\"\"

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Step 1:

\

The resistance \"\" and the capacitor \"\" are in series.

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The voltage across each component is equal to the total circuit voltage.

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\"\"

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Solve the equation for current i.

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Substitute \"\", \"\" and \"\" in \"\".

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\"\"

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Apply laplace transform to find current i.

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\"\"

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Laplace transform of constant \"\".

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Laplace transform of integral function \"\".

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The initial voltage of the capacitor when \"\" is \"\".

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\"\"

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\"\"

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Apply inverse laplace transform.

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\"\"

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Laplace transform of constant \"\".

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\"\"

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The current flowing through the circuit at any moment of time is \"\" A.

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Solution :

\

The current flowing through the circuit at any moment of time is \"\" A.

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\

 

\

 

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Step 1:

\

Find the current flowing through the circuit r \"\".

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The voltage across each component is equal to the total circuit voltage.

\

\"\"

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So the volatge across capacitor is \"\".

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Find voltage across resistor : \"\".

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Substitute \"\" and \"\".

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\"\"

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\ \ Now substitute \"\" and \"\" in \"\".

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\"\"

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Volatge acrossv capacitor is \"\".

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Solution :

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Volatge acrossv capacitor is \"\".