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The voltage across an impedance in a network is $V(s)=z(s) I(s)$, where $V(s)$, $Z(s)$ are the Laplace transforms of the corresponding time function $v(t), z(t)$ and $i(t)$. The voltage $v(t)$ is:

  1. $v(t)=z(t) \cdot v(t)$
  2. $v(t)=\int_0^1 i(t) \cdot z(t-\tau) d \tau$
  3. $v(t)=\int_0^1 i(t) \cdot z(t+\tau) d \tau$
  4. $v(t)=z(t)+i(t)$

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