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Module MA2325: Complex Analysis I
- Credit weighting (ECTS)
- 
5 credits
- Semester/term taught
- 
Michaelmas term 2012-13
- Contact Hours
- 
11 weeks, 3 lectures including tutorials per week
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- Lecturer
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Prof. Dmitri Zaitsev
- Learning Outcomes
-   On successful completion of this module, students will be able to:
  
    -  Manipulate and calculate with complex numbers, complex functions  
      (polynomials, rational functions, exponential and trigonometric  
      functions) and multi-valued functions (argument, logarithm and square  
      root).
      
        
       
-  Identify subsets of the complex plane and their geometric and  
      topological properties (open, closed, connected, bounded, convex,  
      star-shaped etc).
      
        
       
-  Determine if a sequence of complex numbers is convergent, compute  
      the limit of a given sequence and apply the Cauchy criterion.
      
        
       
-  Define the limit of a complex function at a point and apply  
      properties of limits. Compute the limit of a complex function at a  
      point and determine whether a given complex function is continuous.
      
        
       
-  Define the derivative of a complex function, state and prove  
      properties of the derivative and compute the derivative of a given  
      complex function.
      Derive the Cauchy-Riemann equations for a complex differentiable  
      function and identify whether a function is complex differentiable at  
      a point.
      
        
       
-  Determine if an infinite series of complex numbers is convergent.
      Describe the convergence properties of a complex power series, derive  
      formulae for and compute the radius of convergence.
      
        
       
-  Identify and construct examples of paths satisfying prescribed  
      properties. Evaluate complex path integrals and state and prove  
      properties of such integrals. Define the index function for a path,  
      describe its properties and evaluate winding numbers.
      
        
       
-  State and prove versions of Cauchy's theorem and its consequences  
      including Cauchy's integral formula, the power series representation  
      for analytic functions, Liouville's theorem and the Fundamental  
      Theorem of Algebra.
      
        
       
-  Find Taylor and Laurent series for a complex function, compute  
      residues and apply the residue theorem to evaluate integrals.
 
- Module Content
-   Aims to introduce complex variable theory and reach the residue theorem, applications of that to integral evaluation.
See http://www.maths.tcd.ie/~zaitsev/2325-2012/2325.html 
  
 
  -  Complex numbers.
    
      
     
-  Analytic functions.
    
      
     
-  Complex integration.
    
      
     
-  Power series.
    
      
     
-  Residue theorem and applications.
    
      
     
 
  
 Recommended Reading:
  -  Complex variables and applications, J.W. Brown, R.V. Churchill. McGraw-Hill, 2003.
    
      
     
-  Complex analysis, L.V. Ahlfors. McGraw-Hill, 1979.
    
      
     
-  Complex function theory, D. Sarason. Oxford University Press, 2007.
    
      
     
-  Complex analysis, T.W. Gamelin. Springer, 2001.
    
      
     
-  Functions of one complex variable, J.B. Conway. Springer-Verlag, 1984.
 
- Module Prerequisite
-  
- Assessment Detail
- 
This module will be examined in a 2  hour examination in Trinity term.