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Pastore, A.; Romero, A. M.; Diget, C.; Rios, A.; Leech, K.; Stokoe, P. – Physics Education, 2021
We present a simple activity based on the liquid-drop model which allows secondary school students to explore the uses of mathematical models and gain an intuitive understanding of the concept of binding energy, and in particular the significance of positive binding energy. Using spreadsheets provided as supplementary material, students can…
Descriptors: Science Instruction, Energy, Computer Uses in Education, Teaching Methods
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)
Heck, Andre; Uylings, Peter; Kedzierska, Ewa – Physics Education, 2010
Changing mass phenomena like the motion of a falling chain, the behaviour of a falling elastic bar or spring, and the motion of a bungee jumper surprise many a physicist. In this article we discuss the first phase of bungee jumping, when the bungee jumper falls, but the bungee rope is still slack. In instructional material this phase is often…
Descriptors: Physics, Motion, Secondary School Science, Scientific Principles
Kibble, Bob – Physics Education, 2009
School physics rarely stands still for long. Environmental physics is now an option in some post-16 courses in England. The physics of environments, and in particular the built environment, offers a recognizable context in which to see the applications of physics at work. This article considers how a model doll's house might be used to help…
Descriptors: Citizenship Responsibility, Energy Management, Physics, Toys
Robinson, A. W.; Patrick, C. G. – Physics Education, 2008
We present a case study of the physical principles necessary to model the high altitude parachute jump made by Colonel Joseph Kittinger, USAF, in 1960, in order to determine the maximum speed attained and to calculate whether this speed was sufficient to exceed the speed of sound at that altitude. There is considerable discrepancy in the value of…
Descriptors: Mathematical Models, Visual Aids, Physics, Case Studies
Shallcross, Dudley E.; Harrison, Tim G. – Physics Education, 2007
The newly revised specifications for GCSE science involve greater consideration of climate change. This topic appears in either the chemistry or biology section, depending on the examination board, and is a good example of "How Science Works." It is therefore timely that students are given an opportunity to conduct some simple climate modelling.…
Descriptors: Climate, Prediction, Models, Chemistry

Zetie, K. P. – Physics Education, 2001
Shows how some of the simple ideas in complexity can be investigated using a spreadsheet and a macro written in Visual Basic. Shows how the sandpile model of Bak, Chao, and Wiesenfeld can be simulated and animated. The model produces results that cannot easily be predicted from its properties. (Author/MM)
Descriptors: Computer Simulation, Computer Uses in Education, Higher Education, Models

Smith, W. – Physics Education, 1987
Proposes a mathematical computer model for the behavior of liquids using the classical dynamic principles of Sir Isaac Newton and the molecular dynamics method invented by other scientists. Concludes that other applications will be successful using supercomputers to go beyond simple Newtonian physics. (CW)
Descriptors: College Mathematics, College Science, Computer Uses in Education, Fluid Mechanics

Lovett, David; Hore, Kevin – Physics Education, 1991
The model for color vision put forward by Edwin Land is explained. The aspects of the theory that can be demonstrated within the classroom are described. A random arrangement of straight-edged colored areas mounted on a screen, called a Mondrian, projectors, and a computer are used to calculate reflectance. (KR)
Descriptors: Color, Computer Uses in Education, Eyes, Human Body

Silva, A. Alberto – Physics Education, 1998
Addresses some basic aspects of Archimedes' law. Focus is on potential energy relationships so as to elucidate some common misunderstandings and to facilitate making bridges with other physical topics. A spreadsheet model is used as a simulation tool. (Author/NB)
Descriptors: Computer Assisted Instruction, Computer Uses in Education, Energy Education, Higher Education

Bridge, N. James – Physics Education, 1998
Reviews a simple theory that describes the bounce of an air-filled ball and predicts that the contact time should be independent of the speed of impact. Presents experimental results that disagree with the theory and an alternative model that agrees with experimental results. (DDR)
Descriptors: Computer Uses in Education, Concept Formation, Data Collection, Demonstrations (Science)

Ogborn, Jon – Physics Education, 1987
Provides an overview of the programing language PROLOG and highlights its educational uses. Explains how PROLOG serves as a model of representing commonsense understandings of motion. Identifies problem areas and proposes future tasks with the program. (ML)
Descriptors: Computer Science Education, Computer Uses in Education, Educational Technology, Models