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Herman, Thaddeus – Physics Teacher, 2022
Even though many physics teachers take their students on a calculation adventure through circular motion and Newton's universal law of gravity to determine Earth's velocity, most of us leave it at that. We present the final result and say, "Look, Earth is moving around the Sun at about 107,000 km/hr (66,000 mph), yet we can't feel the motion…
Descriptors: Astronomy, Space Sciences, Scientific Concepts, Physics
Cabeza, Cecilia; Rubido, Nicolás; Martí, Arturo C. – Physics Education, 2014
Entertaining and educational experiments that can be conducted in a water park, illustrating physics concepts, principles and fundamental laws, are described. These experiments are suitable for students ranging from senior secondary school to junior university level. Newton's laws of motion, Bernoulli's equation, based on the conservation of…
Descriptors: Science Instruction, Physics, Water, Recreational Facilities
Featonby, David – Physics Education, 2010
This article examines several readily available "magic tricks" which base their "trickery" on physics principles, and questions the use of the word "magic" in the 21st century, both in popular children's science and in everyday language. (Contains 18 figures.)
Descriptors: Physics, Science Instruction, Teaching Methods, Scientific Principles
Kraftmakher, Yaakov – European Journal of Physics, 2009
When data with and without an optically active sample are acquired simultaneously while one manually rotates the analyser, the graph of the first signal versus the second one is an ellipse whose shape shows the phase shift between the two signals; this shift is twice the optical rotation. There is no need to measure the rotation of the analyser or…
Descriptors: Optics, Science Instruction, Motion, Scientific Principles
Bellver-Cebreros, Consuelo; Rodriguez-Danta, Marcelo – European Journal of Physics, 2009
An apparently unnoticed analogy between the torque-free motion of a rotating rigid body about a fixed point and the propagation of light in anisotropic media is stated. First, a new plane construction for visualizing this torque-free motion is proposed. This method uses an intrinsic representation alternative to angular momentum and independent of…
Descriptors: Optics, Mechanics (Physics), Motion, Light
Greenslade, Thomas B., Jr. – Physics Teacher, 2007
One of the rewards of walking up the scores of steps winding around the inside of the shaft of a lighthouse is turning inward and examining the glass optical system. This arrangement of prisms, lenses, and reflectors is used to project the light from a relatively small source in a beam that can be seen far at sea.
Descriptors: Optics, Science Instruction, Light, Physics
Gjurchinovski, Aleksandar; Skeparovski, Aleksandar – European Journal of Physics, 2007
The refraction of a light ray by a homogeneous, isotropic and non-dispersive transparent material half-space in uniform rectilinear motion is investigated theoretically. The approach is an amalgamation of the original Fermat's principle and the fact that an isotropic optical medium at rest becomes optically anisotropic in a frame where the medium…
Descriptors: Motion, Science Instruction, Science Experiments, Scientific Principles
Lewalle, Alexandre – Physics Teacher, 2008
A pair of fine tweezers and a steady hand may well be enough to pick up a grain of sand, but what would you use to hold something hundreds of times smaller still, the size of only one micron? The answer is to use a device that is not mechanical in nature but that relies instead on the tiny forces that light exerts on small particles: "optical…
Descriptors: Thermodynamics, Optics, Laboratory Experiments, Science Instruction
Peer reviewedMcGervey, John D.; Heckathorn, Dick – Physics Teacher, 1990
Provides an inservice workshop experience for underprepared physics or physical science teachers. Describes a demonstration showing conservation of momentum using an air track, gliders, and a model railway train. Includes a brief introduction to demonstrations of Newton's second law, scattering of laser light, and the effect of a telescope on…
Descriptors: Inservice Teacher Education, Mechanics (Physics), Motion, Optics
Amann, George – AAPT Press (BK), 2005
The key to learning is student involvement! This American Association of Physics Teachers/Physics Teaching Resource Agents (AAPT/PTRA) manual presents examples of two techniques that are proven to increase student involvement in your classroom. Based on the "5E" model of learning, exploratories are designed to get your students excited about the…
Descriptors: Practicums, Thermodynamics, Optics, Teaching Methods

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