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Q10. Find the input capacitance
For the small signal circuit given below, estimate the input capacitance as seen from the terminal G using the Miller's method.
Q9. Find the input pole
For the amplifier below, determine the input pole frequency (in rad/s). Note that the transistors are identical and have the values,
C_{\mu} = 0.5 pF, and the transition frequency
f_T = 400 MHz. The
C_{\mu} and
C_{\pi} obey the relation
C_{\mu} + C_{\pi} = \frac{g_m}{2\pi f_T}. Assume that the 0.4mA current source provides 0.2mA current to each transistor at bias conditions.
Q8. Find the output waveform
If the op-amp below has the following frequency response \frac{A_0}{(1+\frac{s}{\omega_0})} for its differential gain, determine the output waveform
v_{out}(s). Here
s is the Laplace variable.
Q7. Find the input pole
For the circuit below, find the input pole (in rad/s) using Miller's theorem. Assume that
r_o is infinity and neglect parasitic capacitances. The current source biasing Q2 transistor is ideal. Assume
g_m and
r_{\pi} for Q1 is known.
Q6. Estimate the output pole
Use Miller's theorem to estimate the input and output pole (in rad/s) of the circuit shown below. Assume
V_A = \infty and ignore all the parasitic capacitances.
Q1. Find the output waveform
If the input to the ideal op-amp circuit below is A\text{sin}(\omega t)+ B\text{cos}(2 \omega t) where
A and
B are constants, and
\omega is the angular frequency, what is the output waveform?