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Showing 1 to 15 of 31 results Save | Export
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Rivera-Ortega, Uriel – Physics Education, 2021
A Science, Technology, Engineering and Mathematics (STEM) tool is proposed in this manuscript; which consists of an interactive, simple and low-cost computer based simulation and game, with the aim of easing the teaching/learning process regarding the physics concept of projectile motion. The novelty of this proposal relies on the use of a…
Descriptors: Physics, Science Instruction, Computer Software, Graduate Students
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Dumar, John – Physics Teacher, 2021
When our school implemented AP Physics 1, I wanted to include a project that would extend over time, use more advanced data analysis, and teach students about handling experimental error. Using a donated 5-inch Newtonian telescope and an entry-level digital camera, the students gathered data from digital images of the four Galilean moons, Io,…
Descriptors: Science Instruction, Physics, Advanced Placement Programs, Laboratory Equipment
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Çoban, A.; Erol, M. – Physics Education, 2019
This work reports a rudimentary approach to teach and measure the kinetic friction coefficient using a smartphone that can effectively be employed for teaching purposes. More specifically, the kinetic friction coefficient, which is rather difficult to teach and measure, between various surfaces was determined by two different approaches using the…
Descriptors: Kinetics, Physics, Motion, Science Instruction
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Bodegom, Erik; Jensen, Erik; Sokoloff, David – Physics Teacher, 2019
The IOLab is a versatile and inexpensive data acquisition device in a cart that can roll on its three wheels. It has numerous sensors for a variety of physical quantities. We adapted "RealTime Physics, Module 1: Mechanics" active learning labs for use with the IOLab. We tested these labs both on campus and with distance learners at…
Descriptors: Physics, Science Instruction, Teaching Methods, Distance Education
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Nuryantini, Ade Yeti; Sawitri, Asti; Nuryadin, Bebeh Wahid – Physics Education, 2018
This study demonstrated that the constant average speed of a dynamic car could be measured and calculated using the smartphone magnetometer. The apparatus setup was built using a dynamic car, a linear track up to 1.50 m, a bunch of magnets, and a smartphone magnetometer application. The smartphone magnetometer application, 'Physics Toolbox Suite',…
Descriptors: Physics, Science Instruction, Teaching Methods, Motion
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Wattanayotin, Phattara; Puttharugsa, Chokchai; Khemmani, Supitch – Physics Education, 2017
This study used a smartphone's digital compass to observe the rolling motion of a hollow cylinder on an inclined plane. The smartphone (an iPhone 4s) was attached to the end of one side of a hollow cylinder to record the experimental data using the SensorLog application. In the experiment, the change of angular position was measured by the…
Descriptors: Telecommunications, Physics, Science Instruction, Motion
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Erol, M.; Çolak, I. Ö. – Physics Education, 2018
This paper reports a simple magnetically driven oscillator, designed and resolved in order to achieve a better student understanding and to overcome certain instructional difficulties. The apparatus is mainly comprised of an ordinary spring pendulum with a neodymium magnet attached to the bottom, a coil placed in the same vertical direction, an…
Descriptors: Physics, Science Education, Scientific Concepts, Magnets
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Stoeckel, Marta R. – Science Teacher, 2018
Along-standing energy lab involves dropping bouncy balls and measuring their rebound heights on successive bounces. The lab demonstrates a situation in which the mechanical energy of a system is not conserved. Although students enjoyed the lab, the author wanted to deepen their thinking about energy, including the connections to motion, with a new…
Descriptors: Energy, Science Instruction, Scientific Concepts, Misconceptions
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de Obaldia, Elida; Miller, Norma; Wittel, Fred; Jaimison, George; Wallis, Kendra – Physics Teacher, 2016
Some misconceptions about physics are hard to change. For example, students continue to believe that heavier objects fall faster than light ones, even after a year of physics instruction. Physics misconceptions are persistent. Light objects do fall more slowly if their size-to-weight ratio is sufficient for drag to be appreciable. Motion through a…
Descriptors: Science Instruction, Scientific Concepts, Concept Formation, Physics
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Fuson, Michael M. – Journal of Chemical Education, 2017
Laboratories studying the anisotropic rotational diffusion of bromobenzene using nuclear spin relaxation and molecular dynamics simulations are described. For many undergraduates, visualizing molecular motion is challenging. Undergraduates rarely encounter laboratories that directly assess molecular motion, and so the concept remains an…
Descriptors: College Science, Undergraduate Study, Chemistry, Science Instruction
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Rizik, Nadya; Taylor, Subhashni; Taylor, Neil; Sharma, Manjula – Teaching Science, 2018
Energy is one of the most complex yet central concepts taught in schools and is featured in the Australian Science Curriculum, as one of the six key organising ideas (Australian Curriculum, Assessment and Reporting Authority (ACARA), 2015). The literature portrays a multitude of complications associated with teaching energy (see Millar, 2005 for a…
Descriptors: Foreign Countries, Energy, Science Instruction, Scientific Concepts
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Musik, Panjit – Turkish Online Journal of Educational Technology - TOJET, 2017
The development of computer-based experiment set has become necessary in teaching physics in schools so that students can learn from their real experiences. The purpose of this study is to create and to develop the computer-based experiment set on simple harmonic motion of mass on springs for teaching and learning physics. The average period of…
Descriptors: Science Experiments, Physics, Scientific Concepts, Motion
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Saviz, Camilla M.; Shakerin, Said – Physics Teacher, 2014
Many students have owned or seen fluids toys in which two immiscible fluids within a closed container can be tilted to generate waves. These types of inexpensive and readily available toys are fun to play with, but they are also useful for provoking student learning about fluid properties or complex fluid behavior, including drop formation and…
Descriptors: Science Instruction, Teaching Methods, Toys, Mechanics (Physics)
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Shakur, Asif; Sinatra, Taylor – Physics Teacher, 2013
The gyroscope in a smartphone was employed in a physics laboratory setting to verify the conservation of angular momentum and the nonconservation of rotational kinetic energy. As is well-known, smartphones are ubiquitous on college campuses. These devices have a panoply of built-in sensors. This creates a unique opportunity for a new paradigm in…
Descriptors: Science Instruction, Physics, Motion, Science Laboratories
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Countryman, Colleen Lanz – Physics Teacher, 2014
"The Physics Teacher's" "iPhysicsLabs" column has been dedicated to the implementation of smartphones in instructional physics labs as data collection devices. In order to understand any data set, however, one should first understand how it is obtained. This concern regarding the inclusion of smartphones in lab activities…
Descriptors: Physics, Science Instruction, Telecommunications, Handheld Devices
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