ed.  (Wiley,  Engineers, 3rd ed. (Brooks Cole, 2005)
                  Chichester, 2013)


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