The function is \"\".

\

Find the first derivative with respect to x.

\

\"\"

\

\"\"

\

At turning points \"\" or \"\" does not exist.

\

\"\"

\

Compare the equation \"\" with the general form of quadratic equation \"\".

\

\"\".

\

Substitute \"\" in the quadratic formula : \"\".

\

\"\"

\

If x = 2.6 then \"\"

\

If x = 1.4 then \"\".

\

The turning points are \"\".

\

At points of inflection \"\" or \"\" does not exist.

\

Find the second derivative with respect to x.

\

\"\"

\

\"\"

\

\"\"

\

If x = 2 then \"\".

\

The point of inflection is \"\".

\

The function is \"\".

\

Differentiate with respect to x.

\

\"\"

\

Apply quotient rule: \"\"

\

\"\"

\

\"\"

\

\"\"

\

\"\"

\

The function is \"\".

\

Differentiate with respect to x.

\

\"\"

\

\"\"

\

\"\"

\

\"\"

\

\"\"

\

The function is \"\".

\

Differentiate with respect to x.

\

\"\"

\

Again differentiate with respect to x.

\

\"\"

\

\"\"

\

To find the critical numbers, \"\" or \"\" does not exist.

\

\"\"

\

The function \"\" does not exist when \"\".

\

The imaginary numbers are negligible, so the critical number is x = 0.

\

Apply second derivative test:

\

\"\"

\

\"\"

\

The relative maximum point (0, 1).

\

To find the points of inflection, \"\" or \"\" does not exist.

\

\"\"

\

The function \"\" does not exist when \"\"

\

The imaginary numbers are negligible.

\

\"\"

\

The points of inflections are (1, 1/2) and (-1, 1/2).

\

.