Course Syllabus
Matrices and System of Linear Equations
Basic concepts of matrices
Operations on matrices
Inverse of a matrix
Solution of system of linear equations
Vectors
Coordinate systems in two and three-dimensional space
Basic algebraic operations on vectors
Dot product of two vectors
Cross product of two vectors
Scalar triple product
Applications of vectors products
Partial Derivatives
Partial differentiation
The chain rule
Implicit differentiation
Relative maxima and minima of functions of two variables
Double Integrals
Double integrals over rectangular regions
Double integrals over nonrectangular regions
Double integrals in polar coordinates
Applications of Double Integrals
Area of the plane region
Volume of the solid bounded above by the surface and below by the region of integration
Center of mass of a lamina
Surface area
Numerical Methods
Trapezoidal rule and Simpson’s rule
Numerical solution of initial-value problems using Runge-Kutta method
Fourier Series
Odd and even functions
Periodic functions
Fourier series of periodic functions
Basic concepts of matrices
Operations on matrices
Inverse of a matrix
Solution of system of linear equations
Vectors
Coordinate systems in two and three-dimensional space
Basic algebraic operations on vectors
Dot product of two vectors
Cross product of two vectors
Scalar triple product
Applications of vectors products
Partial Derivatives
Partial differentiation
The chain rule
Implicit differentiation
Relative maxima and minima of functions of two variables
Double Integrals
Double integrals over rectangular regions
Double integrals over nonrectangular regions
Double integrals in polar coordinates
Applications of Double Integrals
Area of the plane region
Volume of the solid bounded above by the surface and below by the region of integration
Center of mass of a lamina
Surface area
Numerical Methods
Trapezoidal rule and Simpson’s rule
Numerical solution of initial-value problems using Runge-Kutta method
Fourier Series
Odd and even functions
Periodic functions
Fourier series of periodic functions
Frequently Asked Questions
Q1 : Why should I study Applied Mathematics?
A1 : In studying Applied Mathematics you will learn how to use a variety of mathematical and computational tools to solve problems in diverse fields, ranging from physics and engineering, to biology and medicine. You will develop the intellectual discipline and reasoning abilities needed to think through complex problems and develop sound practical solutions. A person with an education in Applied Mathematics is thus versatile and effective in meeting challenges in the workplace or industry.
A1 : In studying Applied Mathematics you will learn how to use a variety of mathematical and computational tools to solve problems in diverse fields, ranging from physics and engineering, to biology and medicine. You will develop the intellectual discipline and reasoning abilities needed to think through complex problems and develop sound practical solutions. A person with an education in Applied Mathematics is thus versatile and effective in meeting challenges in the workplace or industry.