This graph looks very similar to the famous equation of y equal 1 over x; in either case you get a curve which asymtotically approaches infinity at the y axis where x=0, and which asymptotically approaches zero as x approaches infinity. The difference is that if it is 3 over x, all the values will be three times higher than if it is 1 over x. But the shape of the curve is the same.
In statistics, a graph and a chart are the same. In arithmetic, a graph is the plot of a function over values. There are no charts.
7
If you can differentiate the function, then you can tell that the graph is concave down if the second derivative is negative over the range examined. As an example: for f(x) = -x2, f'(x) = -2x and f"(x) = -2 < 0, so the function will be everywhere concave down.
bend over and ill show you
-4/12 equals -1/3, which has the pattern of 3's after the decimal point repeat infinitely. That is how -4/12 is a rational number.
What is the area bounded by the graph of the function f(x)=1-e^-x over the interval [-1, 2]?
Because the inverse of a function is what happens when you replace x with y and y with x.
When a function is multiplied by -1 its graph is reflected in the x-axis.
Yes. 0.3 with a bar over it is 1/3, which is a rational number.
In statistics, a graph and a chart are the same. In arithmetic, a graph is the plot of a function over values. There are no charts.
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an exponential function flipped over the line y=x
x
Multiply by -1
Yes, it does.
y=x
If you can differentiate the function, then you can tell that the graph is concave down if the second derivative is negative over the range examined. As an example: for f(x) = -x2, f'(x) = -2x and f"(x) = -2 < 0, so the function will be everywhere concave down.