Michael Faraday - Revision history

Skalathoor6 at 01:54, 6 December 2015

2015-12-06T01:54:10Z

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			By Sujay Kalathoor Q02

	Michael Faraday was an English scientist who's discovery's greatly influenced the fields of electromagnetism and electrochemitry.		Michael Faraday was an English scientist who's discovery's greatly influenced the fields of electromagnetism and electrochemitry.

Skalathoor6: /* External links */

2015-12-06T01:47:24Z

External links

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	http://hyperphysics.phy-astr.gsu.edu/hbase/solids/magpr.html#c2		http://hyperphysics.phy-astr.gsu.edu/hbase/solids/magpr.html#c2

			http://www.rigb.org/our-history/iconic-objects/iconic-objects-list/faradays-motor

	==References==		==References==

Skalathoor6: /* References */

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References

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	https://nationalmaglab.org/education/magnet-academy/history-of-electricity-magnetism/museum/faraday-motor-1821		https://nationalmaglab.org/education/magnet-academy/history-of-electricity-magnetism/museum/faraday-motor-1821

			http://www.rigb.org/our-history/iconic-objects/iconic-objects-list/faradays-motor
	[[Category:Notable Scientists]]		[[Category:Notable Scientists]]

Skalathoor6 at 01:46, 6 December 2015

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	Michael Faraday was an English scientist who's discovery's greatly influenced the ~~field~~ of electromagnetism.		Michael Faraday was an English scientist who's discovery's greatly influenced the fields of electromagnetism and electrochemitry.

	[[File:Faraday6969.jpg\|300px\|thumb\|right\|Michael Faraday. Born: September 22, 1791. Died: August 25, 1867]]		[[File:Faraday6969.jpg\|300px\|thumb\|right\|Michael Faraday. Born: September 22, 1791. Died: August 25, 1867]]

Skalathoor6 at 01:46, 6 December 2015

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	===Biography===		===Biography===

	~~Farady~~ was born in London in 1791 to a poor family, meaning he only received a basic education. He got a job as a bookbinder's apprentice at age 14, where he would read books on scientific subjects to teach himself a wide array of topics. Faraday furthered his career by contacting the chemist Humphry Davy to become his chemical assistant in 1813. With Davy, ~~Farady~~ traveled around Europe meeting other famous scientists and fine-tuning his own ideas for research. When ~~Farady~~ and Davy returned in 1815, Faraday continued performing experiments and conducting research, making many crucial discoveries and starting programs such as the Royal Institution's Friday Evening Discourses and Christmas Lectures, which still continue to this day. Faraday's health started to deteriorate in the 1840's, which lessened his ability to do further research. He died in 1867. The farad, a unit for capacitance, is named in his honor.		Faraday was born in London in 1791 to a poor family, meaning he only received a basic education. He got a job as a bookbinder's apprentice at age 14, where he would read books on scientific subjects to teach himself a wide array of topics. Faraday furthered his career by contacting the chemist Humphry Davy to become his chemical assistant in 1813. With Davy, Faraday traveled around Europe meeting other famous scientists and fine-tuning his own ideas for research. When Faraday and Davy returned in 1815, Faraday continued performing experiments and conducting research, making many crucial discoveries and starting programs such as the Royal Institution's Friday Evening Discourses and Christmas Lectures, which still continue to this day. Faraday's health started to deteriorate in the 1840's, which lessened his ability to do further research. He died in 1867. The farad, a unit for capacitance, is named in his honor.

	[[File:benzene6969.jpg\|150px\|thumb\|left\|This depicts a model of benzene, a compound isolated by ~~Farady~~ that has become extremely ~~importent~~ in the field of chemistry]]		[[File:benzene6969.jpg\|150px\|thumb\|left\|This depicts a model of benzene, a compound isolated by Faraday that has become extremely important in the field of chemistry]]

	===Discoveries===		===Discoveries===

Skalathoor6 at 01:45, 6 December 2015

2015-12-06T01:45:51Z

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	~~Claimed by skalathoor6~~

	Michael Faraday was an English scientist who's discovery's greatly influenced the field of electromagnetism.		Michael Faraday was an English scientist who's discovery's greatly influenced the field of electromagnetism.

	[[File:Faraday6969.jpg\|~~350px~~\|thumb\|right\|Michael Faraday. Born: September 22, 1791. Died: August 25, 1867]]		[[File:Faraday6969.jpg\|300px\|thumb\|right\|Michael Faraday. Born: September 22, 1791. Died: August 25, 1867]]
	===Biography===		===Biography===

Skalathoor6: /* Major Contributions to Physics */

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Major Contributions to Physics

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	===Faraday's Law of Magnetic Inductance===		===Faraday's Law of Magnetic Inductance===
	One of Michael Faraday's greatest discovery's is magnetic inductance, or the relationship between a changing magnetic field and a voltage. Basically, any change in a magnetic field near a coil in a wire will cause a voltage to run in that coil. That change in magnetic field could be a change in field strength or simply a change in position of the field relative to the coil. The formula is <math>emf = -N{\frac{d{Φ}}{dt}}</math>, where '''emf''' is the induced voltage, '''N''' is the number of loops in the coil, and '''Φ''' is the magnetic flux. Magnetic flux is defined as <math>Φ = BA</math>, where '''B''' is the magnitude of the magnetic field, and '''A''' is the area of the loop. Flux is any measurable field through a surface. Any time there is a change in magnetic flux with respect to time across the coil, a voltage is induced in that coil, causing current to flow.		One of Michael Faraday's greatest discovery's is magnetic inductance, or the relationship between a changing magnetic field and a voltage. Basically, any change in a magnetic field near a coil in a wire will cause a voltage to run in that coil. That change in magnetic field could be a change in field strength or simply a change in position of the field relative to the coil. The formula is <math>emf = -N{\frac{d{Φ}}{dt}}</math>, where '''emf''' is the induced voltage, '''N''' is the number of loops in the coil, and '''Φ''' is the magnetic flux. Magnetic flux is defined as <math>Φ = BA</math>, where '''B''' is the magnitude of the magnetic field, and '''A''' is the area of the loop. Flux is any measurable field through a surface. Any time there is a change in magnetic flux with respect to time across the coil, a voltage is induced in that coil, causing current to flow.

	~~===Diamagnetism===~~
	Another of Faraday's important discoveries is diamagnetism. Diamagnetic materials oppose an applied magnetic field with a weak, induced magnetic field of its own. The material does this by alligning its electron clouds in such a way that the current of those electrons creates a magnetic field in the opposite direction of the applied field. All materials have diamagnetic properties. Conductors are actually strong diamagnets, as they induce strong opposing magnetic fields.

	[[File:Faraday motor.png\|200px\|thumb\|right\|This depicts Faraday's original setup for his motor]]		[[File:Faraday motor.png\|200px\|thumb\|right\|This depicts Faraday's original setup for his motor]]
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	===Electric Motors===		===Electric Motors===
	In 1822, Faraday invented the first electric motor. An electric motor derives its mechanical work from electricity, and Faraday used the discovery of magnetic inductance to create forces that moved a wire. Basically, Faraday hung a wire into a glass bowl filled with mercury and a magnet. Mercury is a great conductor of electricity, so he connected a battery to the apparatus which sent current flowing through the wire. Using the principles of inductance, Faraday predicted that the wire would then induce a magnetic field in a circular loop around itself. This magnetic field would interact with the magnetic field caused by the magnet at the bottom of the bowl, creating forces that would cause the wire to spin. This was a rudimentary motor, but since that time companies and engineers have perfected Faraday's model. Electric motor's are used in everyday items such as cars, hair dryers, lawn mowers, washing machines, vacuum cleaners, and more.		In 1822, Faraday invented the first electric motor. An electric motor derives its mechanical work from electricity, and Faraday used the discovery of magnetic inductance to create forces that moved a wire. Basically, Faraday hung a wire into a glass bowl filled with mercury and a magnet. Mercury is a great conductor of electricity, so he connected a battery to the apparatus which sent current flowing through the wire. Using the principles of inductance, Faraday predicted that the wire would then induce a magnetic field in a circular loop around itself. This magnetic field would interact with the magnetic field caused by the magnet at the bottom of the bowl, creating forces that would cause the wire to spin. This was a rudimentary motor, but since that time companies and engineers have perfected Faraday's model. Electric motor's are used in everyday items such as cars, hair dryers, lawn mowers, washing machines, vacuum cleaners, and more.

			===Diamagnetism===
			Another of Faraday's important discoveries is diamagnetism. Diamagnetic materials oppose an applied magnetic field with a weak, induced magnetic field of its own. The material does this by alligning its electron clouds in such a way that the current of those electrons creates a magnetic field in the opposite direction of the applied field. All materials have diamagnetic properties. Conductors are actually strong diamagnets, as they induce strong opposing magnetic fields.

	==Applications and Connectedness==		==Applications and Connectedness==

Skalathoor6: /* Applications and Connectedness */

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Applications and Connectedness

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	==Applications and Connectedness==		==Applications and Connectedness==
	[[File:Motional emf111.gif\|150px\|thumb\|This depicts the concept of [[Motional Emf using Faraday's Law]]]]		[[File:Motional emf111.gif\|150px\|right\|thumb\|This depicts the concept of [[Motional Emf using Faraday's Law]]]]
	#The most obvious connection Michael Faraday has to Physics II is the applications of Faraday's Law to [[Inductance]].		#The most obvious connection Michael Faraday has to Physics II is the applications of Faraday's Law to [[Inductance]].
	#Faraday's Law can be used to determine both the magnitude and direction of the [[Curly Electric Fields]] resulting from the changing magnetic field and current in a loop.		#Faraday's Law can be used to determine both the magnitude and direction of the [[Curly Electric Fields]] resulting from the changing magnetic field and current in a loop.

Skalathoor6: /* Applications and Connectedness */

2015-12-06T01:44:32Z

Applications and Connectedness

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	==Applications and Connectedness==		==Applications and Connectedness==
	[[File:Motional ~~emf1~~.~~jpg~~\|150px\|thumb~~\|right~~\|This depicts the concept of [[Motional Emf using Faraday's Law]]]]		[[File:Motional emf111.gif\|150px\|thumb\|This depicts the concept of [[Motional Emf using Faraday's Law]]]]
	#The most obvious connection Michael Faraday has to Physics II is the applications of Faraday's Law to [[Inductance]].		#The most obvious connection Michael Faraday has to Physics II is the applications of Faraday's Law to [[Inductance]].
	#Faraday's Law can be used to determine both the magnitude and direction of the [[Curly Electric Fields]] resulting from the changing magnetic field and current in a loop.		#Faraday's Law can be used to determine both the magnitude and direction of the [[Curly Electric Fields]] resulting from the changing magnetic field and current in a loop.

Skalathoor6: /* References */

2015-12-06T01:42:45Z

References

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	http://physics.stackexchange.com/questions/88841/deriving-expression-for-motional-emf		http://physics.stackexchange.com/questions/88841/deriving-expression-for-motional-emf

			https://nationalmaglab.org/education/magnet-academy/history-of-electricity-magnetism/museum/faraday-motor-1821

	[[Category:Notable Scientists]]		[[Category:Notable Scientists]]