Engineering Mathematics Syllabus

Engineering Mathematics Syllabus ( M-1, M-2 & M-3)

Engineering Mathematics Syllabus

Eng. Maths – M1 Syllabus

Engineering Mathematics Syllabus

Unit – I: Ordinary Differential Equations:

  • Basic concepts and definitions of 1st order differential equations
  • Formation of differential equations
  • solution of differential equations: variable separable
  • homogeneous, equations reducible to homogeneous form
  • exact differential equation
  • equations reducible to exact form, linear differential equation
  • equations reducible to linear form (Bernoulli’s equation)
  • orthogonal trajectories
  • applications of differential equations

Unit – II: Linear Differential equations of 2nd and higher-order:

  • Second-order linear homogeneous equations with constant coefficients
  • Differential operators
  • Solution of homogeneous equations
  • Euler-Cauchy equation
  • Linear dependence and independence
  • Wronskian; Solution of nonhomogeneous equations
  • General solution, complementary function
  • Particular integral; solution by variation of parameters
  • Undetermined coefficients
  • Higher-order linear homogeneous equations applications.

Unit – III: Differential Calculus (Two and Three variables) :

  • Taylor’s Theorem
  • Maxima and Minima
  • Lagrange’s multipliers

Unit – IV: Matrices, determinants, linear system of equations:

  • Basic concepts of an algebra of matrices;
  • Types of matrices;
  • Vector Space, Sub-space,
  • Basis, and dimension, linear system of equations;
  • Consistency of linear systems
  • The rank of a matrix.
  • Gauss elimination; the inverse of a matrix by the Gauss-Jordan method;
  • Linear dependence and independence
  • Linear transformation, inverse transformation, and applications of matrices
  • Determinants
  • Cramer’s rule.

Unit – V: Matrix-Eigen value problems:

  • Eigenvalues, Eigenvectors,
  • Cayley Hamilton theorem, basis, complex matrices; quadratic form;
  • Hermitian,
  • Skew Hermitian forms;
  • Similar matrices; diagonalisation of matrices;
  • Transformation of forms to the principal axis (conic section).

Engineering Mathematics Syllabus – M2 Syllabus

Unit I: Laplace Transforms:

  • Laplace Transform,
  • .Inverse Laplace Transform,
  • Linearity, transform of derivatives and Integrals,
  • Unit Step function, Dirac delta function,
  • Second Shifting theorem,
  • Differentiation and Integration of Transforms,
  • Convolution, Integral Equation,
  • Application to solve differential and integral equations,
  • Systems of differential equations.

Unit II: Series Solution of Differential Equations:

  • Power series; the radius of convergence, power series method,
  • Fresenius method;
  • Special functions:
  • Gamma function, Beta function;
  • Legendre’s and Bessel’s equations;
  • Legendre’s function,
  • Bessel’s function, orthogonal functions, and generating functions.

Unit III: Fourier series, Integrals and Transforms:

  • Periodic functions,
  • Even and Odd functions,
  • Fourier series,
  • Half Range Expansion,
  • Fourier Integrals,
  • Fourier sine and cosine transforms,
  • Fourier Transform

Unit IV: Vector Differential Calculus:

  • Vector and Scalar functions and fields,
  • Derivatives,
  • Gradient of a scalar field,
  • Directional derivative,
  • Divergence of a vector field,
  • Curl of a vector field.

Unit V: Vector Integral Calculus:

  • Line integral, Double Integral,
  • Green’s theorem,
  • Surface Integral,
  • Triple Integral, Divergence Theorem for Gauss,
  • Stroke’s Theorem

Engineering Mathematics Syllabus M3 Syllabus

UNIT I: Basic Probability

  • Probability spaces, conditional probability, independent events, and Bayes theorem.
  •  Random variables: Discrete and continuous random variables,
  • Expectation of random variables,
  • Moments and Variance of Random Variables.

UNIT II: Probability distributions:

  • Binomial, Poisson,
  • evaluation of statistical parameters for these distributions,
  • Poisson approximation to the binomial distribution.
  • Continuous random variables and their properties,
  • distribution functions and density functions,
  • Normal and Exponential,
  • evaluation of statistical parameters for these distributions.

UNIT III: Testing of hypothesis:

  • Test of significance
  • Basic testing of a hypothesis.
  • The null and alternate hypothesis
  • Types of errors
  • Level of significance and critical region.
  • Large sample test for a single proportion,
  • The difference in proportions,
  • A single mean, the difference of means,
  • Small sample tests:
  • Tests for single mean,
  • The difference of means
  • Test for the ratio of variances.

UNIT IV: Complex variables (Differentiation):

  • Limit
  • Continuity and differentiation of complex functions,
  • Analyticity, Cauchy – Riemann equations (without proof)
  • Finding a harmonic conjugate,
  • Elementary analytic functions and their properties.

UNIT V: Complex variables (Integration):

  • Line integral, Cauchy’s theorem,
  • Cauchy’s integral formula,
  • Zero of analytic functions,
  • singularities
  • Taylor’s series
  • Laurent’s series
  • Residues,
  • Cauchy Residue Theorem
  • conformal mappings
  • Mobius transformations and their properties.

 

Basics In Maths


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