Problem1 has been solved with proper calculation and explanation.
(05) mides Problem 1 (20%) In Figure 1 a balanced bridge circuit with resistors R,, R, R; and R, is shown. Vs are a...
Problem 1 (20 %) We want to analyse an electrical circuit described as a 2-port (Figure ). The circuit has source terminal with a constant ideal voltage source Vs and a loading terminal with a loading resistor Ri. Circuit with passive components Figure 1. General electric circuit We want to represent the circuit as seen from the loading terminal as a Thevinin and a Norton equivalent. Sketch these crt equivalents and describe the steps how to determine their component values....
As shown below (Fig.1), A strain gage with gage factor of 2.02 is mounted on the bottom of a beam to measure the strain on the surface of the beam. The beam's Young's Modulus is 193 GPa. A wheatstone bridge circuit was constructed as sketched in Fig. 2. Al resistors including the gage itself is 1202. Supply voltage is 5.0 V DC. The bridge is initially balanced when there is no load (a). when a downward load is added, will...
Problem-a (20 pts)- Consider the constant-voltage bridge shown in Figure-p3. The output equation can be expressed as vo - (R,/R2-Ra/R)/((R,/R2 + 1)(R3/R4+1)) vref- Now suppose that the bridge is balanced, with the resistors set according to Ry/R2 R3/R- p. Then, if the active element R1 increases by δ R1, show that the resulting output of the bridge is given by: where δr--6R1/R1, which is the fractional change in resistance in the active element. For a given 6r, it should be...
P2: (40points) As shown below (Fig.1), A strain gage with gage factor of 2.02 is mounted on the bottom of a beam to measure the strain on the surface of the beam. The beam's Young's Modulus is 193 GPa. A wheatstone bridge circuit was constructed as sketched in Fig. 2. All resistors including the gage itself is 12002. Supply voltage is 5.0 V DC. The bridge is initially balanced when there is no load Strain gage Fig.1 Ri R2 DC...
7.- The Wheatstone Bridge. The circuit shown in the figure, called a Wheatstone bridge, is used to determine the value of an unknown resistor \(X\) by comparison with three resistors \(M, N\), and \(P\) whose resistances can be varied. For each setting, the resistance of each resistor is precisely known. With switches \(K_{1}\) and \(K_{2}\) closed, these resistors are varied until the current in the galvanometer \(G\) is zero; the bridge is then said to be balanced. (a) Show that...
1. Circuit Analysis a) For the bridge network shown in figure 1 determine the currents in each of the resistors. #8A 2Ω 14Ω 32Ω 54V 3Ω 11Ω Figure 1
Problem #1: Circuit Analysis and Thevenin Equivalent [20 points] The bridge circuit is connected to a load RL between terminals (a, b) as shown (a) Use node-voltage method to solve for VTH respect to terminal (a, b) (b) Use mesh-current method to solve for isc respect to terminal (a, b) 5Ω 2Ω 2 Ri b al 16 V 4Ω 2Ω
Complex Circuit problem. 3- Complex electric circuit Three equal resistors R are connected to a battery as shown in the figure below. The electric potential across the battery terminals when unconnected to this circuit is 9 V. Considering a value of r # 0.5 Ω for the internal resistance of the battery and a value of R- 5.5 2 for the three resistors, find 1. the voltage across the battery terminals when the switch is open 2. the voltage across...
A circuit consists of two resistors connected in series with a power supply, as shown in the figure. The resistance of ?1 is less than the resistance of ?2. A series circuit with two resistors R subscript 1 and R subscript 2. R subscript 1 is connected to the positive terminal of the power supply, and is the first resistor in the circuit. Which resistor has the greater current flowing through it? ?2 ?1 The current through each resistor is...
Consider the circuit shown in (Figure 1) , where all resistors have the same resistance R. At t=0, with the capacitor C uncharged, the switch is closed.At t=0, the three currents can be determined by analyzing a simpler, but equivalent, circuit. Identify this simpler circuit and use it to find the values of I1 , I2, and I3 at t=0. Consider the circuit shown in (Figure 1) , where all resistors have the same resistance R. At t=0, with the...