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Mathematics II

Centering on the "structural hierarchy" of linear algebra, this course covers systems of linear equations, vector spaces, and eigenvalues. It equips students with the "technical" skills to solve matrix equations using the Gauss-Jordan method and understand algebraic structures like groups, rings, and fields.

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TabFlux . Engineering Mathematics II . FWU . B.E. Computer

Engineering Mathematics II

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Course Title: Engineering Mathematics II

Course No: SH 121

Nature of the Course: THEORY

Semester: 2

Credit Hours: 3

Course Description

Course Objectives

Course Contents

1. Multivariable differential calculus
6 hrs
1.1. Concept of functions of two and more variables, partial derivative of functions of two and three variables, symmetric and homogeneous function, Euler's theorem for partial derivative (two and three variables)
1.2. Extreme values
  • Review of maxima and minima of a function of single variable
  • Concept of critical point, saddle point and point of inflection
  • Maxima and minima (local only) of function of two and three variables including extreme values of these functions under given constraints
  • Determination of Lagrange's multiplier to obtain extreme values
2. Ordinary differential equations
14 hrs
2.1. Formation of a differential equation, order and degree of a differential equation, first order differential equations and their solutions
  • Variable separable form
  • Reducible to separable form
  • Exactness condition and integrating factor
  • Linear and Bernoulli's differential equation
2.2. Second order differential equations (homogeneous and nonhomogeneous) with constant coefficient
  • Complementary function and particular integral
  • General, particular and initial solution
2.3. Power series solution of a differential equation with constant as well as variable coefficient
  • Legendre's differential equation with its solution
  • Bessel's differential equation with its solution
  • Legendre polynomial
  • Bessel's function of first and second kind and their properties
3. Laplace transform
9 hrs
3.1. Definition and fundamental formulae of Laplace transform
3.2. Existence and uniqueness theorem
3.3. Linear property
3.4. First and second shifting properties
3.5. Inverse Laplace transform
3.6. Application of Laplace transform (initial value problem)
3.7. Convolution theorem on Laplace transform and its application
4. Double and triple integrals
7 hrs
4.1. Concept and evaluation of double and triple integrals
4.2. Change of order for double integral
4.3. Change of integral in Cartesian form to polar form
4.4. Dirichlet integral
4.5. Area and volume by double integral
5. Three dimensional geometry
9 hrs
5.1. Review of coordinate in space and plane
5.2. Straight line in three dimensions
  • Equation of straight line in symmetrical form
  • Reduction of an equation of a straight line from general to symmetrical form
  • Angle between a line and a plane
  • Condition for a line to lie in a plane
  • Coplanar lines
  • Shortest distance
5.3. Sphere
  • Standard and general equation of sphere
  • Plane section of sphere
  • Great circle
  • Sphere through the given circle
  • Sphere through the given four points
  • Sphere with the given diameter
5.4. Cone and cylinder (definitions and standard equations only)

Reference Books

  1. 1.E.Kreyszig, Advanced Engineering mathematics, Wiley- Eastern, Publication.
  2. 2.N. P. Bali, Dr. Manish Goyal, A text book of engineering mathematics, Laxmi Publication (P). LTD
  3. 3.Thomas, George B. and Finney, Ross L. Calculus and Analytical Geometry. Pearson Education.

Notes:

Source:

The basic objective of the course is to provide a sound knowledge of multivariable function, extreme values of the function of two and three variables, multiple integrals (Double and Triple), ordinary differential equations including their series solutions, Laplace Transform and three dimensional geometry. After learning the course one may enhance the fundamental concepts on Mathematics and able to study the further courses of the subject which are more applicable in Engineering.
To provide a sound knowledge of multivariable function, extreme values of the function of two and three variables, multiple integrals (Double and Triple), ordinary differential equations including their series solutions, Laplace Transform and three dimensional geometry; and to enhance the fundamental concepts on Mathematics and enable the student to study further courses of the subject which are more applicable in Engineering.

This syllabus follows the official BE Comp curriculum of Far Western University. In case of any doubt or revision, the university's published syllabus shall be considered authorative.