Step 1: Understand the circuit.
The given circuit is an op-amp with diodes and a Zener diode arrangement, forming a limiter.
- For positive half cycles, \(D_1\) conducts and \(D_Z\) (Zener) enters breakdown after 5 V.
- For negative half cycles, \(D_2\) conducts.
Step 2: Positive cycle.
When input \(V_{in}\) is positive and large:
- The op-amp drives its output positive.
- Once the Zener diode conducts in reverse at \(5 \, V\), additional drop across the 1k\(\Omega\) resistor allows the output to rise up to approximately \(+10 \, V\).
Thus, the positive maximum output is \(\; +10 \, V\).
Step 3: Negative cycle.
When input \(V_{in}\) is negative and large:
- The diode \(D_2\) clamps the negative excursion.
- This clamps the voltage to approximately \(-5 \, V\).
Thus, the minimum output is \(\; -5 \, V\).
Step 4: Final range.
Therefore,
\[
V_O \in [-5, +10]
\]
Final Answer:
\[
\boxed{+10 \, V \; \text{and} \; -5 \, V}
\]
Given an open-loop transfer function \(GH = \frac{100}{s}(s+100)\) for a unity feedback system with a unit step input \(r(t)=u(t)\), determine the rise time \(t_r\).
Consider a linear time-invariant system represented by the state-space equation: \[ \dot{x} = \begin{bmatrix} a & b -a & 0 \end{bmatrix} x + \begin{bmatrix} 1 0 \end{bmatrix} u \] The closed-loop poles of the system are located at \(-2 \pm j3\). The value of the parameter \(b\) is: