Step 1:

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The curve equation is \"\" and a line equation \"\".\"\"\"\"

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Sketch the graphs :

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\"\"

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Shade the region above the curve \"\" and region below the line \"\".

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Now find the intersection of the curve and a line.

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Find the intersection points from the graph \"\" and \"\".

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Definite integral as area of the region:

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If \"image\" and \"image\" are continuous and non-negative on the closed interval \"image\",

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then the area of the region bounded by the graphs of \"image\" and \"image\" and the vertical lines \"image\" and \"image\" is given by

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\"image\".

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\"\"

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\"\"

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Apply power rule of integration: \"\".

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\"\"

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Therefore area above the curve \"\" and region below the line \"\" is 36 sq units.

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Step 1:

\

The curve equation is \"\" and a line equation \"\".

\

Sketch the graphs :

\

\"\"

\

Shade the left side  region of the curve \"\" and right side region of the line \"\".

\

Now find the intersection of the curve and a line.

\

Find the intersection points from the graph \"\" and \"\".

\

Definite integral as area of the region:

\

If \"image\" and \"image\" are continuous and non-negative on the closed interval \"image\",

\

then the area of the region bounded by the graphs of \"image\" and \"image\" and the vertical lines \"image\" and \"image\" is given by

\

\"image\".

\

 

\

\"\"

\

\"\"

\

Apply power rule of integration: \"\".

\

\"\"

\

Therefore area above the curve \"\" and region below the line \"\" is 24.67 sq units.