A 2000 kW turbine –generator of 0.85 power factor operates at the rated load. An
additional load of 300kW at 0.8 power factor is added. Determine the required kVAR
of capacitor to operate the turbine generator but keep it from being overloaded.
Q3. Solve for vo(t) in the circuit of Fig. 3 using the Superposition 62 2H 12...
Superposition theorem
Problem: 4.6 Solve for vo (t) in the circuit of figure, using the superposition principle. 1Ω (Hayt 2017)
Problem 4 Use superposition to solve for Vo in the following circuit on A Vo Answer: Vo= 10 V
Solve by using basic node-voltage or superposition! The op amp in the circuit of Fig. P5.23 is ideal. a) What op amp circuit configuration is this? b) Find vo in terms of vs c) Find the range of values for such that does not saturate and the op amp remains in its linear region of operation. Figure P5.23 96 kΩ 24 kΩ 10 V 16 kΩ 10V 24 kΩ
Using the superposition principle, find the steady state current i(t) for the circuit shown. vs(t) = 10 cos 10t V, is = 3A. 5r 1.5H hu SIDDA vo 10 ME 10 mE 1023
Find i, using superposition: 0.25 F 2H 22 IH non 8 sin (21 + 30°) V : - 0 cos 2 A
can someone please help me solve this question using
superposition theorem, step by step
Circuit Theorems Chapter 4 134 find vx in the circuit of Fig. 4 Use superposition to Answer: v 31.25 V. Practice Problem 4.4 20 #х 25 SA 42 0.1 Figure 4.11 For Practice Prob. 4.4. Example 4.5 For the circuit in Fig. 4.12, use the superposit 24V 8Ω Solution:
Page 12 of 14 Q5 [10 marks Consider the following circuit below, 5H 10V Where v,(t) 10 sin (200t) in V, and is(t) 5 cos(200t) in mA. (a) 12 marks] Compute the contribution of the DC voltage source to the output voltage vo (t) HINT: Use source superposition to compute vo (t)
4. For the DC circuit shown below, solve for Vo using superposition. (20 points) 2. 8A 0 SA
Q Compute Vo in the circuit using superposition. [CO: 05] 2 mA 12 V 2 kn 8 mA 3 kn 6kn 1 kn
Solve problem 3.1using Superposition, and Thevenin
circuit analysis techniques.
find V, in the circuit in Fig. 3.1. 2mA 9 1kΩ 12V(+) 1kΩ SIkΩ 2kΩ: V. Fig. 3.1