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Showing 1 to 15 of 16 results Save | Export
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Neuenschwander, Dwight E. – Physics Teacher, 2020
Previous generations of physics students learned how common machines work, as evidenced by their textbook illustrations. Such understanding of machines that daily life depends on seems to be evaporating. In response, for two decades I have conducted an introductory physics "engine cadaver lab." It offers opportunities for hands-on…
Descriptors: Hands on Science, Physics, Science Instruction, Class Activities
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Ackerson, Bruce J. – Physics Teacher, 2019
Electromagnetic induction, represented by either Faraday's law or the Lorentz force law, produces many paradoxes requiring careful examination and application of these laws. The paradoxical example of induction, presented herein, arose in a class and is resolved within the framework of special relativity.
Descriptors: Physics, Science Instruction, Teaching Methods, Scientific Concepts
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Massalha, Taha – Teaching Science, 2016
The "burning candle" experiment is used in middle school education programs to prove that air contains a component that is essential to burning (i.e., oxygen). The accepted interpretation taught by teachers in middle school is this: when burning occurs, oxygen is used up, creating an underpressure that causes a rise in water level inside…
Descriptors: Science Instruction, Middle Schools, Secondary School Science, Scientific Concepts
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Soares, A. A.; Reis, T. O. – Physics Education, 2019
Here we present an inexpensive proposal to experimentally study Faraday's law of induction. The experiment uses low-cost materials, a computer with a sound card and a smartphone, both running free software. A value proportional to the induced electromotive force is measured with the computer's sound card and the data related to the magnetic field…
Descriptors: Science Instruction, Scientific Principles, Magnets, Energy
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Emden, Markus; Gerwig, Mario; Jänichen, Michael; Wildhirt, Susanne – School Science Review, 2021
Martin Wagenschein's ideas of prioritising phenomena in making sense of science processes have influenced the German "Lehrkunstdidaktik" (art of teaching) approach. This article sketches a "Lehrkunstdidaktik" teaching unit inspired by Michael Faraday's "Chemical History of a Candle." It shows how primary and lower…
Descriptors: Science Instruction, Teaching Methods, Elementary School Science, Secondary School Science
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Galeano, Javier – Physics Teacher, 2011
Last fall I had the good fortune of receiving financial support to shoot a documentary about Michael Faraday. I took the opportunity to learn more about this great experimentalist and to visit the highlights of places in his life. In this paper, I would like to share a list and description of some of the most remarkable places in London suitable…
Descriptors: Physics, Foreign Countries, Science Instruction, Scientists
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De Luca, R. – Physics Education, 2010
Using Faraday's law, one can illustrate how an electromotive force generator, directly utilizing seawater motion, works. The conceptual device proposed is rather simple in its components and can be built in any high school or college laboratory. The description of the way in which the device generates an electromotive force can be instructive not…
Descriptors: Motion, Energy, Science Instruction, Scientific Principles
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Greenslade, Thomas B., Jr. – Physics Teacher, 2010
Let us now praise famous physicists, and the apparatus named after them, with apologies to the writer of Ecclesiastes. I once compiled a list of about 300 pieces of apparatus known to us as X's Apparatus. Some of the values of X are familiar, like Wheatstone and Kelvin and Faraday, but have you heard of Pickering or Rhumkorff or Barlow? In an…
Descriptors: Physics, Science Instruction, Laboratory Equipment, Science Experiments
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De Luca, R. – European Journal of Physics, 2009
It is shown that, by applying elementary concepts in electromagnetism and electrochemistry to a system consisting of salt water flowing in a thin rectangular pipe at an average velocity v[subscript A] under the influence of a transverse magnetic field B[subscript 0], an electromotive force generator can be conceived. In fact, the Lorentz force…
Descriptors: Physics, Chemistry, Water, Magnets
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Lopez-Ramos, A.; Menendez, J. R.; Pique, C. – European Journal of Physics, 2008
This paper, as its main didactic objective, shows the conditions needed for the validity of Faraday's law of induction. Inadequate comprehension of these conditions has given rise to several paradoxes about the issue; some are analysed and solved in this paper in the light of the theoretical deduction of the induction law. Furthermore, an…
Descriptors: Validity, Physics, Logical Thinking, Science Experiments
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Bostock-Smith, J. M. – Physics Education, 2008
Lenz's law is sometimes invoked to explain the behaviour of the jumping, or levitating, ring. This is shown to be incomplete, and an alternative explanation using Faraday's laws and circuit analysis is offered. This leads to the choice of optimum material and dimensions for the ring. (Contains 1 table and 4 figures.)
Descriptors: Science Instruction, Physics, Scientific Concepts, Magnets
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Lottis, Dan; Jaeger, Herbert – Physics Teacher, 1996
Describes the use of light-emitting diodes (LED) instead of incandescent bulbs in experiments that generally use battery and bulbs to enable students to explore and understand fundamental electrical phenomena. Presents the following examples: Faraday's Law demonstration, conductors and insulators, and rectifying action of a diode. (JRH)
Descriptors: Demonstrations (Science), Electric Circuits, Hands on Science, Physics
Newfoundland and Labrador Dept. of Education. – 1982
A description of the physics 3204 course in Newfoundland and Labrador is provided. The description includes: (1) statement of purpose, including general objectives of science education; (2) a list of six course objectives; (3) course content for units on sound, light, optical instruments, electrostatics, current electricity, Michael Faraday and…
Descriptors: Course Descriptions, Course Objectives, High Schools, Physics
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Jewett, John W., Jr. – Physics Teacher, 1991
Describes science demonstrations with light-emitting diodes that include electrical concepts of resistance, direct and alternating current, sine wave versus square wave, series and parallel circuits, and Faraday's Law; optics concepts of real and virtual images, photoresistance, and optical communication; and modern physics concepts of spectral…
Descriptors: Electricity, High Schools, Learning Activities, Light
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Davies, G. R. – Physics Teacher, 1990
Eleven demonstrations of light polarization are presented. Each includes a brief description of the apparatus and the effect demonstrated. Illustrated are strain patterns, reflection, scattering, the Faraday Effect, interference, double refraction, the polarizing microscope, and optical activity. (CW)
Descriptors: College Science, Demonstrations (Educational), Higher Education, Laboratory Procedures
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