\"\"

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(a)

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The differential equation is \"\" and point is \"\".

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Slope field is \"\".

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Create a table to compute the slope at several values of \"\" and \"\".

\ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \ \
\"\"\"\"\"\"\"\"\"\"\"\"\"\"\"\"
\"\"\"\"\"\"\"\" \

\"\"

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\"\"\"\"\"\"
\"\"\"\"\"\"\"\"\"\"\"\"\"\"\"\"
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Now draw the short line segments with their slopes at respective points.

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The result is the slope field of the differential equation.

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Graph the slope field of differential equation:

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\"\"

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\"\"

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(b)

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Observe the table:

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The slope of the differential equation at point \"\" is \"\".

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Now draw a solution curve so that it move parallel to the near by segments.

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The resulting curve is solution curve which passes through \"\".

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\"\"

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\"\"

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(c)

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Observe the graph of the solution function :

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As \"\" tends to \"\", the function \"\" approaches to \"\".

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As \"\" tends to \"\", the function \"\" approaches to \"\".

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\"\"

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(a)

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Slope field of differential equation \"\" is 

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\"\"

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(b)

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Solution curve passing through \"\" is

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\"\".

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(c)

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As \"\" tends to \"\", the function \"\" approaches to \"\".

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As \"\" tends to \"\", the function \"\" approaches to \"\".