Page 92 - Academic Handbook FKM 2017-2018
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b.   Finney,  R.L.,  Weir,  M.D.,  and  Giordano,  F.R.,   a.   Munson,  B.R.,  Young,  D.F.  and  Okiishi,  T.H.,
                        2008, Thomas’s Calculus, 11th Ed., Pearson.       2006, Fundamentals of Fluid Mechanics, 5  Ed.,
                                                                                                          th
                    c.   Anton, H., 2009, Calculus Multivariable, 9th Ed.,   John Wiley & Sons, Inc, Asia.
                        John Wiley.                                   b.   Som, S.K., and Biswas, G., 2004, Introduction
                    d.   Smith,  R.T.,  and  Minton,  R.B.,  2007,        to Fluid Mechanics and Fluid Machines, 2  Ed.,
                                                                                                          nd
                        Multivariable Calculus, McGraw-Hill.              Tata McGraw-Hill, New Delhi.
                    e.   Steward,  J.,  2007,  Calculus  –  Concepts  And   c.   Douglas,  J.F.,  Gasiorek  J.M.  and  Swaffield,
                        Contexts, Brooks/Cole, 2nd Ed.                    J.A.,  2001,  Fluid  Mechanics,  4   Ed.,  Prentice
                                                                                                   th
                    f.   Stroud,  K.A.,  2007,  Engineering  Mathematics,   Hall, Spain.
                        6th Ed, Palgrave Macmillan                    d.   Cengel,  Y.A.  and  Cimbala,  J.M.,  2006,  Fluid
                                                                          Mechanics:  Fundamentals  and  Applications,
                                                                          International Edition, McGraw-Hill, Singapore.
                    DMCF 2213 FLUID MECHANICS I                       e.   Streeter,  V.L.  and  Wylie,  E.B.,  1983,  Fluid
                    LEARNING OUTCOMES                                     Mechanics,  First  SI  Metric  Ed.,  McGraw-Hill,
                    At the end of the course, students should be able to:   Singapore.
                    LO1  Use fluid and its properties equation in the
                          context of fluid mechanics application.
                    LO2  Apply  fluid  mechanics  equations  in  solving   DMCS 3333 SOLIDS MECHANICS II
                          fluid statics and dynamics problems.        LEARNING OUTCOMES
                    LO3  Respond  to  the  procedure  that  has  been   At the end of this course, students should be able to:
                          given in laboratory as a team.              LO1  Use  transformation  of  stress  and  strain  in
                    LO4  Interpret the experimental data accordingly       determining  the  principal  stresses,  principal
                          and to report the results in the appropriate     strains  and  planes  using  formulation
                          scientific manner.                               (analytical) and Mohr’s circle methods.
                    SYNOPSIS                                          LO2  Analyze  stresses  in  thin  and  thick  cylinder
                    This course introduces the basic properties of fluids.   pressure  vessels  and  stresses  in  shrink-fit
                    It covers the definition to the pressure, heads, the   problems.
                    derivation  of  hydrostatic  equation  and  its   LO3  Apply  yield  criteria  for  ductile  and  brittle
                    application  in  pressure  measurement,  static  forces   materials  to  avoid  failure  of  the  structure
                    analysis  on  immersed  surface  and  also  buoyancy   under  plane  stress  condition  caused  by
                    analysis. The course also introduces fluid dynamics,   yielding.
                    fluid flow analysis, derivation of flow equations, the   LO4  Determine  strain  energy  due  to  axial,
                    application  of  the  energy  equation,  Bernouli      bending and torsional loadings and define
                    equation  in  the  calculation  of  flow  velocity,    structures’  deformations  (displacements  and
                    discharge, heat lost in piping systems, dimensional    angle of twist) under such loadings.
                    analysis and also its application.                LO5  Evaluate  instability,  strength  and  buckling
                    REFERENCES                                             behaviour  of  struts  or  slender  structures
                                                                           courseed  to  compressive  axial  load  with
                                                                           various end-conditions.


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