\

The function is \"\".

\

Find the horizontal asymptote.

\

\"\"

\

Therefore the horizontal asymptotes are at \"\" and \"\".

\

Find the vertical asymptote.

\

To find the vertical asymptote, equate denominator of the function to zero.

\

So \"\".

\

Here the roots are imaginary.

\

Therefore there is no vertical asymptote.

\

\

The function is \"\".

\

Apply derivative on each side with respect to \"\".

\

\"\"

\

Find the critical points.

\

Thus critical points exist when \"\".

\

\"\"

\

Here the roots are imaginary, so there is no critical points.

\

But \"\", hence the function is increases.

\

\

Concavity :

\

\"\".

\

Again apply derivative on each side with respect to \"\".

\

\"\"

\

Find the inflection points.

\

Equate \"\" to zero.

\

\"\"

\

The inflection point is at \"\".

\

\"\"

\

The test intervals are \"\" and \"\". 

\

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

Interval

\
Test Value Sign of \"\"Concavity
\"\"\"\" \

\"\"

\
Up
\"\"\"\" \

\"\"

\
\

Down

\
\

The graph is concave up on the interval \"\".

\

The graph is concave down on the interval \"\".

\

The inflection point is \"\"

\

\

Graph :

\

Graph the function \"\" :

\

\"\"

\

\

The horizontal asymptotes are \"\" and \"\".

\

The function is increasing.

\

The graph is concave up on \"\" and concave down on \"\".

\

Graph of the function \"\"  is

\

\"\".