Page 162 - Handbook Bachelor Degree of Science Academic Session 20202021
P. 162

Faculty of Science Handbook, Session 2019/2020

               SIC3017  COMPOSITE MATERIALS                   •Formalism:  Classical  wave  equation.  Schrödinger,
                                                              Heisenberg  and  Dirac  representations.  Dirac  notation.
               Theory of composites                           Ladder-operator.  Fourier coefficients. Pauli  antisymmetric
               Introduction, origin of reinforcement, properties comparison   principle.   Pauli   matrices.   Hilbert   space.   Unitary
               between reinforced and unreinforced materials.   transformations.   Virial   theorem.   Hellmann-Feynman
                                                              theorem. Electrostatic theorem.
               Mechanical properties of composites            •Angular  momentum  theory:  Coupling  of  two  and  more
               Cox shear-lag analysis, prediction of longitudinal Young’s   angular momentum vectors. Angular momentum operators.
               modulus  of  aligned  fibre  composites,  computation  of   Eigenvalues  and  angular  momentum  wave  functions.
               Young’s  modulus  of  composite  with  complex  fibre,  high   Vector  model.  Clebsch-Gordan  coefficients  and  3-j
               extension  mechanical  properties,  Kelly-Tyson  model,   symbols. Wigner-Witmer rules. Generators of infinitesimal
               computation of fracture strength.              rotations. Euler angles. Direction cosine matrix elements.
                                                              Space-fixed and molecule-fixed frames. Rotation matrices.
               Formation process for composite structure      Spherical  harmonic  addition  theorem.  .  Clebsch-Gordan
               Injection  moulding,  extrusion,  compression  moulding,   series  and  its  inverse.  Integral  over  products  of  rotation
               pultrusion,  etc.  Machine  structure,  operating  principle,   matrices. 6-j and 9-j symbols. Rotational energy levels of a
               products, etc.                                 free  radical.  Energy  levels  of  atoms  with  two  valence
                                                              electrons. Angular distribution of rigid rotor.
               Assessment Methods:                            •Ab  initio  and  density-functional  theories:  Restricted  and
               Continuous assessment:    40%                  unrestricted  Hartree-Fock.  Moller-Plesset  perturbation
               Final examination:      60%                    theory. Coupled-cluster method. Density-functional theory.
                                                              Hohenberg-Kohn  theorem.  Kohn-Sham  method.  Local-
               Medium of instruction:                         density  approximation.  Functionals.  Composite  methods.
               English                                        Relativistic  effects.  Electronic  structure  calculations  and
                                                              molecular properties (intrinsic, electric, magnetic etc.).
               References:                                    •Basic  special  relativity:    Inertial  frames  and  Newtonian
               1. L.  E.  Nielsen,  Mechanical  Properties  of  Polymers  and   mechanics.   Relativistic   coordinate   transformations.
                 Composites, Marcel Dekker, New York, 1993.   Transformation  of  lengths  and  relativistic  invariants.
               2. D. Hull, An Introduction to Composite Materials, Cambridge   Transformation  of  velocities.  Transformation  of  mass.
                 University Press, Cambridge, 1981.           Relativistic  energy.  Relativistic  momentum.  Relativistic
               3. B. Harris, Engineering Composite Materials, The Institute of   electromagnetic interactions. Maxwell equations. Potentials
                 Metals, London, 1986.                        and gauge transformations. Relativistic potential.
                                            rd
               4. R. J. Crawford, Plastics Engineering, 3  ed., Butterworth-  •Relativistic  quantum  theory:  Klein-Gordon  equation.
                 Heinemann, 1998.                             Charge   conjugation.   Energy-momentum   tensor.
                                                              Quantization of the nonrelativistic Hamiltonian. Spin in the
                                                              nonrelativistic   Hamiltonian.   Time-independent   Dirac
               SIC3018  SPECIAL TOPICS IN CHEMISTRY           equation.  Covariance.  Dirac  wave  function.  Four-current
                                                              density.  Nonrelativistic  limit.  Negative-energy  states  and
               Introduction  to  recent  research  areas,  literature  survey,   quantum   electrodynamics.   Second   quantization.
               synthesis  of  various  types  of  donor  ligands,  synthesis  of   Relativistic  second-quantized  Hamiltonians.  Definition  of
               metal  complexes,  introduction  to  macromolecules,   vacuum.  Electron–electron  interaction,  Lamb  shift.
               introduction to co-crystals, crystal engineering   Separation  of  variables  in  Dirac  equation.  Angular  wave
                                                              functions.  Solutions  of  radial  Dirac  equation.  Nuclear
               Chemical  characterization  techniques:  physical  and   models.  Approximations  to  Dirac  equation.  Pauli
               chemical methods.                              Hamiltonian.  Breit–Pauli  Hamiltonian.  Direct  perturbation
               Elemental composition by CHNS elemental analysis   theory.  Electronic  structure  calculations  and  molecular
               Elemental composition by AAS and UV-Vis        properties (intrinsic, electric, magnetic etc.).
               Characterization by FT-IR spectroscopy
               Characterization by FT-NMR spectrometry        (Choose  either  Quantum  scattering  theory  or  Photon
               Characterization by Thermal analysis           induced molecular processes)
               Characterization by magnetic susceptibility measurement   •Quantum  scattering  theory:  Time-dependent  scattering
               Characterization by X-ray diffraction          theory.  Moller  operator.  Scattering  operator.  Time-
                                                              independent scattering theory. Green’s function. Lippmann-
               Assessment Methods:                            Schwinger  equation.  S  matrix.  Distorted  wave.  Elastic
               Continuous assessment:    30%                  scattering.  Radial  Schrödinger  equation.  Free  radial
               Final examination:      70%                    functions. Radial Green’s function. Scattering phase shift.
                                                              Scattering  cross  section.  Inelastic  scattering.  Coupled
               Medium of instruction:                         channel equations. Multichannel Green’s function. S, T and
               English                                        K  matrices.  R  matrix  method.  Reactive  scattering.
                                                              Partitioning  of  Hamiltonian.  Scattering  matrix  and  cross
               References                                     section. Distorted-wave Born approximation. Reactive flux
               Publication in journals                        and  total  reaction  probability.  Atom-diatom  reactive
               1. Polyhedron                                  scattering. Triatomic and tetraatomic reactions.
               2. J. Organomet. Chem.                         •Photon  induced  molecular  processes:  Time  dependent
               3. Organometallics                             perturbation theory. Rotating-wave approximation. Einstein
               4. Inoganica Chimica Acta                      A  and  B  coefficients.  Optical  absorption  cross-section.
                                                              Bloch  vector  and Bloch  sphere. Optical  Bloch  equations.
               SIC3019  ADVANCED QUANTUM CHEMISTRY            a.c. Stark effect. Semiclassical theory. Rabi formula. Vector
                                                              potentials.  Quantized  radiation  field.  One  photon
               The aims of this course are to provide an introduction to the   processes.  Two  photon  processes.  Photodissociation  of
               advanced  theory  in  quantum  mechanics  and  to  prepare   molecules.   Half   collision   dynamics.   Vibrational
               students for more advanced courses in graduate study in   predissociation of molecules. Time-dependent golden rule.
               the  field  of  theoretical  chemistry  or  chemical  physics.   Flux method for photofragmentation.
               Selected topics include:


                                                          161
   157   158   159   160   161   162   163   164   165   166   167