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Showing 1 to 15 of 33 results Save | Export
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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
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Gauld, Colin; Cross, Rod – Physics Education, 2021
Newton's cradle is often discussed in science classrooms as a clear example of the laws of conservation of momentum and energy although it has been shown that this use is somewhat misleading. Approaches to understanding the behaviour of this apparatus are often over-simplified and deficient or over-complex and with little impact among teachers. In…
Descriptors: Scientific Principles, Conservation (Concept), Mechanics (Physics), Simulation
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Unyapoti, Trai; Arayathanitkul, Kwan; Emarat, Narumon – Physics Teacher, 2020
Collisions are real-world situations from everyday life (such as car crashes, playing billiards, etc.) that can be described and understood by the principle of conservation of momentum. One might expect that learning from simple collisions might help students understand more complicated physical phenomena. However, from our teaching experiences we…
Descriptors: Physics, Scientific Concepts, Visual Aids, Conservation (Concept)
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Cross, Rod; Gauld, Colin – Physics Education, 2021
Newton's cradle is a well-known physics toy that is commonly used by teachers to demonstrate conservation laws in mechanics. It can also be used to investigate the physics of colliding objects, by recording motion of the balls on video film. Various experiments are described using 3-ball and 5-ball cradles, showing how different types of collision…
Descriptors: Scientific Principles, Conservation (Concept), Mechanics (Physics), Demonstrations (Educational)
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Cross, Rod – Physics Teacher, 2017
In a recent article in this journal, Shakur described an interesting problem where a bullet of mass "m" strikes a block of wood of mass "M" and projects the block upward. The same problem was considered earlier by Cowley et al. and others. The main question of interest is whether the block rises to a greater height if it is…
Descriptors: Science Instruction, Scientific Concepts, Energy, Kinetics
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Kaar, Taylor; Pollack, Linda B.; Lerner, Michael E.; Engels, Robert J. – Physics Teacher, 2017
The use of systems in many introductory courses is limited and often implicit. Modeling two or more objects as a system and tracking the center of mass of that system is usually not included. Thinking in terms of the center of mass facilitates problem solving while exposing the importance of using conservation laws. We present below three…
Descriptors: Physics, Introductory Courses, Scientific Concepts, Problem Solving
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Koger, Susan M.; Scott, Britain A. – Psychology Learning and Teaching, 2016
The behavioral sciences can make vital contributions to environmental sustainability efforts, as relevant basic and applied psychological research has grown considerably over the past dozen years. Recently, conservation biologists, environmental policy makers, and other experts have recognized the importance of engaging with experts on human…
Descriptors: Psychology, Sustainability, Teaching Methods, Relevance (Education)
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Cross, Rod – Physics Teacher, 2012
The first recorded experiments describing the phenomena made popular by Newton's cradle appear to be those conducted by Edme Mariotte around 1670. He was quoted in Newton's "Principia," along with Wren, Wallis, and Huygens, as having conducted pioneering experiments on the collisions of pendulum balls. Each of these authors concluded that momentum…
Descriptors: Physics, Motion, Science Experiments, Conservation (Concept)
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Elsayed, Tarek A. – Physics Teacher, 2012
The phenomenon of recoil is usually explained to students in the context of Newton's third law. Typically, when a projectile is fired, the recoil of the launch mechanism is interpreted as a reaction to the ejection of the smaller projectile. The same phenomenon is also interpreted in the context of the conservation of linear momentum, which is…
Descriptors: Undergraduate Students, Physics, Scientific Concepts, Conservation (Concept)
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Froehle, Peter; Miller, Charles H. – Physics Teacher, 2012
An interesting, quick, and inexpensive lab that we do with our students is to tape one end of a string just less than halfway around the back side of a uniform solid cylinder m[subscript 1] and attach the other end of the string to a mass m[subscript 2] that is below a pulley (Fig. 1). Data can be collected using either an Ultra Pulley (Fig. 2) or…
Descriptors: Energy, Misconceptions, Conservation (Concept), Laboratory Experiments
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Wallington, Timothy J.; Anderson, James E.; Siegel, Donald J.; Tamor, Michael A.; Mueller, Sherry A.; Winkler, Sandra L.; Nielsen, Ole J. – Journal of Chemical Education, 2013
Providing sustainable mobility is a major challenge that will require new vehicle and fuel technologies. Alternative and future fuels are the subject of considerable research and public interest. A simple approach is presented that can be used in science education lectures at the high school or undergraduate level to provide students with an…
Descriptors: Science Instruction, College Science, Undergraduate Study, Scientific Principles
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Klein, James A.; Davis, Richard A. – Chemical Engineering Education, 2011
This paper explores the use of "conservation of life" as a concept and unifying theme for increasing awareness, application, and integration of process safety in chemical engineering education. Students need to think of conservation of mass, conservation of energy, and conservation of life as equally important in engineering design and analysis.…
Descriptors: Conservation (Concept), Safety, Chemical Engineering, Science Instruction
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Jenkins, Alejandro – European Journal of Physics, 2011
Many experimenters, starting with Ernst Mach in 1883, have reported that if a device alternately sucks in and then expels a surrounding fluid, it moves in the same direction as if it only expelled fluid. This surprising phenomenon, which we call "Machian propulsion", is explained by conservation of momentum: the outflow efficiently transfers…
Descriptors: Assistive Technology, Theory Practice Relationship, Experiments, Motion
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Kefaloukos, Mary-Anne; Bobis, Janette – Australian Primary Mathematics Classroom, 2011
This article describes some aspects of Piaget's Theory of Cognitive Development. It highlights the importance of giving young children specific access to explore conservation in measurement, which will give students invaluable experiences in measurement that in years to come will be regarded as their prior knowledge of the concept. This is…
Descriptors: Conservation (Concept), Prior Learning, Misconceptions, Piagetian Theory
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Dial, Katrina; Riddley, Diana; Williams, Kiesha; Sampson, Victor – Science Teacher, 2009
The law of conservation of mass can be counterintuitive for most students because they often think the mass of a substance is related to its physical state. As a result, students may hold a number of alternative conceptions related to this concept, including, for example, the believe that gas has no mass, that solids have greater mass than fluids,…
Descriptors: Conservation (Concept), Misconceptions, Scientific Concepts, Science Instruction
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