a) Explain the charging process of a capacitor.b) Briefly explain the two main differences between capacitor and inductor.c) Determine the total inductance L, and total capacitance C, for the circuit in Figure 1. Given that C = 12 µF, C2 = 47 µF, Ca = 5 µF, C4 = 22 µF and Cs = 10 µF.I ml2 mH10 VC, CsI mH(a)(b)Figure 1d) Referring to Figure 2, after the switch is closed (att = 0 s), calculate:i The RL time constant.i. The current flow through the inductori. The voltage across the resistor and inductore) Referring to Figure 2, determine the time required for current through the inductor to reach its final value after the switch is closed.R1.0 kn15 V10 mHFigure 2all

as per our company guidelines we are supposed to answer ?️only first 3️⃣ sub-parts. Kindly repost…

a) Explain the charging process of a capacitor. b) Briefly explain the two main differences between capacitor and inductor. c) Determine the total inductance L, and total capacitance C, for the circuit in Figure 1. Given that C = 12 µF, C2 = 47 µF, C3 = 5 µF, C4 = 22 µF and Cs = 10 µF.

a) Explain the charging process of a capacitor. b) Briefly explain the two main differences between capacitor and inductor. c) Determine the total inductance L, and total capacitance C, for the circuit in Figure 1. Given that C = 12 µF, C2 = 47 µF, C3 = 5 µF, C4 = 22 µF and Cs = 10 µF.

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

See similar textbooks

Similar questions

1) Propose and draw a circuit of a resistive current divider in half
Would you help me with d and c? This is for my practice set. Thank you!
In the figure R1 When the switch is opened after having been closed for a long time, the current in the inductor drops from 1.00 A to 0.250 A in 0.200 s. What is the inductance of the inductor in mH? = 4.00 N , and R2 = 1.00 N. The inductor is ideal. %3D Şekildeki devrede R1 = 4.00 N , ve R2 = 1.00 N olarak verilmişlerdir. Solenoidin iç direnci yoktur. Anahtar uzun süre sonra kapalı kaldıktan sonra açılırsa solenoidden geçen akım 0,200 s içinde 1,00 A değerinden 0,250 A değerine düşmektedir. Solenoidin indüktansı mH cinsinden nedir? R1 S R2 L le
When we talk about capacitance of capacitor we normally say that capacitance depends on the size, shape, and position of the two capacitors and dielectric constant K. What then did we mean when we say that capacitance is constant in the equation Q = CV?
A capacitor can be used .............................................. in electrical circuits. Which of the followings fit? To regulate the currents To regulate the voltages To store energy by deposition of electric charges To provide energy as passive circuit element To store energy in the form of magnetic field To create time varying voltages and currents To dissipate energy To convert elektrik energy into heat or light
10 V sine 90 kHz 1 kQ C1 1 nF 2. Using a Square function with 90,000 Hz in your function-generator, a 1000-ohm resistor, and a 1 nano-Farad capacitor, determine the charging time for the capacitor. Show your calculations and show the charging-discharge curve with an oscilloscope in TINKERCAD.
1.1) Figure shows an electrical circuit where capacitor located diagonally, is at a potential difference of 5.0 V and a capacitance given by C3 = C. C₂=4C 11 15 V HH C₁=C b a C6=0,5 C C₁=CT HE HH C₁=C 15 V Then find the value of the capacitance C, so that equivalent capacitance of C₁ y C₂ is equal to equivalent capacitance of C4, C5 and Co. Also, calculate the potential difference across the capacitor of capacity 0.5 C.
Fill in the blanksadd, capacitance, charge capacity, dielectric, dissipate, electrical circuits, , passive, plates,proximity, storesA capacitor is a 1 …………. two-terminal electrical component that 2 ……… potential energy in anelectric field. The effect of a capacitor is known as 3. …………... While some capacitance exists betweenany two electrical conductors in 4. …………… in a circuit, a capacitor is a component designed to 5.…… capacitance to a circuit. The capacitor was originally known as a condenser.The physical form and construction of practical capacitors vary widely and many capacitor types are incommon use. Most capacitors contain at least two electrical conductors often in the form of metallic 6.………… or surfaces separated by a 7. ………medium. A conductor may be a foil, thin film, or anelectrolyte. The nonconducting dielectric acts to increase the capacitor's 8. ………… ………. Materialscommonly used as dielectrics include glass, ceramic, plastic film, paper, mica, and oxide…
If values are not given than write sufficient formula with explanation.........
Determine the total capacitance, total charge, individual voltage drop and charges across each capacitor. Use two decimal places for your answer. Put your answer for the individual voltage and charge for each capacitor in a table for faster checking.
An initially uncharged parallel plate capacitor is connected to a circuit containing a battery with emf -15V and a resistor, R = 8.5MN as shown in the figure to below. The capacitor whose plates have an area of A = 3.1mm² are separated by a distance of d = 3.4mm and one third of the capacitor is filled with a dielectric material, K₁= 1.1 and the rest (two thirds) is filled with another dielectric material, K₂=4.5. At t=0 the switch is closed. 7.1 seconds after the switch is closed the electric field within the first dielectric material (₁) is observed to be 15 x 10³ N/C. Find the potential difference across the capacitor at this instant (t = 7.1 s) in terms of permitivity of free space €0? Express your answer using zero decimal place. R S K₁ K₂
A resistor and a capacitor are connected in series with a variable inductor. When the circuit is connected to a 550V, 40 hz supply, the maximum current given by varying the inductance is 15 A. At this current, the voltage drop across the capacitor is 2800 V. Calculate the power taken and power factor of the circuit when across a 250 V, 60 Hz source.