Step 1:

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(a)

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The polar equation of the conic is \"\".

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Convert the given polar equation into standard form of the polar equation \"\".

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\"\"

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Take out 6 common from the denominator.

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\"\"

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Now compare the above equation with standard form.

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\"\" and \"\".

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The eccentricity of the conic equation is \"\".

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Step 2:

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(b)

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The eccentricity of the conic \"\".

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As eccentricity \"\", the given conic section is a ellipse.

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Step 3:

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(c)

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The value in the numerator is \"\".

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Substitute \"\" in the \"\".

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\"\"

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 The ellipse equation is \"\".

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The directrix is parallel to the polar axis \"\".

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So the directrix of the ellipse is \"\".

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Step 4:

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(d)

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The polar equation is \"\".

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Construct a table for different values of \"\".

\ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \
    \"\"\"\"\"\"\"\"\"\"
   \"\"\"\"\"\"\"\"\"\"
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Graph:

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(1) Graph the polar co-ordinates.

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(2) Plot the points.

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(3) Connect the points to a smooth curve.

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Solution :

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(a) The eccentricity of the conic equation is \"\".

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(b) The given conic section is a ellipse.

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(c) The directrix of the ellipse is \"\".

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(d)

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