All Advanced Geometry Resources
Example Questions
Example Question #74 : Graphing
Give the horizontal asymptote of the graph of the function
The graph has no horizontal asymptote.
We can rewrite this as follows:
This is a translation of the graph of , which has as its horizontal asymptote, to the right two units and down three units. Because of the latter translation, the horizontal asymptote is .
Example Question #1 : How To Graph An Exponential Function
If the functions
were graphed on the same coordinate axes, what would be the -coordinate of their point of intersection?
Round to the nearest tenth, if applicable.
The graphs of and would not intersect.
We can rewrite the statements using for both and as follows:
To solve this, we can multiply the first equation by , then add:
Example Question #2 : How To Graph An Exponential Function
If the functions
were graphed on the same coordinate axes, what would be the -coordinate of their point of intersection?
Round to the nearest tenth, if applicable.
The graphs of and would not intersect.
We can rewrite the statements using for both and as follows:
To solve this, we can set the expressions equal, as follows:
Example Question #131 : Advanced Geometry
Find the range for,
Example Question #41 : Graphing
An important part of graphing an exponential function is to find its -intercept and concavity.
Find the -intercept for
and determine if the graph is concave up or concave down.
.
Example Question #11 : How To Graph An Exponential Function
Give the equation of the vertical asymptote of the graph of the equation .
The graph of has no vertical asymptote.
The graph of has no vertical asymptote.
Define . In terms of , can be restated as
The graph of is a transformation of that of . As an exponential function, has a graph that has no vertical asymptote, as is defined for all real values of ; it follows that being a transformation of this function, also has a graph with no vertical asymptote as well.
Example Question #44 : Graphing
Give the equation of the horizontal asymptote of the graph of the equation .
The graph of has no horizontal asymptote.
Define . In terms of , can be restated as
.
The graph of has as its horizontal asymptote the line of the equation . The graph of is a transformation of that of - a right shift of 3 units ( ), a vertical stretch ( ), and a downward shift of 7 units ( ). The right shift and the vertical stretch do not affect the position of the horizontal asymptote, but the downward shift moves the asymptote to the line of the equation . This is the correct response.
Example Question #133 : Advanced Geometry
Give the -coordinate of the -intercept of the graph of the function
The -intercept of the graph of is the point at which it intersects the -axis. Its -coordinate is 0; its -coordinate is , which can be found by substituting 0 for in the definition:
Example Question #134 : Advanced Geometry
Give the -coordinate of the -intercept of the graph of the function .
The graph of has no -intercept.
The -intercept of the graph of is the point at which it intersects the -axis. Its -coordinate is 0; its -coordinate is , which can be found by substituting 0 for in the definition:
,
the correct choice.
Example Question #135 : Advanced Geometry
Give the -coordinate of the -intercept of the graph of the function .
The graph of has no -intercept.
The graph of has no -intercept.
The -intercept(s) of the graph of are the point(s) at which it intersects the -axis. The -coordinate of each is 0,; their -coordinate(s) are those value(s) of for which , so set up, and solve for , the equation:
Subtract 7 from both sides:
Divide both sides by 2:
The next step would normally be to take the natural logarithm of both sides in order to eliminate the exponent. However, the negative number does not have a natural logarithm. Therefore, this equation has no solution, and the graph of has no -intercept.