Publication Date
| In 2026 | 0 |
| Since 2025 | 0 |
| Since 2022 (last 5 years) | 3 |
| Since 2017 (last 10 years) | 27 |
| Since 2007 (last 20 years) | 59 |
Descriptor
| Magnets | 64 |
| Science Experiments | 64 |
| Physics | 51 |
| Science Instruction | 46 |
| Energy | 30 |
| Scientific Concepts | 30 |
| Scientific Principles | 21 |
| Secondary School Science | 17 |
| College Science | 14 |
| Motion | 14 |
| Teaching Methods | 14 |
| More ▼ | |
Source
| Physics Education | 64 |
Author
| Thompson, Frank | 3 |
| Bochnícek, Zdenek | 2 |
| French, M. M. J. | 2 |
| Iskandar, F. | 2 |
| Prytz, Kjell | 2 |
| Septianto, R. D. | 2 |
| Suhendra, D. | 2 |
| Temiz, Burak Kagan | 2 |
| Varaksina, E. I. | 2 |
| Yavuz, Ahmet | 2 |
| Abdul-Razzaq, W. | 1 |
| More ▼ | |
Publication Type
| Journal Articles | 63 |
| Reports - Descriptive | 46 |
| Reports - Research | 14 |
| Reports - Evaluative | 2 |
| Guides - Classroom - Teacher | 1 |
Education Level
| Secondary Education | 13 |
| High Schools | 10 |
| Higher Education | 10 |
| Postsecondary Education | 5 |
| Elementary Education | 1 |
| Elementary Secondary Education | 1 |
Audience
| Teachers | 4 |
| Practitioners | 2 |
Location
| United Kingdom | 2 |
| Italy | 1 |
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
Aji, Mahardika Prasetya; Rahmawati, Ita; Imtinan, Nisrina; Wulandari, Yuvita Kiki; Yusmantoro; Priyanto, Aan – Physics Education, 2022
The momentum is often used to analyse the dynamics of the motion of an experimental interaction between objects. Meanwhile, the interaction force tends to be challenging to observe and obtain. In this study, a simple video-assisted experiment was used to observe the interaction forces during the interaction of two magnetic objects. The interaction…
Descriptors: Science Instruction, Mechanics (Physics), Motion, Science Experiments
Zvorykin, Ilya Yu; Katkova, Mariia R.; Maslennikova, Yulia V. – Physics Education, 2022
In this article, we propose a simple and accessible model of a magnetic levitator fitted with a Hall sensor. This model also allows to determine the magnitude of the magnetic field within the levitator working volume. Students can also compare the experimental magnetic field values to reference values in magnetism textbooks. This Arduino-based…
Descriptors: Magnets, Science Instruction, Science Experiments, Laboratory Equipment
Prytz, Kjell – Physics Education, 2020
An alternative way of introducing magnetism at all levels of education is proposed. It is stressed that magnetism can be introduced through the interaction between current-carrying conductors giving the students, at the same time, the possibility to measure the magnetic permeability [mu][subscript o]. Focusing on currents instead of permanent…
Descriptors: Physics, Science Instruction, Teaching Methods, Magnets
Karadag, Mustafa; Yavas, Pervin Ünlü – Physics Education, 2021
In this work, we made a simple electronic tool called a 'magnetic polarity detector' which can determine the magnetic poles of permanent magnets or electromagnets. We used it in some student experiments in the physics laboratory. For example, determining the magnetic poles of permanent magnets and a current-carrying coils or electromagnets.…
Descriptors: Physics, Science Instruction, Magnets, Energy
Saranin, Vladimir; Keldyshev, Denis; Ivanov, Yuriy – Physics Education, 2019
The article presents the results of an experimental study on the motion of a neodymium magnet on an inclined duralumin plate. During experiments, the time of motion was measured, and the steady-state velocity of the magnet motion was determined. To measure the time, a robotic set was used, which made it possible to measure the time of the motion…
Descriptors: Motion, Magnets, Robotics, Time
Ha, Hye Jin; Jang, Taehun; Sohn, Sang Ho – Physics Education, 2022
In this study, we derived several formulas for the currents induced in a circular loop by a magnet connected to a spring-based simple harmonic oscillation system. In addition, we conducted an experiment for measuring the induced currents and compared the results with the theoretical prediction. It was confirmed that the prediction from the derived…
Descriptors: Science Instruction, Magnets, Motion, Laboratory Equipment
González, Manuel I. – Physics Education, 2019
Interaction forces between magnetic fields and current loops play a central role in the theory of magnetism. This work describes a reasonably simple and cheap experiment for demonstrating this issue: the force on a thin coil due to a nearby cylindrical magnet. The magnitude of the force as well as its attractive/repulsive character is comfortably…
Descriptors: Physics, Magnets, Science Experiments, Measurement
Pili, Unofre B. – Physics Education, 2020
Using Tracker, a popular video-based physics modeling tool, the position-time data of magnetically damped oscillations of a simple pendulum are acquired. Eddy currents are generated on an aluminum sheet as the magnetic pendulum bob passes over it and the induced magnetic field opposes that of the magnetic bob. This causes the damping. A…
Descriptors: Physics, Scientific Concepts, Motion, Magnets
Ramos, L. M.; Reis, C. R. N.; Calheiro, L. B.; Goncalves, A. M. B. – Physics Education, 2021
Using a joystick module, we followed the movement of a chaotic magnetic pendulum. The pendulum bar was attached to a joystick that served as a pivot point and biaxial angular motion sensor. Using an Arduino board, we could follow the position as a function of time along both the "x" and "y"-axis and draw a graph showing the…
Descriptors: Physics, Science Instruction, Computer Software, Motion
Pirbhai, M. – Physics Education, 2020
Measuring the "e/m" ratio is a classic experiment in the physics curriculum. We show that smartphones can reliably measure the magnetic field strengths involved. Moreover, phone cameras and the image-processing software Tracker can make determining the charge-to-mass ratio of the electron more accurate.
Descriptors: Science Instruction, Science Experiments, Telecommunications, Handheld Devices
Ashkarran, Ali Akbar; Mahmoudi, Morteza – Physics Education, 2021
Here, we propose the use of magnetic levitation (MagLev) device, as a simple, cheap, and portable experimental technique to measure the density of diamagnetic materials in laboratory settings. We highlight the basics of a standard MagLev system for measuring the density of unknown diamagnetic materials/objects using permanent magnets, paramagnetic…
Descriptors: Magnets, Science Experiments, Measurement Techniques, Science Laboratories
Babovic, Miloš; Babovic, Vukota – Physics Education, 2017
A few simple experiments in the magnetic field of a permanent U-shaped magnet are described. Among them, pin oscillations inside the magnet are particularly interesting. These easy to perform and amusing measurements can help pupils understand magnetic phenomena and mutually connect knowledge of various physics branches.
Descriptors: Science Experiments, Magnets, Physics, Kinetics
Taspika, Melda; Nuraeni, Lely; Suhendra, Dadang; Iskandar, Ferry – Physics Education, 2019
This paper reports on the measurement of a magnetic field due to the coil carrying current by using the magnetic sensor in a smartphone as an alternate to the relatively expensive magnetic sensor probe. The location of the magnetic sensor in the smartphone was known by mapping the value of the magnetic field due to the permanent magnetic bar so…
Descriptors: Physics, Telecommunications, Handheld Devices, Educational Technology
Berls, Rob; Ruiz, Michael J. – Physics Education, 2018
The classic demonstration illustrating Lenz's law by dropping a magnet through a copper pipe is presented using household aluminum foil right out of the box. Then comes the surprise. The teacher presents an aluminum foil cylinder with a missing lengthwise slice (cut before class). Will the demonstration still work? Students are amazed at the…
Descriptors: Physics, Scientific Concepts, Scientific Principles, Science Experiments
Agrawal, Dulli Chandra – Physics Education, 2018
Incandescent lamps are not only good sources of electromagnetic energy radiations but their operating temperatures are comparable to the temperatures of stars also. These features can be exploited to teach apparent magnitude scale both theoretically and experimentally. The numerical illustrations presented corresponding to 10, 100, 1000 and 10 000…
Descriptors: Physics, Energy, Magnets, Light

Peer reviewed
Direct link
