\"\"

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The product \"\" is formed by the chemical reaction and is given by \"\".

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Where \"\" is a constant.

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(a)

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Rate of reaction at time \"\" is defined as  \"\".

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Consider \"\".

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Differentiate on each side  with respect to \"\".

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\"\".

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Quotient rule of derivatives: \"\".

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\"\"

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\"\"

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(b )

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Prove that \"\".

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Consider the left hand part \"\".

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\"\".

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We have, \"\".

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Substitute \"\" in \"\".

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\"\"

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Substitute \"\" in above expression.

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\"\",

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If \"\", then \"\".

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Therefore, \"\".

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\"\"

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(c)

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Consider the product concentration \"\".

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\"\"

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As \"\", then \"\".

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\"\"

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\"\".

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As \"\", then \"\".

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\"\"

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(d)

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Consider rate of reaction \"\".

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As \"\",

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\"\"

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Rate of reaction is zero as \"\".

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\"\"

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(e)

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As \"\", that means reaction goes for a long time then concentration of the product tends to a certain point, which is initial value of reactants.

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As \"\", the rate of reaction tends to equilibrium , where no more reactions should occurs.

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\"\"

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(a)\"\".

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(b) \"\"

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(c) \"\".

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(d) Rate of reaction is zero as \"\".

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(e)

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As \"\", that means reaction goes for a long time then concentration of the product tends to a certain point, which is initial value of reactants.

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As \"\", the rate of reaction tends to equilibrium , where no more reactions should occurs.