$x[n]$ is convolved with $h[n]$ to give $y[n]$. If $y[2] = 1$ and $y[3] = 0$, then $h[0] = \underline{\hspace{1cm}}.$ (Graphs are not uniformly scaled)

Step 1: Identify the values of \(x[n]\) and \(h[n]\) for convolution. By looking at the graphs of \(x[n]\) and \(h[n]\), we find the contributions to \(y[2]\) and \(y[3]\). Through calculations and trial, we determine that: \[ h[0] = 2.38 \] Thus, the value of \(h[0]\) is 2.38, which corresponds to option (D).
The input-output relationship of an LTI system is given below.

\( \text{For an input } x[n] \text{ shown below,} \)

\( \text{the peak value of the output when } x[n] \text{ passes through } h \text{ is:} \)
Given \( y(t) = e^{-3t}u(t) u(t + 3) \), where denotes convolution operation. The value of \( y(t) \) as \( t \to \infty \) is \(\underline{\hspace{2cm}}\) (rounded off to two decimal places).