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Module Title LI Real & Complex Analysis
Department Mathematics
Module Code 06 25666
Module Lead Dr Chris Good
Level Intermediate Level
Credits 20
Semester Full Term
Restrictions None
Contact Hours Lecture-0 hours
Seminar-0 hours
Tutorial-0 hours
Project supervision-0 hours
Demonstration-0 hours
Practical Classes and workshops-0 hours
Supervised time in studio/workshop-0 hours
Fieldwork-0 hours
External Visits-0 hours
Work based learning-0 hours
Guided independent study-0 hours
Placement-0 hours
Year Abroad-0 hours
Description This module starts by developing the theory of continuous and differentiable functions of one real variable introduced in Real Analysis and the Calculus. It places the familiar techniques of differentiation, such as the Chain Rule, on a firm theoretical foundation and proves some of the key results of real analysis such as the Intermediate Value Theorem, the Mean Value Theorem and Taylor’s Theorem. The basic theory of integration on a closed bounded interval is also developed.

Differentiable functions of a single complex variable are then considered. This study reveals a deep and fundamental theory whose development, by some of the giants of mathematics, such as Euler, Gauss, Riemann and Cauchy, began at the end of the 18th century. This surprisingly elegant branch of mathematics, known as Complex Analysis, has many dramatic applications across mathematics, engineering and the physical sciences. It quickly provides us with powerful new techniques of integration and has far-reaching consequences in theoretical physics, electronics, fluid mechanics and thermodynamics.

Underlying topological properties of Euclidean space common to both real and complex analysis are mentioned throughout the module.
Learning Outcomes By the end of the module students should be able to:
  • understand the concepts and properties of limits, continuity and differentiability for real functions
  • evaluate limits and derivatives for examples involving well-known functions
  • prove and apply theorems concerning continuity and differentiability, such as the Intermediate Value Theorem, the Mean Value Theorem and Taylor’s Theorem
  • define the integral of a real valued function on a closed bounded integral and apply this definition in simple situations
  • state and prove the fundamental theorem of calculus
  • evaluate Taylor series and Laurent series of complex-valued functions
  • identify the poles and calculate the residues of complex valued functions
  • state Cauchy’s Integral theorem and the residue theorem and use them to evaluate real integrals
  • define and give examples of certain topological properties of Euclidean space, such as open, closed and compact sets
Assessment 25666-01 : Raw Module Mark : Coursework (0%)
25666-03 : Final Module Mark : Coursework (100%)
Assessment Methods & Exceptions Assessment: 3 hour examination (80%), work done during semester (20%)

Reassessment: best of 3 hour resit examination (100%) or 3 hour resit examination (80%) and work done during the semester (20%)
Reading List