Electric Circuits Plus Mastering Engineering with Pearson eText 2.0 - Access Card Package (11th Edition) (What's New in Engineering)
11th Edition
ISBN: 9780134814117
Author: NILSSON, James W., Riedel, Susan
Publisher: PEARSON
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Chapter 8.4, Problem 8AP
To determine
Find the expression of
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Chapter 8 Solutions
Electric Circuits Plus Mastering Engineering with Pearson eText 2.0 - Access Card Package (11th Edition) (What's New in Engineering)
Ch. 8.1 - The resistance and inductance of the circuit in...Ch. 8.2 - Use the integral relationship between iL and v to...Ch. 8.2 - Prob. 3APCh. 8.2 - Prob. 4APCh. 8.2 - Prob. 5APCh. 8.3 - Prob. 6APCh. 8.4 - Prob. 7APCh. 8.4 - Prob. 8APCh. 8.4 - Repeat Assessment Problems 8.7 and 8.8 if the 80 Ω...Ch. 8 - The resistance, inductance, and capacitance in a...
Ch. 8 - Prob. 2PCh. 8 - Prob. 3PCh. 8 - Prob. 4PCh. 8 - Prob. 5PCh. 8 - Prob. 6PCh. 8 - The natural response for the circuit shown in Fig....Ch. 8 - The natural voltage response of the circuit in...Ch. 8 - The voltage response for the circuit in Fig. 8.1...Ch. 8 - Prob. 10PCh. 8 - Design a parallel RLC circuit (see Fig. 8.1) using...Ch. 8 - Prob. 12PCh. 8 - The initial value of the voltage υ in the circuit...Ch. 8 - Prob. 14PCh. 8 - The resistor in the circuit of Fig. P8.14 is...Ch. 8 - Prob. 16PCh. 8 - The switch in the circuit of Fig. P8.17 has been...Ch. 8 - The inductor in the circuit of Fig. P8.17 is...Ch. 8 - The inductor in the circuit of Fig. P8.17 is...Ch. 8 - Prob. 20PCh. 8 - Prob. 21PCh. 8 - Prob. 22PCh. 8 - Prob. 23PCh. 8 - Prob. 24PCh. 8 - Prob. 25PCh. 8 - Prob. 26PCh. 8 - The switch in the circuit in Fig. P8.27 has been...Ch. 8 - For the circuit in Fig. P8.27, find υo for t ≥...Ch. 8 - The switch in the circuit in Fig. P8.29 has been...Ch. 8 - There is no energy stored in the circuit in Fig....Ch. 8 - For the circuit in Fig. P8.30, find υo for t ≥...Ch. 8 - Prob. 32PCh. 8 - Prob. 33PCh. 8 - Prob. 34PCh. 8 - Switches 1 and 2 in the circuit in Fig. P8.35 are...Ch. 8 - The switch in the circuit in Fig. P8.36 has been...Ch. 8 - Prob. 37PCh. 8 - Prob. 38PCh. 8 - In the circuit in Fig. P8.39, the resistor is...Ch. 8 - The initial energy stored in the 50 nF capacitor...Ch. 8 - Prob. 41PCh. 8 - Find the voltage across the 80 nF capacitor for...Ch. 8 - Design a series RLC circuit (see Fig. 8.3) using...Ch. 8 - Change the resistance for the circuit you designed...Ch. 8 - Prob. 45PCh. 8 - Prob. 46PCh. 8 - Prob. 47PCh. 8 - The switch in the circuit shown in Fig. P8.48 has...Ch. 8 - Prob. 49PCh. 8 - The initial energy stored in the circuit in Fig....Ch. 8 - The resistor in the circuit shown in Fig. P8.50 is...Ch. 8 - The resistor in the circuit shown in Fig. P8.50 is...Ch. 8 - The two switches in the circuit seen in Fig. P8.53...Ch. 8 - Prob. 54PCh. 8 - Prob. 55PCh. 8 - The circuit parameters in the circuit of Fig....Ch. 8 - Prob. 57PCh. 8 - Prob. 58PCh. 8 - Prob. 59PCh. 8 - Prob. 60PCh. 8 - Prob. 61PCh. 8 - Derive the differential equation that relates the...Ch. 8 - The voltage signal of Fig. P8.63(a) is applied to...Ch. 8 - The circuit in Fig. P8.63 (b) is modified by...Ch. 8 - Prob. 65PCh. 8 - Prob. 66PCh. 8 - Prob. 67PCh. 8 - Prob. 68P
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- 3. a) Given the circuit shown below in figure P3, compute the capacitor voltage, vc(t), for t≥ 0 utilizing the generalized equation presented in lecture. Assume the "make-before-break" switch shown in figure P3 is ideal and makes the transition from position A to position B in zero time. The current and voltage conventions shown must be used in the analysis to receive any credit. b) Use your answer to part 3(a) above and the relationship between the capacitor voltage, vc(t), and the capacitor current, ic(t), shown below in equation P3 to compute ic(t) for t≥0. = Equation P3: ic(t) C dvc(t) dt A B t = 0 == V₁(t) R₁ = 20[k] + [i,(t) V2(t) VS1 = 100[V] + Vs2=200[V] C + + R₂ = 20[k2] i2(t) V3(t) = vc(t) + ↓ iz(t) R3 = 20[k≤2] Figure P3 |↓ic(t) vc(t): C = 1[μF]arrow_forward4. a) Given the circuit shown below in figure P4, compute the inductor current, iL(t), for t≥ 0 utilizing the generalized equation presented in lecture. Assume the "make-before-break" switch shown in figure P4 is ideal and makes the transition from position A to position B in zero time. The current and voltage conventions shown must be used in the analysis to receive any credit. b) Use your answer to part 4(a) above and the relationship between the inductor current, i₁(t), and the inductor voltage, VL(t), shown below in equation P4 to compute VL(t) for t≥0. Equation P4: V₁ (t) = L diL(t) dt V₁(t) + R₁ = 100[2] i₁(t) VS1 = 100[V] A t=0 B t = 0 + R₂ = 100[2] V2(t) + Tiz(t) V3(t) = vc(t) + VS2 = 200[V] + C Figure P4 | iz(t) R3 = 100[2] + ↓iL(t) VL(t) L = 1[H]arrow_forwardFor the network in Figure 2, determine currents 14 and I, and voltage V2. R₁ 6.8 ΚΩ + R 8.2 ΚΩ E 12 V R₁₂ 18 k≤2 Vs R₁ 2 ks Figure 2: Circuit diagram for Q.1(b')arrow_forward
- 2. a) Given the circuit shown below in figure P2, compute the inductor current, iL(t), for t≥ 0 utilizing the generalized equation method presented in lecture. Assume the switch shown in figure P2 is ideal and opens in zero time at t = 0[s]. The current and voltage conventions shown must be used in the analysis to receive any credit. b) Use your answer to part 2(a) above and the relationship between the inductor current, iL(t), and the inductor voltage, VL(t), shown below in equation P2 to compute VL(t) for t≥ 0. Equation P2: v₁ (t) = L di(t) dt Vs = 100[V] + I₁ R₁ = 100[2] + ww ས་ t=0 १) 1 V₂(t) + i2(t) R₂ = 200[2] VL(t) B Figure P2 iL(t) V3(t) L = 1[H] + ↓ iz(t) R3 = 200[2]arrow_forward1. a) Given the circuit shown below in figure P1, compute the capacitor voltage, vc(t), for t≥ 0 utilizing the generalized equation method presented in lecture. Assume the switch shown in figure P1 is ideal and opens in zero time at t=0[s]. The current and voltage conventions shown must be used in the analysis to receive any credit. b) Use your answer to part 1(a) above and the relationship between the capacitor voltage, vc(t), and the capacitor current, ic(t), shown below in equation P1 to compute ic(t) for t≥ 0. Equation Pl: ic(t) = = C I₁ dvc(t) dt + R₁ = 1[k] W t=0 Vs = 100[V] + V1 A V2(t) + i2(t) R₂ = 1[k] + Lic(t) vc(t)= C = 1[µF] V3(t) B Figure P1 + i3(t) R3 = 1[k]arrow_forwardDon't use ai to answer I will report you answerarrow_forward
- ) If the analog signal has amplitudes that varies between-3 and 3 volts And maximum frequency of 10 KHz, and it is samples with 3 bits quantizer as shown in the figure. St (a) Calculate the quantization levels and the optimum sampling timings. (b) Show in the graph the values on the vertical axis for both the analog values and the assigned bits. (c) Show the sampling times on horizontal axis. narrow_forwardSlope of graph = 'V/'f= 1.28/3.25 = 0.394 x 10-14 = h/e Calculate 'h': (slope) x (e) = (0.394 x 10-14) x (1.6 x 10-19) = 6.30 x 10-34 Percentage error from Planck's constant: ((6.626 - 6.30) / 6.626) x 100 = 4.9% Depending on the exact performance and efficiency of the Photo Electric tube, errors ranging from 3% up to 10% or even higher can be expected in calculating Planck' Constant. Nevertheless, the method and the theory is clearly demonstrated. Discussion: 1) Draw the relationship between the frequency of light and the backing voltage. 2) Find the experimental value of Planck's constant and the error ratio. 3) Explain how light can behave as both a particle and a wave.arrow_forwardIn the circuit shown, the voltage between A and B is UAB=24 V and remains constant. The resistance R3=36 2. To ensure that when the switch S is closed or open, the voltages across C-B are 6 V and 8V, respectively, find the values of R₁ and R2.DO NOT USE AI OR CHATGPTarrow_forward
- control systemarrow_forwardFind V1 in the circuit below. Do on paperarrow_forwardHW3/ Express the value of H in rectangular components at P(0, 0.2, 0) in the field of: (a) a current filament, 2.5 A in the a₂ direction at x = = 0.1, y = 0.3; (b) a coax, centered on the z axis, with a = 0.3, b = 0.5, c = 0.6, I = 2.5 A in the a₂ direction in the center conductor; (c) three current sheets, 2.7a, A/m at y = 0.1, −1.4ax A/m at y = 0.15, and -1.3a, A/m at y = 0.25.arrow_forward
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