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Le Noxaïc, Armand; Fadel, Kamil – Physics Teacher, 2022
The statics of fluids may seem simple at first but often poses problems for students when it comes to applying it to concrete cases. Despite its relatively simple laws, some subtleties, mainly related to the elastic characteristics of a fluid, must be noted. This elasticity allows the pressure exerted in a part of the fluid to propagate in its…
Descriptors: Mechanics (Physics), Scientific Concepts, Scientific Principles, Water
Artukovic, Ranko Martin; Marušic, Mirko – Physics Teacher, 2021
Although the old problem of rotating liquid is described and solved in many textbooks and articles, the story still remains interesting. Intuitive understanding of the equipotential spatial surfaces is very difficult. This article is an attempt to present Newton's rotating tank in the light of the law of conservation of energy.
Descriptors: Water, Conservation (Concept), Energy, Scientific Principles
Hull, Michael M.; Nakayama, Shizuka; Tosa, Sachiko – Physics Teacher, 2023
Newton's laws are a ubiquitous topic in introductory physics instruction. One common problem involves asking what will happen if you stick your finger into a cup of water sitting on a scale. A way to solve the problem would be to first recognize that the water exerts a buoyant force upward on the finger, which students can recognize as being the…
Descriptors: Science Instruction, Physics, Scientific Principles, Concept Formation
Koumaras, Panagiotis; Primerakis, Georgios – Physics Teacher, 2018
One of the most popular demonstration experiments pertaining to Bernoulli's principle is the production of a water spray by using a vertical plastic straw immersed in a glass of water and a horizontal straw to blow air towards the top edge of the vertical one. A more general version of this phenomenon, appearing also in school physics problems, is…
Descriptors: Science Instruction, Science Experiments, Water, Physics
Fuster, Gonzalo; Rojas, Roberto; Slüsarenko, Viktor – Physics Teacher, 2016
We have observed a nice example of chromatic dispersion due to refraction in water, in the form of color fringes bordering the black stripes that exist at the bottom of a swimming pool. Here we give a qualitative description of the phenomenon, explaining the role of the black stripes and the dispersive index of refraction of water.
Descriptors: Color, Qualitative Research, Water, Scientific Concepts
Lopac, Vjera – Physics Teacher, 2015
Observation of the water jets flowing from three equidistant holes on the side of a vertical cylindrical bottle is an interesting and widely used didactical experiment illustrating the laws of fluids in motion. In this paper we analyze theoretically and numerically the ranges of the stationary water jets flowing from various rotationally symmetric…
Descriptors: Science Instruction, Physics, Water, Scientific Principles
Rohr, Tyler; Rohr, Jim – Physics Teacher, 2015
Previously appearing in this journal were photographs of a physics apparatus, developed circa 1880, that was believed to be used to demonstrate the "Bernoulli effect." Drawings of these photographs appear here and show that when there is no flow, the water level h[subscript PT2] in the piezometer tube at location (2) is at the same level…
Descriptors: Science Instruction, Physics, Scientific Principles, Scientific Concepts
Vollmer, Michael; Mollmann, Klaus-Peter – Physics Teacher, 2013
In nature, water drops can have a large variety of sizes and shapes. Small droplets with diameters of the order of 5 to 10 µm are present in fog and clouds. This is not sufficiently large for gravity to dominate their behavior. In contrast, raindrops typically have sizes of the order of 1 mm, with observed maximum sizes in nature of around 5 mm in…
Descriptors: Science Instruction, Water, Science Experiments, Physics
Greenslade, Thomas B., Jr. – Physics Teacher, 2014
Almost everyone "knows" that steam is visible. After all, one can see the cloud of white issuing from the spout of a boiling tea kettle. In reality, steam is the gaseous phase of water and is invisible. What you see is light scattered from the tiny droplets of water that are the result of the condensation of the steam as its temperature…
Descriptors: Science Instruction, Physics, High Schools, Secondary School Science
Agrawal, D. C. – Physics Teacher, 2013
The atmospheric recycling of water is a very important phenomenon on the globe because it not only refreshes the water but it also redistributes it over land and oceans/rivers/lakes throughout the globe. This is made possible by the solar energy intercepted by the Earth. The half of the globe facing the Sun, on the average, intercepts 1.74 ×…
Descriptors: Weather, Water, Climate, Energy
Shakerin, Said – Physics Teacher, 2013
The ordinary 12-oz beverage cans in the figures below are not held up with any props or glue. The bottom of such cans is stepped at its circumference for better stacking. When this kind of can is tilted, as shown in Fig. 1, the outside corners of the step touch the surface beneath, providing an effective contact about 1 cm wide. Because the…
Descriptors: Science Instruction, Physics, Water, Animation
Chen, Zijun; Dahlberg, E. Dan – Physics Teacher, 2011
After the discovery that superconducting magnets could levitate diamagnetic objects, researchers became interested in measuring the repulsion of diamagnetic fluids in strong magnetic fields, which was given the name "The Moses Effect." Both for the levitation experiments and the quantitative studies on liquids, the large magnetic fields necessary…
Descriptors: Physics, Science Instruction, Water, Magnets
Mohazzabi, Pirooz – Physics Teacher, 2010
When an object is immersed in a liquid and released, it may sink to the bottom or rise to the surface and float. If the object's density is greater than that of the liquid, it sinks. If the object's density is less than the density of the liquid, it floats. In the special case when the object's density matches the density of the liquid, it will…
Descriptors: Science Instruction, College Science, Water, Scientific Principles
Mohazzabi, Pirooz – Physics Teacher, 2010
One of the popular demonstrations of atmospheric pressure in introductory physics courses is the "crushing can" or "imploding can" experiment. In this demonstration, which has also been extensively discussed on the Internet, a small amount of water is placed in a soda can and heated until it boils and water vapor almost entirely fills the can. The…
Descriptors: Physics, Science Instruction, Scientific Principles, Water
Sommer, Wilfried; Meier-Boke, Ralf; Meinzer, Nicholas – Physics Teacher, 2010
The hydromonochord is a horizontal vibrating string that just makes contact with the surface of a water bath. The motion of the string sets up a pattern of swirls on the surface of the water, thus complementing the usual pattern of nodes and antinodes. The device is based on the traditional monochord. A water basin (Fig. 1) has two slits in the…
Descriptors: Science Instruction, Scientific Principles, Water, Motion
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