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Jensen, Marc – Montessori Life: A Publication of the American Montessori Society, 2020
As children develop an understanding of their place in the universe, their mental model of the solar system should really go beyond a list of planet names and attributes to become a dynamic concept of bodies in motion and interaction. Montessori educators can help build a Sensorial impression of the cosmos by physically modeling the nature of…
Descriptors: Montessori Schools, Montessori Method, Astronomy, Science Education
Kaur, Tejinder; Blair, David; Moschilla, John; Stannard, Warren; Zadnik, Marjan – Physics Education, 2017
The Einstein-First project aims to change the paradigm of school science teaching through the introduction of modern Einsteinian concepts of space and time, gravity and quanta at an early age. These concepts are rarely taught to school students despite their central importance to modern science and technology. The key to implementing the…
Descriptors: Science Instruction, Physics, Scientific Concepts, Logical Thinking
Hancock, James Brian, II; Lee, May – Science Teacher, 2018
Many teachers are confused about how to implement the phenomena-based teaching recommended by the "Next Generation Science Standards" (NGSS Lead States 2013). This article describes one possible approach--purposely repurposing existing activities. This process involves having teachers: (1) Choose a phenomenon that informs the development…
Descriptors: Concept Teaching, Scientific Concepts, Scientific Principles, Teaching Methods
Rovšek, Barbara; Guštin, Andrej – Physics Education, 2018
An astronomy "experiment" composed of three parts is described in the article. Being given necessary data a simple model of inner planets of the solar system is made in the first part with planets' circular orbits using appropriate scale. In the second part revolution of the figurines used as model representations of the planets along…
Descriptors: Motion, Scientific Concepts, Scientific Principles, Science Activities
Rodrigues, Hilário; Panza, Nelson; Portes, Dirceu; Soares, Alexandre – Physics Education, 2014
This paper is essentially about the general form of Newton's second law for variable mass problems. We develop a model for describing the motion of the one-dimensional oscillator with a variable mass within the framework of classroom physics. We present a simple numerical procedure for the solution of the equation of motion of the system to…
Descriptors: Physics, Scientific Principles, Models, Mechanics (Physics)
Hitt, Austin Manning; Townsend, J. Scott – Science Activities: Classroom Projects and Curriculum Ideas, 2015
Elementary, middle-level, and high school science teachers commonly find their students have misconceptions about heat and temperature. Unfortunately, student misconceptions are difficult to modify or change and can prevent students from learning the accurate scientific explanation. In order to improve our students' understanding of heat and…
Descriptors: Science Instruction, Scientific Concepts, Misconceptions, Heat
Gluck, Paul – Physics Teacher, 2010
There have been two articles in this journal that described a pair of collision carts used to demonstrate vividly the difference between elastic and inelastic collisions. One cart had a series of washers that were mounted rigidly on a rigid wooden framework, the other had washers mounted on rubber bands stretched across a framework. The rigidly…
Descriptors: Mechanics (Physics), Energy, Science Instruction, Motion
Schlichting, H. Joachim; Suhr, Wilfried – European Journal of Physics, 2010
We present a physically interesting toy, which is easily constructed and operated--the so-called buzzer. In spite of its simplicity, its physical analysis turns out to be rather complex. Thus, it comes as no surprise that most of its users are not familiar with the underlying physical mechanism. In this paper we propose a physical model which…
Descriptors: Toys, Science Activities, Science Instruction, Physics
Hertting, Scott – Physics Teacher, 2011
In preparing to teach the advanced physics course at my high school, I found it useful to work through the end of chapter problems in the book used by the advanced class. A problem on motion in one dimension involved a stunt woman in free fall from a tree limb onto a horse running beneath her. The problem presents a connected learning opportunity…
Descriptors: Physics, Motion, Scientific Concepts, Models
Wee, Loo Kang – Physics Education, 2012
We develop an Easy Java Simulation (EJS) model for students to experience the physics of idealized one-dimensional collision carts. The physics model is described and simulated by both continuous dynamics and discrete transition during collision. In designing the simulations, we discuss briefly three pedagogical considerations namely (1) a…
Descriptors: Physics, College Science, Experiential Learning, Feedback (Response)
Williams, Buford L. – Sci Teacher, 1970
Descriptors: Demonstrations (Educational), Engines, Force, Instruction

Kagan, David; And Others – Physics Teacher, 1995
Provides instructions for the construction and launch of a two-liter plastic soda-bottle rocket and presents the author's theory of their motion during launch. Modeled predictions are compared with actual experimental data. Explains theory behind the motion of a water rocket during launch. (LZ)
Descriptors: Elementary Secondary Education, Models, Motion, Physics

Domenech, A.; Casasus, E. – Physics Education, 1991
A model of the inelastic collision between two spheres rolling along a horizontal track is presented, taking into account the effects of frictional forces at impact. This experiment makes possible direct estimates of the coefficients of restitution and friction. (Author)
Descriptors: Calculus, Higher Education, Mechanics (Physics), Models

Coutis, Peter – International Journal of Mathematical Education in Science and Technology, 1998
Presents the equations of motion governing the trajectory of a cricket ball subject to a linear drag force. Uses a perturbation expansion technique to solve the resulting trajectory equation for the range of a cricket ball struck into the outfield. (Author/ASK)
Descriptors: Mathematical Applications, Mechanics (Physics), Models, Motion
Carraher, Charles E., Jr. – J Chem Educ, 1970
Descriptors: Chemical Bonding, Chemistry, College Science, Energy
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