Skip to main content
nounstudy
MTH213

Numerical Analysis I

  • Sciences
  • 200 level
  • 3 credit units
  • 288 pages
  • 12 units

This course introduces students to numerical methods for solving mathematical problems. It covers interpolation techniques, including Lagrange's and Newton's forms, and their applications in approximating function values. The course also explores direct and iterative methods for solving linear algebraic equations, along with eigenvalue problems. Additionally, it reviews essential calculus concepts and introduces numerical techniques for finding roots of non-linear equations, such as the bisection and Newton-Raphson methods.

About this course

Difficulty
Intermediate
Study hours
150 hours
Maths
Intermediate
Content
Theoretical, practical, problem solving
Practical work
Yes
Before you start
  • MTH112
  • MTH121
  • MTH122
How it is assessed
  • Assignments
  • Tutor Marked Assignments
  • Final Examination

One paragraph, so you can see how it reads

MTH213 · Unit 4: Approximate Root of Polynomial Equation.

The Lagrange’s form of the interpolating polynomial derived above has same draw backs compared to Newton’s form of interpolating polynomial. Before deriving Newton’s general form of interpolating polynomial. We introduce the concept of divided difference and the tabular representation of divided differences.

What you should be able to do

  1. Apply Lagrange's and Newton's interpolation techniques to approximate function values.
  2. Solve systems of linear algebraic equations using direct and iterative methods.
  3. Determine eigenvalues and eigenvectors of matrices.
  4. Apply numerical methods to find roots of non-linear equations.
  5. Analyze and estimate errors in numerical computations.
  6. Apply Taylor's theorem to approximate functions.

What it prepares you for

Careers
  • Data Analyst
  • Financial Analyst
  • Engineering Analyst
  • Research Scientist
  • Statistician
Where it is applied
  • Engineering
  • Finance
  • Data Science
  • Scientific Research
  • Computer Science
Tools
  • Scientific Calculator

Where it gets hard

The units students slow down on, and what makes each one heavy.

  • Module 2: Solution of Linear Algebraic Equations

    Unit 4: Eigen-Values and Eigen-Vectors

    The Eigen value problem requires a solid understanding of linear algebra concepts and matrix operations, making it challenging for students without a strong mathematical foundation.

  • Module 3: Solution of Non-Linear Equations in one Varibale

    Unit 3: Chord Methods for Finding Root

    The Newton – Raphson method involves calculus and requires understanding of derivatives and convergence criteria, which can be difficult for students without a strong calculus background.

A suggested way through it

Suggested

13 weeks, about 39 hours in total. Yours will differ.

  1. Week 1Module 1: Interpolation
    • Unit 1: Interpolation (Lagrange's Form) · 3 hours

      Read the unit introduction to understand the concept of interpolation.. Study Lagrange's form of interpolation and work through examples.. Practice computing approximate values at non-tabular points.. Solve inverse interpolation problems..

  2. Week 2Module 1: Interpolation
    • Unit 2: Newton's Form of the Interpolating Polynomial · 3 hours

      Study Newton's form of the interpolating polynomial.. Learn about divided differences and their tabular representation.. Practice computing interpolating polynomial errors.. Relate divided differences to derivatives of functions..

  3. Week 3Module 1: Interpolation
    • Unit 3: Interpolation at Equally Spaced Points · 3 hours

      Study forward, backward, and central differences.. Learn about Newton's Forward-Difference and Backward-Difference formulas.. Practice applying difference formulas to solve interpolation problems.. Establish relationships between different types of differences..

  4. Week 4Module 2: Solution of Linear Algebraic Equations
    • Unit 1: Direct Method · 3 hours

      Review preliminaries of linear algebraic equations.. Study Cramer's rule and its applications.. Learn about direct methods for solving linear algebraic equations.. Practice solving problems using Cramer's rule..

  5. Week 5Module 2: Solution of Linear Algebraic Equations
    • Unit 2: Inverse of A Square Matrix · 3 hours

      Study the method of adjoints for finding the inverse of a square matrix.. Learn about the Gauss-Jordan reduction method.. Practice solving problems using the Gauss-Jordan method.. Study LU decomposition method..

  6. Week 6Module 2: Solution of Linear Algebraic Equations
    • Unit 3: Iterative Methods · 3 hours

      Study the general iterative methods for solving linear equations.. Learn about the Jacobi's iteration method.. Practice solving problems using Jacobi's iteration method.. Study the Gauss-Seidel iteration method..

  7. Week 7Module 2: Solution of Linear Algebraic Equations
    • Unit 4: Eigen-Values and Eigen-Vectors · 3 hours

      Study the Eigen value problem.. Learn about the power method for finding Eigen values.. Practice solving problems using power method.. Study the inverse power method..

  8. Week 8Module 3: Solution of Non-Linear Equations in one Varibale
    • Unit 1: Review of Calculus · 3 hours

      Review the three fundamental theorems of calculus.. Study Taylor's theorem and its applications.. Learn about round-off and truncation errors.. Practice solving problems related to errors..

  9. Week 9Module 3: Solution of Non-Linear Equations in one Varibale
    • Unit 2: Iteration Methods for Locating Root · 3 hours

      Study iteration methods for locating roots.. Learn about tabulation and graphical methods.. Practice solving problems using tabulation and graphical methods.. Study Bisection method and fixed point iteration method..

  10. Week 10Module 3: Solution of Non-Linear Equations in one Varibale
    • Unit 3: Chord Methods for Finding Root · 3 hours

      Study chord methods for finding roots.. Learn about Repuler-Falsi method.. Practice solving problems using Repuler-Falsi method.. Study Newton – Raphson method and convergence criterion..

  11. Week 11Module 3: Solution of Non-Linear Equations in one Varibale
    • Unit 4: Approximate Root of Polynomial Equation · 3 hours

      Study approximate root of polynomial equation.. Learn about some results on roots of polynomial equation.. Practice solving problems related to roots of polynomial equation.. Study Birge-Vieta method and Graeffe's Root squaring method..

  12. Week 12Module 1: Interpolation
    • Unit 3: Interpolation at Equally Spaced Points · 3 hours

      Review Module 1: Interpolation. Solve additional exercises on Interpolation (Lagrange's Form).. Solve additional exercises on Newton's Form of the Interpolating Polynomial.. Solve additional exercises on Interpolation at Equally Spaced Points..

  13. Week 13Module 2: Solution of Linear Algebraic Equations
    • Unit 4: Eigen-Values and Eigen-Vectors · 3 hours

      Review Module 2: Solution of Linear Algebraic Equations. Solve additional exercises on Direct Methods.. Solve additional exercises on Inverse of A Square Matrix.. Solve additional exercises on Iterative Methods.. Solve additional exercises on Eigen-Values and Eigen-Vectors..

Preparing for the exam

What to do
  • Create concept maps linking Module 1 interpolation techniques
  • Practice solving linear systems using direct/iterative methods from Module 2 weekly
  • Focus on understanding the conditions for convergence of iterative methods
  • Review calculus theorems from Unit 1 and their applications in error analysis
  • Practice applying Newton-Raphson and chord methods from Module 3 to various functions
  • Work through all Tutor-Marked Assignments (TMAs) and review feedback carefully
  • Create a summary sheet of key formulas and theorems for quick reference during the exam

Questions students ask about this course

What is MTH213 about?

This course introduces students to numerical methods for solving mathematical problems. It covers interpolation techniques, including Lagrange's and Newton's forms, and their applications in approximating function values. The course also explores direct and iterative methods for solving linear algebraic equations, along with eigenvalue problems. Additionally, it reviews essential calculus concepts and introduces numerical techniques for finding roots of non-linear equations, such as the bisection and Newton-Raphson methods.

How many units does MTH213 have?

MTH213, Numerical Analysis I, has 12 units across 3 modules, over 288 pages of course material. You can read it one unit at a time.

How many credit units is MTH213?

MTH213 carries 3 credit units, at 200 level in Sciences.

Is MTH213 hard?

MTH213 is rated intermediate level, with intermediate mathematical content. It is mostly theoretical, practical and problem solving work, and it has a practical component.

How long does MTH213 take to study?

About 150 hours of study, spread across its 12 units.

How is MTH213 assessed?

MTH213 is assessed by Assignments, Tutor Marked Assignments and Final Examination.

What do I need before starting MTH213?

MTH112 MTH121 MTH122

What can I do with MTH213?

Data Analyst, Financial Analyst, Engineering Analyst, Research Scientist and Statistician.

More courses in Sciences

BIO201

Genetics I

2 credit units

Open BIO201
ESM206

Community Participation In Environmental Management

2 credit units

Open ESM206
EHS207

General Biochemistry For Environmental Health

3 credit units

Open EHS207