1.2 Spice simulationSimulate the circuit of figure 1 , connect VDD to 5 V and both inputs Vin1 and Vin2 to sinusoidal signals with an offset of 2.5 V and an amplitude of 150 mV, both signals must be out of phase. For ISS used an ideal current generator. Lets see what the gain/frequency dependency is, complete Table 1. Replace the current generator for the circuit designed in the second part of the theoretical study, repeat the analysis. Figure 1: Differential amplifier. Table 1: Amplifier differential gain vs frequency.

1.2 Spice simulationSimulate the circuit of figure 1 , connect VDD to 5 V and both inputs Vin1 and Vin2 to sinusoidal signals with an offset of 2.5 V and an amplitude of 150 mV, both signals must be out of phase. For ISS used an ideal current generator. Lets see what the gain/frequency dependency is, complete Table 1. Replace the current generator for the circuit designed in the second part of the theoretical study, repeat the analysis. Figure 1: Differential amplifier. Table 1: Amplifier differential gain vs frequency.

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1.2 Spice simulation
  1. Simulate the circuit of figure 1 , connect V D D to 5 V and both inputs V i n 1 and V i n 2 to sinusoidal signals with an offset of 2.5 V and an amplitude of 150 m V , both signals must be out of phase. For I S S used an ideal current generator. Lets see what the gain/frequency dependency is, complete Table 1.
  2. Replace the current generator for the circuit designed in the second part of the theoretical study, repeat the analysis. Figure 1: Differential amplifier.
Table 1: Amplifier differential gain vs frequency.

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