\"\"

\

The function is \"\" and interval is \"\".

\

Find the intercepts :

\

To find the \"\"- intercept, substitute \"\" in the function.

\

\"\"

\

Solve \"\" in the interval \"\".

\

\"\"

\

\"\" and \"\"

\

\"\" and \"\".

\

\"\" doesnot exist for real values of \"\".

\

The solutions of \"\" are \"\", \"\" and \"\" in the interval \"\".

\

Therefore, the \"\"- intercepts are \"\", \"\" and \"\".

\

To find the \"\"-intercept, substitute \"\" in the function.

\

\"\"

\

\"\"

\

The \"\"- intercept is \"\".

\

\"\"

\

Find the relative extrema for the function \"\" :

\

Consider \"\".

\

Differentiate on each side with respect to \"\".

\

\"\"

\

\"\"

\

To find the critical number, make \"\".

\

\"\"

\

\"\" and \"\"

\

\"\" and \"\"

\

The solutions of \"\" are \"\" and \"\" in the interval \"\".

\

There is no solution for \"\" in the interval \"\".

\

Thus, the critical points occur at \"\" and \"\".

\

If \"\", then \"\".

\

If \"\", then \"\".

\

The relative maximum is \"\".

\

The relative minimum is \"\".

\

\"\"

\

Find the points of inflection :

\

 Consider \"\".

\

Derivative on each side with respect to \"\".

\

\"\"

\

To find inflection points, equate \"\" to zero.

\

\"\"

\

\"\" and \"\"

\

\"\" and \"\"

\

\"\", \"\", and \"\".

\

The solutions of \"\" are \"\", \"\" and \"\" in the interval \"\".

\

The solutions of \"\" are \"\" and \"\" in the interval \"\".

\

The solutions of \"\" are \"\" and \"\" in the interval \"\".

\

If \"\", then \"\".

\

If \"\", then \"\".

\

If \"\", then \"\".

\

If \"\", then \"\".

\

If \"\", then \"\".

\

If \"\", then \"\".

\

If \"\", then \"\".

\

The inflection points are \"\", \"\", \"\", \"\", \"\", \"\", and \"\".

\

\"\"

\

Find the asymptotes :

\

The function is \"\".

\

Vertical asymptote :

\

The line \"\" is a vertical asymptote if \"\".

\

\"\"

\

Therefore, there is no vertical asymptote for the function \"\".

\

Horizontal asymptote :

\

The line \"\" is a horizontal asymptote if \"\".

\

\"\"

\

Limit does not exist.

\

Therefore, there is no horizontal asymptote for the function \"\".

\

\"\"

\

Find intervals of increase or decrease :

\

Consider the test intervals as \"\", \"\"  and \"\".

\ \
\ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \
\

Interval

\
Test ValueSign of \"\"Sign of \"\"Conclusion
\"\"\"\"\"\" \

\"\"

\
Increases, point of inflection
\"\"\"\"\"\" \

\"\"

\
Decreases, concave downward
\"\"\"\"\"\" \

\"\"

\
   Increases,point of inflection
\

 

\

The graph is increases on the intervals \"\" and \"\".

\

The graph is decreases on the interval \"\".

\

\"\"

\

Using all the above characteristics of the function, graph the function \"\" in the interval \"\".

\

Graph :

\

Draw a coordinate plane.

\

Graph the function \"\" in the interval \"\".

\

\"\".

\

\"\"

\

The function is \"\" in the interval \"\".

\

Graph :

\

Using Graphing utility draw the graph of the function \"\" in the interval \"\"..

\

\"\".

\

Observe the above two graphs : The graphs represents the same function, i.e, \"\".

\

\"\"

\

Graph of the function \"\" in the interval \"\" :

\

\"\".