
Apply the definitions of even and odd functions, using f(-x)=f(x) for even and f(-x)=-f(x) for odd. Verify with f(x)=3x^4−x^2, substituting -x to show the function is even.
Explore reflections of functions, including horizontal (over the x-axis) and vertical (over the y-axis) reflections, using y = f(x) to reflect across the x-axis and f(-x) for the y-axis.
Move graphs up and down with vertical shifts, y = f(x) + C and y = f(x) - C, left or right with f(x + C) and f(x - C).
Explore vertical and horizontal stretching and compression of functions using constants. Learn how vertical changes multiply f by c, while horizontal changes use x/c or c x.
Learn how to perform function operations—addition, subtraction, multiplication, division, and composition—and build piecewise functions with interval-defined pieces, open/closed circles, vertical line test, and limits.
Explore limits and velocity concepts by analyzing a car's motion: from a function of time to average velocity to instantaneous velocity via the limit of time intervals.
Explore the three types of continuity—including removable and infinite discontinuities—through piecewise functions, limit analysis, and visual methods, with Gaussian and 1/x examples.
Explore lines and slopes, learn the line equation y = mx + b, and identify x-intercepts and y-intercepts while understanding slope as rise over run and its link to derivatives.
Explore the derivative at a point by constructing tangent lines that touch the curve at a single point, and use secant slopes and limits to find the tangent slope.
Learn step-by-step how to differentiate quotients using the quotient rule, with f(x)=x^2 and g(x)=x^3−2, deriving (f/g)' = (f' g − f g')/g^2 and applying it to an example.
practice problem demonstrates applying the quotient rule to differentiate f(x)/g(x) with g(x) = 5 sqrt(x) and f(x) involving a square root.
Apply the chain rule to differentiate a composite function with the outer tangent and inner three times the square root of x, multiplying derivatives.
Explores locating inflection points via the second derivative, deriving f''(x)=6x to find x=0 and the inflection point at (0,0), and examines how tangent slopes change across it.
Practice problem sketches the graph of x^3-4x by locating intersection points. It identifies maxima, minima, and inflection points and describes convex and concave regions before sketching.
MATLAB is a powerful tool used by scientists and engineers to perform tedious calculations and to interpret data following measurements of experiments and much more!
This is not the End!
Calculus one is the introductory course of Calculus as it covers all the essentials; From knowing what a function is to finding limits, taking derivatives, and sketching a given curve. This course is vital for any student wishing to pursue a degree in Science or Engineering.
For each topic that is covered in this course, I will start by giving a general introduction of concepts then I will move on to solve problems, because practice is definitely the best way to learn. I will conclude the course by introducing you to MATLAB which is a powerful tool, that allows you to graph curves, take derivatives and much more using few lines of code.
This course will be constantly updated and new material will be posted every now and then. And if you seek help I will be more than happy to answer your questions on the course page.