1.
2.
3.
4.
1.
2. –x
3. 2x
4. -2xe
1. (3/2) sin(100t)
2. 3 sin(100t)
3. Sin(100t)
4. 2 sin (100t).
3 sin(100t)
1. R1+R2=R3+R4
2. R1-R2=R3-R4
3. R1/R2=R3/R4
4. R2/R1=R3/R4
R1-R2=R3-R4
1. 4 V
2. 6 V
3. 8 V
4. 10 V.
10 V.
1. Logarithmic amplifiers for both fig.(a) and fig.(b)
2. Detectors for both fig.(a) and fig.(b)
3. Detectors for fig.(a) and logarithmic amplifier for fig.(b)
4. Logarithmic amplifier for fig.(a) and detector for fig.(b).
Logarithmic amplifier for fig.(a) and detector for fig.(b).
1. Enable circuit to approach ideal differentiator
2. Maintain high input impedance
3. Eliminate high frequency noise spikes
4. Prevent oscillations at high frequency.
Maintain high input impedance
1. 1.28 mV
2. 159.28 mV
3. 159 mV
4. 628 mV.
628 mV.
1. 9 and -10
2. 9.9 and -10
3. -9 and 10
4. -9.9 and 10.
9.9 and -10
1.
2.
3.
4.