* Question Completion Status:Figure Q3(a)Calculate the inductance of the coil shown in Figure Q3(b), which has a cylindrical iron corewith relative permeability of 2000. The number of turns of the coil is 200. The core has length(b)of 200mm and the diameter of 5mm. Permeability of free space=D4TTX10-/H/m[4]CorematerialFigure Q3(b)[Total 10 marks]For the toolbar, press ALT+F10 (PC) or ALT+FN+F10 (Mac).Arial14pxBIU SParagraph

Given Number of turns of the coil N= 200 Length l =200mm = 0.2 meters Diameter d=5mm Then radius…

Figure Q3(a) Calculate the inductance of the coil shown in Figure Q3(b), which has a cylindrical iron core with relative permeability of 2000. The number of turns of the coil is 200. The core has length of 200mm and the diameter of 5mm. Permeability of free space=4TTX10H/m Core material Figure Q3(b)

Figure Q3(a) Calculate the inductance of the coil shown in Figure Q3(b), which has a cylindrical iron core with relative permeability of 2000. The number of turns of the coil is 200. The core has length of 200mm and the diameter of 5mm. Permeability of free space=4TTX10H/m Core material Figure Q3(b)

Physics for Scientists and Engineers, Technology Update (No access codes included)

9th Edition

ISBN:9781305116399

Author:Raymond A. Serway, John W. Jewett

Publisher:Raymond A. Serway, John W. Jewett

Chapter31: Faraday’s Law

Section: Chapter Questions

Problem 31.11OQ: Two rectangular loops of wire lie in the same plane as shown in Figure OQ31.11. If the current I in...

See similar textbooks

Similar questions

A coil of 40 turns is wrapped around a long solenoid of cross-sectional area 7.5 × 10-3 m2. The solenoid is 0.50 m long and has 500 turns. (a) What is the mutual inductance of this system? (b) The outer coil is replaced by a coil of 40 turns whose radius is three times that of the solenoid. What is the mutual inductance of this configuration?
(a) Using the exact exponential treatment, find the time required for the current through a 2.00 H inductor in series with a 0.500 (resistor to be reduced to 0.100% of its original value. (b) Compare your answer to the approximate treatment using integral numbers of . (c) Discuss how signi?cant the difference is.
Electrosurgical units (ESUs) supply high-frequency electricity from resonant RLC circuits to cut. coagulate, or otherwise modify biological tissue. (a) Find the resonant frequency of an ESU with an inductance of L = 1.25 H and a capacitance of 47.0 nF. (b) Calculate the capacitance required for a resonant frequency of 1.33 MHz.
An air-filled cylindrical inductor has 2100 turns, and it is 2.7 cm in diameter and 27.4 cm long. Part A) What is its inductance? Express your answer to two significant figures and include the appropriate units. Part B) How many turns would you need to generate the same inductance if the core were filled with iron of magnetic permeability 1200 times that of free space? Express your answer using two significant figures.
The switch in the figure has been in position 1 for a long time. It is changed to position 2 at t = 0s. What is the maximum current through the inductor? What is the first time at which the current is maximum? Express your answer to two significant figures and include the appropriate units.
4. A coil of 40 turns is wrapped around a long solenoid of cross-sectional area 7.5×10−3m2.The solenoid is 0.50 m long and has 500 turns. (a) What is the mutual inductance of this system? (b) The outer coil is replaced by a coil of 40 turns whose radius is three times that of thesolenoid. What is the mutual inductance of this configuration? This is not and will not be graded
P6 Please solve this problem very clearly and briefly with step by step explanation. A 760 pF capacitor is charged to 135 V and then quickly connected to a 175 mH inductor. Determine (a) the frequency of oscillation, (b) the peak value of the current, and (c) the maximum energy stored in the magnetic field of the inductor
Please help me with the given question nd make sure its 100% correct, thank you A 24.0 μF capacitor is charged to 195 μC and then connected across the ends of a 4.80 mH inductor. Part A. Find the maximum current in the inductor. Express your answer with the appropriate units. Part B. Find the maximum energy stored in the inductor. Express your answer with the appropriate units. Part C. At the instant the energy stored in the inductor is maximum, what is the current in the circuit? Express your answer with the appropriate units.
An Inductance of 1 henry is large! To illustrate the size of 1 henry, suppose you want to create an air filled solenoid with an inductance of 1.00H. To do this you will wrap a copper wire, with a dimaeter of 0.725mm, around a hollow plastic tube, with a diameter of 10.0cm. You will wrap the solenoid tightly, so that each turn of wire is touching its neighbour. a) How long will the plastic tube need to be? b) How many kilometers of copper wire will be required? c) The resistivity of copper is 1.72*10^-8 ohms. What is the resistance of this solenoid?
A voltage is applied to a coil. After waiting one time constant, an inductor with 50 windings and an inductance of 2.0mH has a current of .20 A. What will the current through the inductor be after waiting for 10 time constants? Show the algebraic form of the equation(s) that you apply. Report your answer with the correct number of significant figures and units.
Pls help with the given question and make sure is 100% correct in all parts A 24.0 μF capacitor is charged to 195 μC and then connected across the ends of a 4.80 mH inductor. Part A. Find the maximum current in the inductor. Express your answer with the appropriate units. Part B. At the instant the current in the inductor is maximal, how much charge is on the capacitor plates? Express your answer with the appropriate units. Part C. Find the maximum potential across the capacitor. Express your answer with the appropriate units. Part D. At the instant the potential across the capacitor is maximum, what is the current in the inductor? Express your answer with the appropriate units.
I just need parts A, E, and F. Thank you! A 10.0 μF capacitor is charged to 175 μC and then connected across the ends of a 6.00 mH inductor. (A) Find the maximum current in the inductor. Express your answer with the appropriate units. (E) Find the maximum energy stored in the inductor. Express your answer with the appropriate units. (F) At the instant the energy stored in the inductor is maximum, what is the current in the circuit? Express your answer with the appropriate units.