Page 224 - Handbook Bachelor Degree of Science Academic Session 20202021
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Faculty of Science Handbook, Academic Session 2020/2021


                                                                References:
               Soft-skills:                                     1.  Thermal  Conductivity:  Theory,  Properties,  and  Applications
               CS2, CT3, LL2                                       (Physics of Solids and Liquids) by Terry M. Tritt (Nov 29, 2010)
                                                                2.  Introduction to the Thermodynamics of Materials, Fifth Edition by
               References:                                         David R. Gaskell (Mar 13, 2008)
               1.  M. Fox, Optical Properties of Solids (Oxford Series in Condensed   3.  Thermodynamics in Materials Science, Second Edition by Robert
                  Matter Physics (Oxford University Press, 2002)   T. DeHoff (Mar 13, 2006)
               2.  B.E.A Saleh, M.C Teich, Fundamentals of Photonics (Wiley Series
                  in Pure and Applied Optics, (Wiley-Blackwell,2007)   SMEB2206  POLYMER PHYSICS
               3.  R.J.D Tilley, Colour and The Optical Properties of Materials: An
                  Exploration  of  the  Relationship  Between  Light,  the  Optical   Introduction to polymer. Morphology, structure and physical properties
                  Properties of Materials and Colour  (Wiley, 2011)   of  polymer.  Viscosity,  rubber  elasticity,  transition  and  relaxation.
                                                                Superposition  of  time-temperature,  WLF  equation.  Special  applied
                                                                polymer, conducting polymer. Technological importance polymers.
               SMEB2204  MATERIALS CHARACTERISATION
                                                                Assessment Method:
               Structural, morphological, thermal, electrical, magnetic and mechanical,   Final Examination:    60%
               chemical characterisation of material:           Continuous Assessment:    40%
               Light  microscopy,  x-ray  diffraction,  scanning  probe  microscopy  ,
               scanning electron microscopy, transmission electron microscopy, UV-  Medium of Instruction:
               VIS-NIR,  auger  electron  spectroscopy,  fast  fourier  transform  infrared   English
               spectroscopy,      secondary  ion  mass  spectroscopy,  four-point  probe,
               thermogavimetry, differential scanning calorimetry , thermogravimetry,   Soft-skills:
               electrical impedance spectroscopy, vibrating sample magnetometer.    CS2, CT3, LL2, EM1
               Basic operation, sample preparation and interpretation of data.  Basic
               failure analysis of materials using different characterization equipment.     References:
                                                                1.  J.L. Fried, Polymer Science and Technology, Prentice Hall, 1995.
               Assessment Method:                               2.  N.G.  McCrum,  C.P.  Buckley  and  C.B.  Bucknall,  Principles  of
               Final Examination:     60%                          Polymer Engineering, Oxford University Press, 1988.
               Continuous Assessment:    40%                    3.  P.Painter and M.M Coleman, Fundamentals of Polymer Science
                                                                   (AN Introductory Text), Technomic
               Medium of Instruction:                           4.  D.J. Bower, An Introduction to Polymer Physics, Cambridge Univ.
               English                                             Press 2002.

               Soft-skills:                                     SMEB2207 COMPUTER PROGRAMMING
               CS3, CT3, LL2
                                                                Students  are  equipped  with  the  fundamentals  of  how  the  computer
               References:                                      works. The important components in a computer will be explained in
               1.  Materials  Characterization:  Introduction  to  Microscopic  and   detail. Students are taught to perform computer programming using C
                  Spectroscopic Methods by Y. Leng (Jun 2, 2008)    language. The basic statements are discussed and the methodology is
               2.  Materials  Characterization  Techniques  [Hardcover]  Sam  Zhang   shown. C++ will also be briefly introduced.
                  (Author), Lin Li (Author), Ashok Kumar (Author)
               3.  Surface Analysis: The Principal Techniques [Paperback] John C.   Assessment Method:
                  Vickerman (Editor), Ian Gilmore (Editor)      Final Examination:     60%
                                                                Continuous Assessment:    40%

                SMEB2205  THERMAL PROPERTIES OF MATERIALS       Medium of Instruction:
                                                                English
               Basic concept: thermal conductivity. Phonons, molar heat capacity
               Heat, Work, and Energy, Heat Capacity, Molar Heat Capacity, Specific   Soft-skills:
               Heat Capacity                                    CS2, CT3, LL2
               Atomistic Theory of Heat Capacity; Einstein Model; Debye Model;
               Electronic Contribution to the Heat Capacity; thermal effective mass   References:
               Classical and quantum approach of thermal conduction,   1.  Richard  Johnsonbaugh  and  Martin  Kalin,  C  for  Scientists  and
               Thermal  conduction  in  dielectric  materials;  thermal  expansion,   Engineers, 1  edition (Prentice Hall,Oct 12, 1996)
                                                                          st
               thermal stress                                   2.  Robert  L.  Wood,  C  Programming  for  Scientists  and  Engineers
               Conduction heat transfer: Fourier's law of conduction, Newton's law   (Manufacturing Engineering Series) (Butterworth-Heinemann, Jun
               of cooling; Nusselt Number; Stefan-Boltzmann's Law of Radiation;   20, 2002)
               radiative  heat transfer coefficient;            3.  David R. Brooks, C Programming: The Essentials for Engineers
               Thermal  Resistance  concept:  Conduction,  Convection  Contact   and  Scientists  (Undergraduate  Texts  in  Computer  Science),  1
                                                                                                         st
               ,Resistance Radiation Resistance                    edition (Springer,Jun 4, 1999)
               Heat dissipation technology: Heat-sink ,fin, heat spreader, heat pipe,
               heat pump, Peltier cooling plates                SMEB2271  MATERIAL SCIENCE LABORATORY I

               Assessment Method:                               Students are attached to research labs carrying out mini-projects on
               Final Examination:     60%                       experiments  in  material  science  in  characterizing  electrical,  optical,
               Continuous Assessment:    40%                    magnetic, mechanical, thermal properties of photonic materials, smart
                                                                materials  electrochemistry,  polymer  composite,  semiconductor
               Medium of Instruction:
               English                                          materials  organic  electronics  ,  devices  and  advanced  material
                                                                processing while learning to use various characterizing equipment such
               Soft-skills:                                     as scanning electron microscopy, micro-Raman spectroscopy, UV-VIS-
               CS3, CT3, LL2                                    NIR spectroscopy, Light microscopy, x-ray diffraction, scanning probe
                                                                microscopy  ,  scanning  electron  microscopy,  transmission  electron
                                                                microscopy,  auger  electron  spectroscopy,  fast  Fourier  transform


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