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Wong, Kin Son; Wong, Hang – Physics Teacher, 2022
The law of conservation of momentum is a fundamental law of nature. It states that the momentum of an isolated system is conserved. In high school or introductory-level physics courses, for simplicity, teachers and textbooks always use collisions in one dimension as the examples to introduce the concept of conservation of momentum. To solve simple…
Descriptors: Scientific Principles, Kinetics, Motion, Scientific Concepts
Geske, Matthew – Physics Teacher, 2019
Many introductory physics courses begin with the teaching of motion and kinematics. This naturally leads to the use of constant acceleration equations to solve various problems involving common motions (free fall being a notable example). Students can sometimes get the impression that these equations are the only thing they need to remember in…
Descriptors: Physics, Science Instruction, Scientific Concepts, Introductory Courses
Sztrajman, Jorge; Sztrajman, Alejandro – Physics Teacher, 2017
The aim of this paper is to propose a method for solving head-on elastic collisions, without algebraic complications, to emphasize the use of the fundamental conservations laws. Head-on elastic collisions are treated in many physics textbooks as examples of conservation of momentum and kinetic energy.
Descriptors: Kinetics, Motion, Physics, Teaching Methods
Ng, Chiu-king – Physics Education, 2016
Instead of solving ordinary differential equations (ODEs), the damped simple harmonic motion (SHM) is surveyed qualitatively from basic mechanics and quantitatively by the instrumentality of a graph of velocity against displacement. In this way, the condition b ? [square root]4mk for the occurrence of the non-oscillating critical damping and…
Descriptors: Problem Solving, Calculus, Motion, Qualitative Research
Janssen, Paul; Janssens, Ewald – Physics Teacher, 2015
To familiarize first-year students with the important ingredients of a physics experiment, we offer them a project close to their daily life: measuring the effect of air resistance on a bicycle. Experiments are done with a bicycle freewheeling on a downhill slope. The data are compared with equations of motions corresponding to different models…
Descriptors: Physics, Science Experiments, College Freshmen, Motion
Gates, Joshua – Physics Teacher, 2014
Newton's second law is one of the cornerstones of the introductory physics curriculum, but it can still trouble a large number of students well after its introduction, hobbling their ability to apply the concept to problem solving and to related concepts, such as momentum, circular motion, and orbits. While there are several possibilities for…
Descriptors: Science Experiments, Scientific Principles, Scientific Concepts, Science Education
Jewett, John W., Jr. – Physics Teacher, 2008
Energy is a critical concept in physics problem-solving, but is often a major source of confusion for students if the presentation is not carefully crafted by the instructor or the textbook. A common approach to problems involving deformable or rotating systems that has been discussed in the literature is to employ the work-kinetic energy theorem…
Descriptors: Kinetics, Energy, Problem Solving, Motion
Gauthier, N. – International Journal of Mathematical Education in Science and Technology, 2005
The equation of motion for a mass that moves under the influence of a central, inverse-square force is formulated and solved as a problem in complex variables. To find the solution, the constancy of angular momentum is first established using complex variables. Next, the complex position coordinate and complex velocity of the particle are assumed…
Descriptors: Motion, Scientific Concepts, Kinetics, Mechanics (Physics)

Morrison, Howard L. – Physics Teacher, 1972
Descriptors: Force, Instructional Materials, Kinetics, Motion

Woodsum, Harvey C.; Brownstein, K. R. – American Journal of Physics, 1977
Defines and investigates a moment of inertia tensor for a quantum mechanical wave packet. (SL)
Descriptors: College Science, Higher Education, Kinetics, Mechanics (Physics)

Winans, J. Gibson – Physics Teacher, 1971
Descriptors: College Science, Graphs, Instructional Materials, Kinetics

Stowe, 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

Gonzalez, Alejandro D. – Physics Teacher, 1991
Uses the problem of determining when a car and truck traveling at the same speed will collide after the truck has applied its brakes to illustrate the need to consider boundary conditions when solving problems in elementary mechanics. (MDH)
Descriptors: Acceleration (Physics), High Schools, Kinetics, Mathematical Applications

Brown, Ronald A. – Physics Teacher, 1992
Discusses solutions to the problem of maximizing the range of a projectile. Presents three references that solve the problem with and without the use of calculus. Offers a fourth solution suitable for introductory physics courses that relies more on trigonometry and the geometry of the problem. (MDH)
Descriptors: High Schools, Higher Education, Kinetics, Mathematical Formulas

Larson, Lee; Grant, Roderick – Physics Teacher, 1991
Presents an experiment to investigate centripetal force and acceleration that utilizes an airplane suspended on a string from a spring balance. Investigates the possibility that lift on the wings of the airplane accounts for the differences between calculated tension and measured tension on the string. (MDH)
Descriptors: Acceleration (Physics), Air Flow, Force, High Schools
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