Step 1:

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The equation is \"\".

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Construct a table for different values of x :

\ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \
S.No\"\"\"\"\"\"
1\"\"\"\" \"\"
2\"\"\"\" \"\"
3\"\" \"\" \"\"
4\"\"\"\"\"\"
4\"\" \"\" \"\"
5\"\" \"\" \"\"
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 Note : The equation does not exist at \"\", so \"\" is not considered in the above table.

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Step 2:

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Graph:

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1. Draw a coordinate plane.

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2. Plot the points found in tables and draw a smooth curves through these points.

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\"\"

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Observe the graph :

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The equation has a maximum at \"\".

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The equation has minimum at \"\".

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Step 3:

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The maximum of the function :

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  \"\" has a relative or local maximum at x = c , if  \"\" for every x in open interval around x = c.

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The minimum of the function :

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  \"\" has a relative or local minimum at x = c , if  \"\" for every x in open interval around \"\".

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Therefore, from the above two definitions maximum is less than the minimum.

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Solution :

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The graph of the function :

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\"\"

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The equation has a maximum at \"\".

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The equation has minimum at \"\".