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    <subfield code="a">Problems related to boundary layer flow and heat transfer is important due to its various  practical  applications  in  engineering  and  industrial  area.  Cooling  systems,  nuclear  reactor, electronic, hydrodynamics process, paper production and  the boundary layer in  liquid film condensation process are some of the example of various applications related  to  boundary  layer  flow  and  heat  transfer.  Present  thesis  solved  numerically  three  problems of boundary layer flow on stagnation point  over a stretching by considering  the  Newtonian  fluid  (viscous  fluid)  and  non-Newtonian  fluid  (Williamson  fluid).  Besides,  this  thesis  concern  of  the  influence  of  slip  flow,  thermal  radiation,  magnetohydrodynamic (MHD) and viscous dissipation effects  associated with constant  wall  temperature  as  boundary  conditions.  All  gorvening  equations  in  the  form  partial  differential equations  are transformed into  ordinary differential equations by employing  the  suitable  similarity  transformation.  The  transformed  ordinary  differential  equations  obtained are solved numerically using a Shooting method in Maple software. Numerical  solutions  are obtained for the local Nusselt number and skin friction coefficient as well  as  the  temperature  and  velocity  profiles.  The  features  of  the  flow  and  heat  transfer  characteristics  for  various  values  of  eight  pertinent  parameters  which  are  the  Prandtl  number,  the  stretching  parameter,  the  Eckert  number,  the  velocity  slip  parameter,  the  thermal  slip  parameter,  the  radiation  parameter,  the  magnetic  parameter  and  the  nonNewtonian  Williamson  fluid  parameter are analyzed and discussed.  The comparison is  also done by verifying through existing research so that the results obtained are a  good  agreement  and  reliable.  As  conclusion,  the  increases  of  Prandtl  number,  stretching  parameter, dimensionless thermal and velocity slip parameter result to the decreasing in  the wall temperature and also thermal boundary layer thickness. Meanwhile, increasing  the  non-Newtonian  Williamson  fluid  parameter  and  thermal  radiation  parameter,  the  thermal boundary layer also increases.</subfield>
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