Dedicated to all who love mathematics and engineering, to all who genuinely wants to learn more about the dynamics of mathematics, who will get to discover unique patterns and approaches to resolving the continually spinning problems in applied mathematics and engineering fields.
From basic to advanced concepts in undergraduate analytical courses, like mathematics and other select engineering courses, especially in electrical electronic engineering and control systems engineering.

Electrical System Modelling
15:45
Electrical System Modelling
Mass Spring Damper System Part 2
7:56
Mass Spring Damper System Part 2
Mass Spring Damper System: Part 1
7:08
Mass Spring Damper System: Part 1
Nyquist Criterion Part 5: Determination of restrictions on K for stability of a system
22:57
Nyquist Criterion Part 5: Determination of restrictions on K for stability of a system
Nyquist Criterion Part 4: Sample Question on Phase Margine, Gain Margin, and Crossover Frequencies
30:16
Nyquist Criterion Part 4: Sample Question on Phase Margine, Gain Margin, and Crossover Frequencies
Nyquist Criterion: Part 3 Past Question on Nyquist Plot
34:31
Nyquist Criterion: Part 3 Past Question on Nyquist Plot
Nyquist Criterion Part 2: Understanding Phase Margin Gain Margin and Cross Over Frequencies
19:37
Nyquist Criterion Part 2: Understanding Phase Margin Gain Margin and Cross Over Frequencies
Nyquist Stability Criterion Part 1
53:41
Nyquist Stability Criterion Part 1
Laplace Transform method of Solving ODE: A special past question covering second order homogeneous
12:19
Laplace Transform method of Solving ODE: A special past question covering second order homogeneous
ENG 307 Past Question-Curve Fitting (Part 2) Using method of least squares to fit in the best line
16:45
ENG 307 Past Question-Curve Fitting (Part 2) Using method of least squares to fit in the best line
Exam Past Question on Curve Fitting (Part 1): How to arrange an equation into straight-line graph
20:58
Exam Past Question on Curve Fitting (Part 1): How to arrange an equation into straight-line graph
Lower quartile, upper quartile, interquartile range and semi-interquartile range: solved!
28:27
Lower quartile, upper quartile, interquartile range and semi-interquartile range: solved!
Determine the function F(t) of the triangular pulse shown in the figure above
12:45
Determine the function F(t) of the triangular pulse shown in the figure above
Laplace transform of the square wave
15:32
Laplace transform of the square wave
Laplace transform of the unit pulse square wave
9:04
Laplace transform of the unit pulse square wave
Laplace transform of the saw tooth wave
15:59
Laplace transform of the saw tooth wave
A Special Reduction Formula for Laplace Transforms (saw tooth wave)
21:56
A Special Reduction Formula for Laplace Transforms (saw tooth wave)
Newton Raphson's Method (part 1) of solving for a root of a given equation ( 2 Questions Solved)
48:45
Newton Raphson's Method (part 1) of solving for a root of a given equation ( 2 Questions Solved)
How to determine Eigenvalues and Eigenvectors
31:04
How to determine Eigenvalues and Eigenvectors
Using Cramer's rule to solve a set of linear simultaneous equations
18:23
Using Cramer's rule to solve a set of linear simultaneous equations
A shorter Method: Solve for the value of k for which the following equations are consistent:
6:29
A shorter Method: Solve for the value of k for which the following equations are consistent:
Numerical Differentiation Using the general Lagrange 3 point Formula
52:06
Numerical Differentiation Using the general Lagrange 3 point Formula
Numerical Methods: Interpolation Using Newton Interpolatory Division, Part 1
49:28
Numerical Methods: Interpolation Using Newton Interpolatory Division, Part 1
Using Simpson's Rule to find the area bounded by a curve and a Line. Calculate the percentage error
20:06
Using Simpson's Rule to find the area bounded by a curve and a Line. Calculate the percentage error
Three in One Numerical Integration: Trapezoidal Rule, Simpson's Rule and Analytical Method
36:37
Three in One Numerical Integration: Trapezoidal Rule, Simpson's Rule and Analytical Method
Obtaining the solution of a (2 x 2 ) electrical system with complex eigenvalues
51:00
Obtaining the solution of a (2 x 2 ) electrical system with complex eigenvalues
State Space representation of 2 mass-spring model with no damper
39:05
State Space representation of 2 mass-spring model with no damper
State Space Representation of an RLC Electrical System with Current Source (Input) Part 1
17:36
State Space Representation of an RLC Electrical System with Current Source (Input) Part 1
Gauss-Jordan Elimination (Reduced Row Echelon Form) for finding the Inverse of a square Matrix
31:27
Gauss-Jordan Elimination (Reduced Row Echelon Form) for finding the Inverse of a square Matrix
Linear algebra: Solve for the value of k to make the system consistent
33:13
Linear algebra: Solve for the value of k to make the system consistent