Free Course Image Engineering Mathematics

Free online courseEngineering Mathematics

Duration of the online course: 25 hours and 19 minutes

1

Star

(1)

Boost problem-solving for mechanical & industrial engineering with a free Engineering Mathematics course—calculus, integrals, ODEs, and exam-style practice.

In this free course, learn about

  • Single-variable calculus: differentiation rules, extrema tests, and curve analysis
  • Fundamental Theorems of Integration and evaluating definite integrals
  • Properties of definite integrals and symmetry/periodicity-based simplifications
  • Applications of definite integrals: area between curves and volumes/surface of revolution
  • Limits and continuity; evaluating multivariable limits near singular points
  • Partial derivatives and higher-order partials; interpreting second derivatives
  • Euler’s theorem for homogeneous functions; Taylor series expansions in two variables
  • Unconstrained & constrained optimization (Lagrange multipliers) and stationary points
  • Multiple integrals: setting up regions, changing order, and polar-coordinate evaluation
  • Inequality-based minimization/maximization under constraints (e.g., AM-GM)
  • ODE basics: forming ODEs; order and degree; modeling first-order systems
  • Methods for 1st-order ODEs: separable, homogeneous, exact equations & integrating factors
  • Linear ODEs: integrating factor for dy/dx+P(x)y=Q(x); coordinate transformations
  • Higher-order linear ODEs: constant coefficients, Wronskian, Euler–Cauchy, undetermined PI

Course Description

Build the mathematical backbone used every day in mechanical and industrial engineering. This free online course strengthens the core ideas that sit behind modeling, analysis, optimization, and design, helping you move from memorizing formulas to understanding why methods work and when to apply them. You will develop confidence in setting up problems, choosing the right tools, and interpreting results the way engineers need to in real projects and competitive exams.

The learning experience blends clear explanations with focused, exam-style questions so you can practice turning concepts into solutions under constraints. Starting with single-variable calculus, you sharpen skills in limits, continuity, differentiation, and integration, then use those techniques to reason about critical points, approximations, and areas. As the course expands into multivariable calculus, you work with partial derivatives, Taylor ideas in more than one variable, and optimization, building the intuition needed for constrained and unconstrained minima and maxima in engineering contexts.

You will also learn to handle multiple integrals and geometric regions, a crucial step for applications like mass properties, distributions, and engineering geometry. The course then connects calculus to differential equations, guiding you through the language of order and degree, standard formations, and practical solving approaches used in physical system models. With linear methods, integrating factors, exact equations, and higher-order equations with constant coefficients, you gain a reliable workflow for solving and checking results rather than guessing the next step.

By the end, you will be better prepared to tackle GATE-style mathematics questions, collaborate more effectively with peers across engineering branches, and approach mechanics, manufacturing, and industrial problems with stronger analytical clarity. Whether you are revising fundamentals or building a disciplined practice routine, this course helps you develop skills that translate directly into academic performance and professional problem-solving.

Course content

  • Video class: Engineering Mathematics 01 | Single Variable Calculus 2.0 | All Branches #gate #gate2025 1h33m
  • Exercise: Consider the function f(x) = x^3 - 3x^2 + 4. Determine the nature of the critical points of the function.
  • Video class: Engineering Mathematics 02 | Fundamentals Theorems of Integration 2.0 | All Branches #gate2025 1h33m
  • Exercise: For real values of x greater than zero, what is the best approximation for the minimum value attained by the function f(x) = e^(-x) * sin(100x)?
  • Video class: Engineering Mathematics 03 | Properties of Definite Integrals 2.0 | All Branches #gate #gate2025 1h33m
  • Exercise: For real values of x, the minimum value of the function e^x + e^-x is ___.
  • Video class: Engineering Mathematics 04 | Applications of Definite Integrals (Part 01) 2.0 | All Branches 1h35m
  • Exercise: What is the integral of the function f(x) = x^2 - 3 with respect to x from 0 to 2?
  • Video class: Engineering Mathematics 05 | Applications of Definite Integrals (Part 02) 2.0 | All Branches 1h41m
  • Exercise: What is the area enclosed by the curves y = sin(x), y = cos(x), x = 0, and x = π/2?
  • Video class: Engineering Mathematics 06 | Limits, Continuity and Partial derivatives 2.0 | All Branches 1h31m
  • Exercise: What is the surface area of a solid obtained by revolving the line segment joining the points (0, 0) and (a, b) around the x-axis?
  • Video class: Engineering Mathematics 07 | Eulers Theorem, Taylor series in 2 variables 2.0 | All Branches 1h19m
  • Exercise: What is the limit of the function f(x, y) = (2xy - y^2) / (x^2 + y^2) as (x, y) approaches (0, 0)?
  • Video class: Engineering Mathematics 08 | Maxima and Minima (Constrained and Unconstrained) 2.0 | All Branches 1h29m
  • Exercise: Consider the function f(x, y) = x^2 + y^2. Which of the following represents the second partial derivative of f with respect to x, evaluated at the point (1, 2)?
  • Video class: Engineering Mathematics 09 | Multiple Integrals 2.0 (Part 01) | All Branches 1h33m
  • Exercise: Consider the function f(x, y) = x^4 + y^4 + 4xy - 2x^2 - 2y^2. How many stationary points does this function have?
  • Video class: Engineering Mathematics 10 | Multiple Integrals 2.0 (Part 02) | All Branches 1h39m
  • Exercise: What is the minimum value of the product XYZ if the constraint x + y + z = 3 is applied, and each of x, y, z are positive real numbers?
  • Video class: Engineering Mathematics 11 | Multiple Integrals 2.0 (Part 03) | All Branches 1h36m
  • Exercise: In the context of multiple integrals, what is the result of ∫∫_A y² dy dx, where A is the region in the first quadrant bounded by the circle x² + y² = a²?
  • Video class: Engineering Mathematics 12 | Order, Degree and Formation of ODEs 2.0 | All Branches 1h46m
  • Exercise: What is the degree of the differential equation given by the expression \( (d^3 y/dx^3)^2 + 3(d^2 y/dx^2)^5 - 7(dy/dx)^4 + y = 0 \)?
  • Video class: Engineering Mathematics 13 | Solving Methods of 1st order Equations 2.0 | All Branches 1h31m
  • Exercise: What is the general form of a first-order differential equation, commonly used to begin solving physical system models involving differential equations?
  • Video class: Engineering Mathematics 14 | Exact Equations and Integrating factors, Linear Equations 2.0 Part 01 19m
  • Exercise: What is the purpose of performing a coordinate transformation in solving non-homogeneous first-order differential equations?
  • Video class: Engineering Mathematics 15 | Exact Equations and Integrating factors, Linear Equations 2.0 Part-2 1h32m
  • Exercise: In the context of first-order linear differential equations of the form dy/dx + P(x)*y = Q(x), what is the integrating factor?
  • Video class: Engineering Mathematics 17 | Higher order Differential Equations 2.0 | All Branches 1h25m
  • Exercise: What is the general form of a linear differential equation of an nth order with constant coefficients?
  • Video class: Engineering Mathematics 18 | Particular Integrals, Wronskian and Euler - Cauchy Equations 2.0 1h37m
  • Exercise: In the context of solving linear differential equations using the method of undetermined coefficients, which function on the right-hand side of the differential equation requires you to multiply the assumed particular integral by the least power of x such that no term in the particular integral is also a solution of the corresponding homogeneous equation?

This free course includes:

25 hours and 19 minutes of online video course

Digital certificate of course completion (Free)

Exercises to train your knowledge

100% free, from content to certificate

Ready to get started?Download the app and get started today.

Install the app now

to access the course
Icon representing technology and business courses

Over 5,000 free courses

Programming, English, Digital Marketing and much more! Learn whatever you want, for free.

Calendar icon with target representing study planning

Study plan with AI

Our app's Artificial Intelligence can create a study schedule for the course you choose.

Professional icon representing career and business

From zero to professional success

Improve your resume with our free Certificate and then use our Artificial Intelligence to find your dream job.

You can also use the QR Code or the links below.

QR Code - Download Cursa - Online Courses

More free courses at Mechanical and Industrial Basics

Download the App now to have access to + 5000 free courses, exercises, certificates and lots of content without paying anything!

  • 100% free online courses from start to finish

    Thousands of online courses in video, ebooks and audiobooks.

  • More than 60 thousand free exercises

    To test your knowledge during online courses

  • Valid free Digital Certificate with QR Code

    Generated directly from your cell phone's photo gallery and sent to your email

Cursa app on the ebook screen, the video course screen and the course exercises screen, plus the course completion certificate