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What Works Clearinghouse Rating
Peer reviewedKincanon, Eric – Physics Teacher, 1990
Demonstrates what theoretical physicists make a rule using juggling. Provides the thinking process and calculating procedure. (YP)
Descriptors: College Science, Higher Education, Mechanics (Physics), Motion
Peer reviewedMedhekar, Sarang – Physics Education, 1991
Using a physical picture, an expression for the maximum possible transverse velocity and orientation required for that by a linear emitter in special theory of relativity has been derived. A differential calculus method is also used to derive the expression. (Author/KR)
Descriptors: Calculus, Computation, Higher Education, Motion
Peer reviewedBrown, Helen; Meyers, Bernice; Schmidt, William – Hoosier Science Teacher, 1999
Marbles were successfully used to help primary students develop concepts of motion. Marble-unit activities began with shaking and rattling inference bags and predicting by listening just how many marbles were in each bag. Students made qualitative and quantitative observations of the marbles, manipulated marbles with a partner, and observed…
Descriptors: Concept Teaching, Elementary Education, Energy, Motion
Peer reviewedMendoza, Eric – School Science Review, 1975
Descriptors: Calculators, College Science, Higher Education, Instruction
Peer reviewedMcKeough, William J. – School Science and Mathematics, 1970
Describes an instructional method in secondary school mathematics applicable to physics instruction, to develop conceptual understanding of motion word problems. Distance, rate, and time are defined, used as variables and considered with relative motion as a unifying concept. (JM)
Descriptors: Algebra, Instruction, Mathematical Applications, Mathematical Concepts
Peer reviewedKorsunsky, Boris – Physics Teacher, 1995
Presents a few examples of not-so-traditional problems that can be very helpful in teaching some particular concepts or approaches in physics. Problem sets include vector addition and vector components, reference frames, and choosing the right approximations. (JRH)
Descriptors: Acceleration (Physics), Mechanics (Physics), Motion, Physics
Peer reviewedMarek, Lee – Science Activities, 1991
Activities in which students determine the half-life of a substance using M&Ms, solve a crime using chromatography, and calculate the speed of a toy car are presented. The activities include the topic, an introduction, the time needed, a list of materials, safety precautions, procedure, analysis questions, and teacher's notes. (KR)
Descriptors: Chromatography, Elementary Education, Motion, Physical Sciences
Groetsch, C. W. – PRIMUS, 2005
An aspect of the long history of the struggle to quantify motion is briefly traced through three extended problem sets suitable for use in first year calculus courses. The sketch culminates with an application of simple mathematics to one of the most current problems in the theory of the universe. (Contains 2 figures.)
Descriptors: Problem Sets, Calculus, Motion, College Mathematics
Lewis, Jerome – Mathematics and Computer Education, 2005
In this paper, the author looks at some classic problems in mathematics that involve motion in the plane. Many case problems like these are difficult and beyond the mathematical skills of most undergraduates, but computational approaches often require less insight into the subtleties of the problems and can be used to obtain reliable solutions.…
Descriptors: Motion, Problem Solving, Prediction, Undergraduate Students
Schwartz, Daniel L.; Black, John B. – 1990
This study investigated how people reason about simple mechanical devices and physical systems, and how reasoning methods and understanding of a device evolve over a period of exposure. Twelve students attending the Teachers College at Columbia University (New York) participated in the first of two experiments; and 10 students attending the same…
Descriptors: Cognitive Processes, College Students, Higher Education, Induction
Peer reviewedFendley, J. – Physics Education, 1978
Describes the differential equation solution to the mechanics problem of the motion of a free mass subject to a harmonic force which can also be illustrated by a simple analogue computer. (SL)
Descriptors: Computers, Instruction, Mathematical Applications, Mechanics (Physics)
Kandel, Eric R. – Scientific American, 1979
Small systems of neurons are discussed as they relate to studies of simple animals and the generating of behavior from interacting systems. (SA)
Descriptors: Animal Behavior, Behavior Patterns, Biology, Human Body
Peer reviewedWade, Bob – Physics Teacher, 1994
Provides six problems to help students understand new concepts of force using situations they already understand concerning velocity, acceleration, and momentum. (MVL)
Descriptors: Acceleration (Physics), Force, Mechanics (Physics), Motion
Peer reviewedKondratyev, Alexander S.; Sperry, Willard – Physics Teacher, 1994
Provides a method of solving vector and force problems that is less complicated for the learner. Gives several examples concerning projectiles and inclined planes. (MVL)
Descriptors: Force, Higher Education, Mechanics (Physics), Motion
Peer reviewedStowe, Lawrence G. – Physics Teacher, 1995
Describes the graphing calculator as a new graphical approach to standard physics problems. Presents a collision problem to illustrate its use. (JRH)
Descriptors: Energy, Graphing Calculators, Kinetics, Motion

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