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    | Module Availability | 
    
    
    | Semester 1 | 
    
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    | Assessment Pattern | 
    
    
    Assessment Pattern
  
 
    
        
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             Unit(s) of Assessment
              
             
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             Weighting Towards Module Mark (%)
              
             
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             Aerospace CFD assignment (Learning outcomes assessed - c,d,e)
              
             
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             60
              
             
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             Unseen examination ( Learning outcomes assessed – a,b)
              
             
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             40
              
             
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             Qualifying Condition(s)  
              
             
            An overall mark of 50% is required to pass the module. 
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    | Module Overview | 
    
    
    Module Overview 
    
        
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             An introduction to the use of computational fluid dynamics in aerospace engineering 
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    | Prerequisites/Co-requisites | 
    
    
    Pre-requisite/Co-requisites
  
 
    
        
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             Normal entry requirements for a level M degree programme and in particular a basic knowledge of the principles of fluid dynamics and numerical methods. 
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    | Module Aims | 
    
    
    Module Aims
  
 
    
        
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             To provide students with:
              
             
            ·           an introduction to the computational solution of engineering flows  
            ·           an understanding of basic discretisation techniques and the importance of truncation error in interpreting CFD results 
            ·           experience in specifying and solving an example aerospace application flow and interpreting the results in order to answer engineering questions 
            
               
            
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    | Learning Outcomes | 
    
    
    Learning Outcomes
  
 
    
        
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             Upon successful completion of the module, you will be able to:
              
             
            a)      describe the underlying equations of fluid flow and how these equations are solved by a commercial CFD package
              
             
            b)      derive basic discretisations and their associated truncation error and describe how this affects the accuracy of results
              
             
            c)      specify simple engineering flows
              
             
            d)      use a computer package to build a suitable mesh and solve the flows
              
             
            e)      interpret the output from the package to obtain answers to engineering questions
              
             
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    | Module Content | 
    
    
    Module Content
  
 
    
        
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             ·         Introduction to CFD and to the relevant ANSYS packages
              
             
            ·         Conservation laws and Navier-Stokes equations
              
             
            ·         Methods of mesh generation
              
             
            ·         Boundary condition specification
              
             
            ·         Basic concepts of numerical methods used in CFD
              
             
            ·         Truncation error and discretisation order
              
             
            ·         Engineering interpretation of output
              
             
            ·         Turbulence modelling
              
             
            ·        Tutorials and coursework: CFD analysis of a typical aerospace engineering problem from definition to output
              
             
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    | Methods of Teaching/Learning | 
    
    
    Methods of Teaching/Learning
  
 
    
        
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             44 hrs combined lectures and tutorials, 80 hrs assignment work, 2 hrs examination and 24 hrs independent learning. 
            Total student learning time 150 hours. 
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    | Selected Texts/Journals | 
    
    
    Selected Texts/Journals
  
 
    
        
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            Recommended Reading
              
             
            Wilcox, D. Turbulence Modelling for CFD, 2nd ed., DCW Industries, 1998 (ISBN 096305151)
              
             
            Anderson, J.D. Computational Fluid Dynamics: the Basics with Applications, McGraw-Hill, 1995 (ISBN 0071132104) 
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    | Last Updated | 
    
    
    | 30/09/10 | 
    
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