How do the multiple-loop coils and iron ring in the version of Faraday's apparatus shown in Figure 23.3 enhance the observation of induced emf?
Expert Solution & Answer
To determine
The reason of Multiple −loop coils and iron ring in the version of Faraday's apparatus enhance the observation of induced emf.
Answer to Problem 1CQ
The changing magnetic field an emf is induced and due to this induced emf a current is observed in the coil at the lower end of the ring.
Explanation of Solution
Introduction:
The apparatus used by Faraday to demonstrate that magnetic fields can create currents is as below: -
Coil produce the magnetic field when the switch is closed, the magnetic field produced in the coil is on the upper section of the ring and transfer to the lower part of the ring made up of iron.
The coil present at the upper part is provided with a source of emf and a switch, to achieve the complete circuit it is seen that when we close the switch or open the switch, the rotated coil which is present at the bottom of the ring made up of iron gives a deflection which is observed as the galvanometer reading.
The reading obtained in the galvanometer is the change in magnetic field that is due to the
The emf is produced because of the change in magnetic field which leads to the current flowing in the conductor coil.
Conclusion:
So, due to the changing magnetic field an emf is induced and due to this induced emf a current is observed in the coil at the lower end of the ring.
Want to see more full solutions like this?
Subscribe now to access step-by-step solutions to millions of textbook problems written by subject matter experts!
Consider the circuit shown in the figure below. (Let R = 12.0 (2.)
25.0 V
10.0
www
10.0 Ω
b
www
5.00 Ω
w
R
5.00 Ω
i
(a) Find the current in the 12.0-0 resistor.
1.95
×
This is the total current through the battery. Does all of this go through R? A
(b) Find the potential difference between points a and b.
1.72
×
How does the potential difference between points a and b relate to the current through resistor R? V
3.90 ... CP A rocket designed to place small payloads into orbit
is carried to an altitude of 12.0 km above sea level by a converted
airliner. When the airliner is flying in a straight line at a constant
speed of 850 km/h, the rocket is dropped. After the drop, the air-
liner maintains the same altitude and speed and continues to fly in
a straight line. The rocket falls for a brief time, after which its
rocket motor turns on. Once its rocket motor is on, the combined
effects of thrust and gravity give the rocket a constant acceleration
of magnitude 3.00g directed at an angle of 30.0° above the hori-
zontal. For reasons of safety, the rocket should be at least 1.00 km
in front of the airliner when it climbs through the airliner's alti-
tude. Your job is to determine the minimum time that the rocket
must fall before its engine starts. You can ignore air resistance.
Your answer should include (i) a diagram showing the flight paths
of both the rocket and the airliner, labeled at several…
1. In an industrial fabrication process, a fluid, with density p = 800 kg/m and specific heat capacity
c = 5000 J/kg-C°, emerges from a tank at a temperature, T, = 400 °C. The fluid then enters a metal pipe with inner radius a = 2.0 cm and outer radius b = 3.0 cm and thermal conductivity k = 180 W/m•C°.
Outside the pipe the temperature is fixed at Tout = 15 °C.
If the fluid flows at speed v = 8.0 m/s and the length of the pipe is L = 25 m, what is the temperature
of the fluid at the end of the pipe? (Answer: 83 °C)
please I need to show All work problems step by step
Physics for Scientists and Engineers: A Strategic Approach, Vol. 1 (Chs 1-21) (4th Edition)
Knowledge Booster
Learn more about
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, physics and related others by exploring similar questions and additional content below.