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dos Santos, Paulo José Sena; dos Santos, Toni Fernando Mendes – Physics Education, 2021
Many researches show that students have difficulties in understanding graphics in kinematics. Some authors argue that we can use different instructional strategies to reduce these difficulties. Based on these studies, we developed and applied a didactic sequence using educational robotics to teach graphic analysis in movements in a dimension with…
Descriptors: Teaching Methods, Physics, Science Education, Graphs
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Pendrill, Ann-Marie – Physics Education, 2021
This paper presents preparations, execution and reflection on results for the physics part of a CSI task for the European Union Science Olympiad 2010, taking place at the University of Gothenburg. The participants were required to make a graph of the cooling of a swede ("Brassica napus"), as a proxy for the cooling of a murder victim,…
Descriptors: Physics, Science Instruction, Universities, Graphs
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Dilek, Ufuk; Erol, Mustafa – Physics Education, 2018
ARKit is a framework which allows developers to create augmented reality apps for the iPhone and iPad. In a previous study, we had shown that it could be used to detect position in educational physics experiments and emphasized that the ability to provide position data in real-time was one of the prominent features of this newly emerging…
Descriptors: Graphs, Physics, Science Experiments, Computer Graphics
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Atkin, Keith – Physics Education, 2019
This paper was inspired by the work of a previous contributor on the subject of modelling plague epidemiology by comparing it to the physics of series radioactive decay, RC transients, and fluid dynamics. An Arduino-based experiment to illustrate the fluid-dynamical case is described. Attention is drawn to important differences between systems…
Descriptors: Epidemiology, Comparative Analysis, Physics, Radiation
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Zetie, K. P. – Physics Education, 2018
Any teacher of physics is likely to consider super-curricular reading as an important strategy for successful students. However, there are many more ways to extend a student's interest in a subject than reading books, and undirected reading (such as providing a long out of date reading list) is not likely to be as helpful as targeted or directed…
Descriptors: Physics, Student Interests, Science Instruction, Foreign Countries
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Tairab, Hassan; Al Arabi, Khaleel; Rabbani, Lutfieh; Hamad, Sara – Physics Education, 2020
Studies on student learning of scientific concepts have shown that students often experience various difficulties in understanding basic physics concepts such as vector quantities, as a result of formal and informal learning. The purpose of the present study is to document Grade 11 students' difficulties in understanding vectors and their…
Descriptors: Grade 11, High School Students, Physics, Scientific Concepts
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Wee, Loo Kang; Lee, Tat Leong; Chew, Charles; Wong, Darren; Tan, Samuel – Physics Education, 2015
This paper reports a computer model simulation created using Easy Java Simulation (EJS) for learners to visualize how the steady-state amplitude of a driven oscillating system varies with the frequency of the periodic driving force. The simulation shows (N = 100) identical spring-mass systems being subjected to (1) a periodic driving force of…
Descriptors: Foreign Countries, Computer Simulation, Physics, Motion
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Savinainen, A.; Nieminen, P.; Makynen, A.; Viiri, J. – Physics Education, 2013
In this paper, we present materials and teaching ideas utilizing multiple representations in the contexts of kinematics and the force concept. These ideas and materials are substantiated by evidence and can be readily used in teaching with no special training. In addition, we briefly discuss two multiple-choice tests based on physics education…
Descriptors: Mechanics (Physics), Kinetics, Motion, Science Instruction
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Harrison, Mark – Physics Education, 2013
The maximum power theorem is a useful extension to work on EMF and internal resistance at school level. Furthermore, a very simple physical collision model can be used to show equivalent mathematical patterns to those found with the maximum power theorem and to emphasize fundamental links to ideas of impedance matching. (Contains 2 tables and 6…
Descriptors: Science Instruction, Physics, Mathematics, Teaching Methods
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Barton, Roy – Physics Education, 1998
Argues that the only reason to ask students to plot graphs manually should be to have them learn the skill of plotting graphs manually. For data-analysis purposes, the use of computer-generated graphs has several advantages and few disadvantages over manual plotting. (Author/WRM)
Descriptors: Data Analysis, Foreign Countries, Graphs, Mathematical Applications
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Fricker, H. S. – Physics Education, 1987
Discusses the uses of thermistors in teaching electronics and semiconductors. Describes how to experimentally measure and graph the characteristics of a thermistor. Suggests one possible approach to understand the shapes of the characteristics. (CW)
Descriptors: Electronics, Foreign Countries, Graphs, High Schools
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Adie, G. – Physics Education, 1998
Explains how the graphing calculator can be used in simulations of physics experiments and how its use for plotting graphs requires a shift in emphasis from obtaining an experimental result to evaluating that result. (DDR)
Descriptors: Computer Simulation, Computer Uses in Education, Data Analysis, Foreign Countries
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Trumper, Ricardo; Gelbman, Moshe – Physics Education, 1997
Presents examples of experiments designed for high school students with the help of a microcomputer-based laboratory called Explorer. Argues that these tools enable students to investigate many principles of physics that were not feasible in the past. (DDR)
Descriptors: Calculus, Computer Interfaces, Computer Uses in Education, Data Collection