Page 51 - Academic Handbook FKM 2017-2018
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YEAR 2 COURSES - PROGRAMME CORE

                    BMCG 2113 SOLID MECHANICS I                       LO2  Apply  the  thermodynamic  principles  using
                    LEARNING OUTCOMES                                      property tables.
                    At the end of the course, students should be able to:   LO3  Solve the thermodynamics processes relating
                    LO1  Describe and apply the basic concepts and         to ideal gas and pure substances.
                          fundamental principles of solid mechanics.    SYNOPSIS
                    LO2  Analyse  and  solve  the  state  of  stress  and   The aim of this course is to provide students a basic
                          strain  in  elastic  structural  members  under   understanding of the thermodynamics fundamental
                          various loading conditions.                 laws and the ability to implement them in solving a
                    LO3  Analyze and determine the principle stresses   range of simple engineering problems. The course
                          for  plane  stress  problem  due  to  combine   covers the following topics:
                          loading.                                    •  Introduction to thermodynamics: relevance in the
                    SYNOPSIS                                            context of energy and the environment.
                    Introduction to various types of structures and type   •  Basic  concepts:  microscopic  and  macroscopic
                    of supports. Concepts of stress, strain, shear force   points  of  view,  system  and  control  volume
                    and  bending  moment.  Theory  on  torsion.    Pure   approaches,  properties,  state,  equilibrium,
                    bending  on  a  structure.  Combination  of  loads.   processes and cycles.
                    Transformation of stress.                         •  Energy,  heat,  work  and  the  First  Law:  kinetic,
                    REFERENCES                                          potential  and  internal  energy;  heat  transfer;
                    a.   Beer,  F.P.,  Johnston  E.R.,  Jr,  John,  T.,  Dewolf,   displacement work and shaft work; the first law
                        Kazurek, D. F.,  2012, Mechanics of Materials,   of thermodynamics for a system.
                        6th Edition (Global Edition) , McGraw-Hill.
                    b.   Hibbeler, R.C., 2011, Mechanics of Materials,   •  Properties  of  substances:  pure  substances;  the
                        8th Edition in SI Unit, Prentice Hall.          two-property rule, state diagrams; intensive and
                    c.   Gere,  J.M.,  2004,  Mechanics  of  Materials,   extensive properties; internal energy, enthalpy
                        Thomson.                                        and  specific  heats;  ideal  and  perfect  gases;
                    d.   Vable,  M.,  2002,  Mechanics  of  Materials,   phase  change,  vapour  and  liquid  properties,
                        Oxford University Press.                        steam and water.
                    e.   Shames,  I.H.,  2000,  Introduction  to  Solid   •  The First Law for flow processes: the steady-flow
                        Mechanics, Prentice Hall.                       energy  equation  and  application  to  e.g.
                                                                        throttling  processes,  nozzles,  turbines,  pumps,
                                                                        compressors.
                    BMCG 2713 THERMODYNAMICS I                        •  Consequences  of  the  Second  law:  Clausius
                    LEARNING OUTCOMES                                   inequality, definition of entropy, state diagrams
                    At the end of this course, student should be able to:   using  entropy;  T  dS  relationships;  isentropic
                    LO1  Define  the  First  and  Second  Law  of       processes   for   perfect   gases;   isentropic
                          Thermodynamics.


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