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Showing 91 to 105 of 281 results Save | Export
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Damonte, Kathleen – Science and Children, 2004
One thing scientists study is how objects move. A famous scientist named Sir Isaac Newton (1642-1727) spent a lot of time observing objects in motion and came up with three laws that describe how things move. This explanation only deals with the first of his three laws of motion. Newton's First Law of Motion says that moving objects will continue…
Descriptors: Motion, Physics, Science Instruction, Teaching Methods
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Neumann, Richard M. – American Journal of Physics, 1980
Derives an expression for the orientational entropy of a rigid rod (electric dipole) from Boltzmann's equation. Subsequent application of Newton's second law of motion produces Debye's classical expression for the relaxation of an electric dipole in a viscous medium. (Author/GS)
Descriptors: College Science, Electricity, Force Field Analysis, Higher Education
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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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Pleasants, Jacob – Science Teacher, 2018
In classroom science laboratories, unlike a real science laboratory, the teacher can guide students away from potential dead ends and toward data that are most likely to result in accurate conclusions. Sometimes, though, allowing students to pursue dead ends and to collect "bad" data can provide especially rich learning opportunities.…
Descriptors: Science Instruction, Science Experiments, Science Laboratories, Laboratory Experiments
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Baird, Dean – Physics Teacher, 1996
Presents demonstrations that use a blowgun to illustrate scientific concepts relating to acceleration, projectile motion, Newton's Laws, and work and kinetic energy. (JRH)
Descriptors: Acceleration (Physics), Demonstrations (Science), Energy, Mechanics (Physics)
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Rodrigues, H.; dos Santos, A. C.; Soares, A. – Physics Education, 2020
In this article, physical quantities related to the motion of a parachute system in the framework of Newton's law of mechanics guide an informal approach to the mathematical concept of function. Furthermore, a graphical simulator that enables visualization of the fall of object-parachutes system is presented. The article is aimed at students and…
Descriptors: Science Instruction, Physics, Equipment, Scientific Principles
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Maloney, David P. – Physics Education, 1984
Describes an approach to assessing the use of rules in solving problems related to Newton's third law of motion. Discusses the problems used, method of questioning, scoring of problem sets, and a general overview of the use of the technique in aiding the teacher in dealing with student's conceptual levels. (JM)
Descriptors: Acceleration (Physics), Cognitive Measurement, Cognitive Processes, College Science
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Hughes, Bill; Mona, Lynn; Wilson, Greg; McAninch, Steve; Seamans, Jeff; Stout, Heather – Technology and Engineering Teacher, 2017
Science, Technology, Engineering, and Math (STEM) have developed broad prevalence in the American (U.S.) education system over the last decade. Academic, government, and business experts emphasize that attracting K-12-university students to STEM subject matter is crucial for expanding the innovation capacity of the U.S. and preparing citizens for…
Descriptors: STEM Education, Motion, Scientific Concepts, Physics
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Esler, William K.; Sanford, Daniel – Science Teacher, 1989
Water rockets are used to present Newton's three laws of motion to high school physics students. Described is an outdoor activity which uses four students per group. Provides a launch data sheet to record height, angle of elevation, amount of water used, and launch number. (MVL)
Descriptors: Instructional Materials, Mathematical Applications, Mechanics (Physics), Motion
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Farr, John E. – Physics Teacher, 1983
Students' cars and wristwatches are used as "apparatus" to introduce and demonstrate Newton's second law of motion. Forces acting on cars are discussed and typical student data (for different makes of cars) are provided. Data could also be used in discussions of work, horsepower, efficiency, and energy cost. (JN)
Descriptors: College Science, Force, High Schools, Higher Education
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Riveros, Héctor G. – European Journal of Physics Education, 2020
Electric charges and magnetic poles are often confused in the minds of students. It is convenient to remind them that they only interact when they are in relative motion. The force F on a charged particle q moving with velocity V in a magnetic field B is given by F = qVxB. By Newton's Third Law, the force on magnet producing the field B is equal…
Descriptors: Science Instruction, Scientific Concepts, Energy, Magnets
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Marchewka, Avi – Physics Education, 2021
In order to describe the velocity of two bodies after they collide, Newton developed a phenomenological equation known as 'Newton's experimental law' (NEL). In this way, he was able to practically bypass the complication involving the details of the force that occurs during the collision of the two bodies. Today, we use NEL together with momentum…
Descriptors: Physics, Scientific Principles, Scientific Concepts, Energy
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Pendrill, Ann-Marie; Eriksson, Moa; Eriksson, Urban; Svensson, Kim; Ouattara, Lassana – Physics Education, 2019
Describing the motion in a vertical roller coaster loop requires a good understanding of Newton's laws, vectors and energy transformation. This paper describes how first-year students try to make sense of force and acceleration in this example of non-uniform circular motion, which was part of a written exam. In addition to an analysis of the exam…
Descriptors: Motion, Science Instruction, College Freshmen, Physics
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Inman, Duane – Science Scope, 1997
Describes an activity that teaches a number of scientific concepts including indirect measurement, Newton's third law of motion, manipulating and controlling variables, and the scientific method of inquiry. Uses process skills such as observation, inference, prediction, mensuration, and communication as well as problem solving and higher-order…
Descriptors: Inquiry, Intermediate Grades, Junior High Schools, Measurement
Williams, G. J. – 1972
These four units of the Learning Activity Packages (LAPs) for individualized instruction in physical science cover nuclear reactions, alpha and beta particles, atomic radiation, medical use of nuclear energy, fission, fusion, simple machines, Newton's laws of motion, electricity, currents, electromagnetism, Oersted's experiment, sound, light,…
Descriptors: Behavioral Objectives, Curriculum, Individualized Instruction, Instructional Materials
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