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We identify M1 as a common-source device because it senses the input at its gate and generates the output at its drain. Transistors M2 and M3 therefore act as the load, with the former serving as a current source and the latter as a diode-connected device. Thus, M2 can be replaced with a small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuit now reduces to that depicted in Fig. 7.34(b), yielding We identify M1 as a common-source device because it senses the input at its gate and generates the output at its drain. Transistors M2 and M3 therefore act as the load, with the former serving as a current source and the latter as a diode-connected device. Thus, M2 can be replaced with a small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuit now reduces to that depicted in Fig. 7.34(b), yielding We identify M1 as a common-source device because it senses the input at its gate and generates the output at its drain. Transistors M2 and M3 therefore act as the load, with the former serving as a current source and the latter as a diode-connected device. Thus, M2 can be replaced with a small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuit now reduces to that depicted in Fig. 7.34(b), yielding We identify M1 as a common-source device because it senses the input at its gate and generates the output at its drain. Transistors M2 and M3 therefore act as the load, with the former serving as a current source and the latter as a diode-connected device. Thus, M2 can be replaced with a small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuit now reduces to that depicted in Fig. 7.34(b), yielding We identify M1 as a common-source device because it senses the input at its gate and generates the output at its drain. Transistors M2 and M3 therefore act as the load, with the former serving as a current source and the latter as a diode-connected device. Thus, M2 can be replaced with a small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuit now reduces to that depicted in Fig. 7.34(b), yielding

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We identify M1 as a common-source device because it senses the input at its gate and generatesthe output at its drain. Transistors M2 and M3 therefore act as the load, with the former servingas a current source and the latter as a diode-connected device. Thus, M2 can be replaced witha small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuitnow reduces to that depicted in Fig. 7.34(b), yielding We identify M1 as a common-source device because it senses the input at its gate and generatesthe output at its drain. Transistors M2 and M3 therefore act as the load, with the former servingas a current source and the latter as a diode-connected device. Thus, M2 can be replaced witha small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuitnow reduces to that depicted in Fig. 7.34(b), yielding

We identify M1 as a common-source device because it senses the input at its gate and generatesthe output at its drain. Transistors M2 and M3 therefore act as the load, with the former servingas a current source and the latter as a diode-connected device. Thus, M2 can be replaced witha small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuitnow reduces to that depicted in Fig. 7.34(b), yielding

We identify M1 as a common-source device because it senses the input at its gate and generatesthe output at its drain. Transistors M2 and M3 therefore act as the load, with the former servingas a current source and the latter as a diode-connected device. Thus, M2 can be replaced witha small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuitnow reduces to that depicted in Fig. 7.34(b), yielding

We identify M1 as a common-source device because it senses the input at its gate and generatesthe output at its drain. Transistors M2 and M3 therefore act as the load, with the former servingas a current source and the latter as a diode-connected device. Thus, M2 can be replaced witha small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuitnow reduces to that depicted in Fig. 7.34(b), yielding

We identify M1 as a common-source device because it senses the input at its gate and generatesthe output at its drain. Transistors M2 and M3 therefore act as the load, with the former servingas a current source and the latter as a diode-connected device. Thus, M2 can be replaced witha small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuitnow reduces to that depicted in Fig. 7.34(b), yielding

We identify M1 as a common-source device because it senses the input at its gate and generatesthe output at its drain. Transistors M2 and M3 therefore act as the load, with the former servingas a current source and the latter as a diode-connected device. Thus, M2 can be replaced witha small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuitnow reduces to that depicted in Fig. 7.34(b), yielding

We identify M1 as a common-source device because it senses the input at its gate and generatesthe output at its drain. Transistors M2 and M3 therefore act as the load, with the former servingas a current source and the latter as a diode-connected device. Thus, M2 can be replaced witha small-signal resistance equal to rO2, and M3 with another equal to (1=gm3)jjrO3. The circuitnow reduces to that depicted in Fig. 7.34(b), yielding