\frac{v_{out}}{v_{in}} =-\frac{A_0 - R_{out}sC_1}{1+R_1sC_1 + A_0R_1sC_1+R_{out}sC_1}

\frac{v_{out}}{v_{in}} =-\frac{A_0 + R_{out}sC_1}{1+R_1sC_1 + R_1sC_1+A_0R_{out}sC_1}

\frac{v_{out}}{v_{in}} =-\frac{A_0 - R_1 sC_1}{1+R_1sC_1 + R_1sC_1+A_0R_{out}sC_1}

\frac{v_{out}}{v_{in}} =-\frac{A_0 - R_1 sC_1}{1 - R_1sC_1 + A_0R_1sC_1+R_{out}sC_1}

\frac{v_{out}}{v_{in}} =-\frac{A_0 + R_{out}sC_1}{1- R_1sC_1 + A_0R_1sC_1+R_{out}sC_1}

\frac{v_{out}}{v_{in}} = \frac{A_0(R_1+R_2)R_{in}}{R_1R_2 + R_1R_{in} + 2R_2R_{in}} and Input Impedance = \frac{R_1R_{in} +R_2R_{in} + R_2R_{in} +R_1R_2}{R_1+R_2}.

\frac{v_{out}}{v_{in}} = \frac{A_0(R_1+R_2)R_{in}}{R_1R_2 + R_1R_{in} + R_2R_{in} + A_0R_2R_{in}} and Input Impedance = \frac{R_1R_{in} + R_2R_{in} + A_0R_2R_{in} +R_1R_2}{R_1+R_2}.

\frac{v_{out}}{v_{in}} = \frac{(R_1+R_2)R_{in}}{A_0R_1R_2 + R_1R_{in} + R_2R_{in} + A_0R_2R_{in}} and Input Impedance = \frac{R_1R_{in} + R_2R_{in} + A_0R_2R_{in} +A_0R_1R_2}{R_1+R_2}.

\frac{v_{out}}{v_{in}} = \frac{A_0(R_1+R_2)R_{in}}{A_0R_1R_2 + R_1R_{in} + R_2R_{in} + A_0R_2R_{in}} and Input Impedance = \frac{R_1R_{in} + R_2R_{in} + A_0R_2R_{in} +A_0R_1R_2}{R_1+R_2}.

\frac{v_{out}}{v_{in}} = \frac{A_0(R_1 - R_2)R_{in}}{A_0R_1R_2 + R_1R_{in} + R_2R_{in} + A_0R_2R_{in}} and Input Impedance = \frac{R_1R_{in} + R_2R_{in} + A_0R_2R_{in} +A_0R_1R_2}{R_1+R_2}.

\frac{v_{out}}{v_{in}} = \frac{A_0(R_1+R_2)}{R_1 + R_2 +A_0R_2 + R_{out}} and Output Impedance = \frac{(R_1+R_2)R_{out}}{R_1+R_2+A_0R_2+R_{out}}.

\frac{v_{out}}{v_{in}} = \frac{A_0(R_1+R_2)}{R_1 + 2R_2 + A_0R_{out}} and Output Impedance = \frac{(R_1+R_2)R_{out}}{R_1+2R_2+A_0R_{out}}.

\frac{v_{out}}{v_{in}} = \frac{A_0(R_1+R_2)}{R_1 + R_2 +A_0R_1 + R_{out}} and Output Impedance = \frac{(R_1+R_2)R_{out}}{R_1+R_2+A_0R_1+R_{out}}.

\frac{v_{out}}{v_{in}} = \frac{A_0(R_1 - R_2)}{R_1 + 2R_2 + A_0R_{out}} and Output Impedance = \frac{(R_1 - R_2)R_{out}}{R_1+2R_2+A_0R_{out}}.

\frac{v_{out}}{v_{in}} = \frac{A_0(R_1-R_2)}{R_1 + R_2 +A_0R_2 + R_{out}} and Output Impedance = \frac{(R_1-R_2)R_{out}}{R_1+R_2+A_0R_2+R_{out}}.

v_{out}(s) = - \frac{v_{in}(s)}{\frac{s}{\omega_0} + 1 + R_1C_1 s(\frac{s}{\omega_0}+(1+A_0))}

v_{out}(s) = - \frac{v_{in}(s)}{\frac{s}{\omega_0} + 1 + R_1 s(\frac{s}{\omega_0}+(1+A_0))}

v_{out}(s) = - \frac{v_{in}(s)}{\frac{s}{\omega_0} + 1 + R_1C_1 s(\frac{s}{\omega_0}+(1 - A_0))}

v_{out}(s) = - \frac{v_{in}(s) A_0}{\frac{s}{\omega_0} + 1 + R_1C_1 s(\frac{s}{\omega_0}+(1+A_0))}

v_{out}(s) = - \frac{v_{in}(s) A_0}{\frac{s}{\omega_0} + 1 + R_1C_1 s(\frac{s}{\omega_0}+(1-A_0))}

No

Yes