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For the CMOS inverter stage in Figure 3, Kn = 3 mA/V2, Kp = 1 mA/V2, (W/L)Qp = 1/10, (W/L)QN = 1/30. The threshold voltages are VTHN = I-VTHPl = 1V. The Early voltages can be assumed to be infinity. Using the standard I-V equations for a MOSFET, determine vo, when vi = -2.3 V.

For the CMOS inverter stage in Figure 3, Kn = 3 mA/V2, Kp = 1 mA/V2, (W/L)Qp = 1/10, (W/L)QN = 1/30. The threshold voltages are VTHN = I-VTHPl = 1V. The Early voltages can be assumed to be infinity. Using the standard I-V equations for a MOSFET, determine vo, when vi = -2.3 V.

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For the CMOS inverter stage in Figure 3, Kn = 3 mA/V2, Kp = 1 mA/V2, (W/L)Qp = 1/10, (W/L)QN = 1/30. The threshold voltages are VTHN = I-VTHPl = 1V. The Early voltages can be assumed to be infinity. Using the standard I-V equations for a MOSFET, determine vo, when vi = -2.3 V.

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For the CMOS inverter stage in Figure 3, Kn = 3 mA/V2, Kp = 1 mA/V2, (W/L)Qp = 1/10, (W/L)QN = 1/30. The threshold voltages are VTHN = I-VTHPl = 1V. The Early voltages can be assumed to be infinity. Using the standard I-V equations for a MOSFET, determine vo, when vi=2.3 V.

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