Faraday's law of induction

REMARKS/ ANALYSIS In the 1st part of the experiment, Magnetics fields of Magnets with different orientations were observed. For its first subpart A. Like poles of bar Magnets, the magnetic fields are attracted to their opposite poles, thus it is shown that the magnets repel each other. For the next subpart B. Unlike poles of bar Magnets. The magnetic field lines of the North-pole is attracted to the South-pole. This is why in the figure, it can be seen that the two magnets are seeking each other

ABSTRACT This lab is performed to analyze and understand Faraday 's law of electromagnetic induction and also its application in different magnetic components using Faraday 's Electromagnetic Lab simulation software 2.07. In this lab we understand the properties of the bar magnet, the basic electromagnet and also the electromagnetic induction in transformers. In the basic electromagnet, we observe the movement of the electronics both in AC and DC current source and compare the movement of electronics

A magnetic field is produced in the region around a wire whenever a current flow through that wire. Magnetic fields are vector fields, they have a direction and magnitude. The formula for the magnitude of the magnetic field from a wire is B=(µ_O I)/2πr. B is the magnetic field, µ_O is the permeability of free space (4πx〖10〗^(-7)Tm/A), I is the current, and r is the distance from the field sensor to the rod. In part 1A and 1B we constantly turn off the power source and ammeter after each run to eliminate

and to study various characteristics of an electric motor. BACKGROUND INFORMATION: To design a simple electric motor and understand its working, we need to have knowledge about the following,  Electric field and Magnetic field  Faraday’s Law of Electromagnetic Induction  Fleming’s Left hand Thumb rule  Lorentz Force  Torque ELECTRIC FIELD: The electric field is a vector. The source of electric field is electric charge. The two types of charges are positive and negative. The electric

action of a voltaic current on a magnetic needle; and immediately afterwards the splendid intellect of Ampere succeeded in showing that every magnetic phenomenon then known might be reduced to the mutual action of electric currents. This attracted Faraday's attention to the subject. He read much about it; and in the months of July, August, and September he wrote a 'history of the progress of electromagnetism,' which he published in Thomson's

ground-breaking in the field, however, was the discovery of Ampere’s law in 1820 which displayed the production of mechanical force via interactions of an electric current within a magnetic field. With the discovery of Ampere’s law came two impressive innovations in the field of electric motors and engines that slowly bring us closer to the ones of today: Barlow’s wheel and Michael Faraday’s 1821 electromagnetic experiment. Faraday’s experiment build directly upon the theory that Ampere concocted

three phase and six-phase induction motor for comparison of their characteristics. Using this mathematical modeling a Simulink model is created whose results shows that the six-phase induction motor can sustain more than four times the torque that can be sustained by three phase induction motor of same design parameters. The six-phase motor is better not just in torque handling capacity but it also has inherent advantages of the multiphase induction motor. Keywords— Induction motor, Modelling, Multiphase

physics since Newton's time, not only because of their wealth of content, but also because they form a pattern for a new type of law …

1.0 - Introduction The purpose of this Extended Experimental Investigation is to present a formal scientific report on motors after researching, designing and conducting experiments to investigate how different components of a motor affects its performance capabilities and how these can be changed to produce a better motor. The information should be researched and understood to provide evidence for your knowledge of the task. - What is a Motor? Motors are everywhere, the power almost everything

ie there is a change of magnetic flux through a circuit. Faraday’s experiment: Connect a coil of many turns to a zero centered galvanometer. Move a small magnet in and out of the coil and we can observe a small current is produced when the magnet is moved but no current when there was no movement. By varying the