Here you see the graph of a function (in red) together with two different slope graphs
(in short green dots and longer blue dots).
Which of the slope graphs corresponds to the red function graph?
Choose one of the following functions:
For your chosen function, calculate the slope at .
For your chosen function, draw a graph of the slope function.
Use the slope function to determine the extrema of your chosen function.
Here you see the slope graph of a function .
Over which interval is the graph of the function increasing?
At what value(s) of does the function have a maximum?
Can you use the slope graph to determine the value of the function at this maximum?
Assume that . Now sketch a graph for .
Here you see the sign scheme for the slope function of a function .
Sketch a possible graph for .
A car starts as soon as the traffic light switches to green. The subsequent distance covered by the car is given by: where is the distance in meters and is the time in seconds. Assume that there is no need to switch gears!
The speed of this car is expressed in meters per second. Draw the graph of this speed as a function of time .
If you answered a) correctly, then your speed diagram is a straight line. Now determine the a corresponding formula for .
How many seconds does it take to reach a speed of km//h? Give your answer rounded to one decimal.
Consider the following function .
You can use your graphing calculator to plot the graph of in such a way that all three x-axis intersects and both maxima are visible. Demonstrate that this graph intersects the -axis at point .
Calculate the slope of the graph at this intersect.
Write down the equation for the tangent of the graph of at point
Draw a graph of the derivative function of .
With this derivative graph you can determine the extrema of . Use your graphing calculator to find the values of these extrema rounded to two decimals.
Consider the following function .
Construct a rule for the slope function by first drawing up a table of values for .