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Marranghello, Guilherme Frederico; Lucchese, Márcia Maria; da Rocha, Fábio Saraiva – Physics Teacher, 2022
Water rockets can be used in a variety of ways, from schools to planetariums, with very young kids or adults. We propose here simple forms to work with water rockets, going one step further than a simple launch. A smartphone can be used to film the launch and analyze its motion with video analysis or it can even be attached to the rocket, using…
Descriptors: Physics, Video Technology, Science Instruction, Water
Namchanthra, Witchayaporn; Puttharugsa, Chokchai – Physics Teacher, 2021
Nowadays, electronic devices (especially smartphones) are developed to use as an alternative tool for recording experimental data in physics experiments. This is because of the embedded sensors in a smartphone such as the accelerometer, gyroscope, magnetometer, camera, microphone, and speaker. These sensors were used in physics experiments, such…
Descriptors: Physics, Handheld Devices, Measurement Equipment, Motion
Shakur, Asif; Binz, Steven – Physics Teacher, 2021
The use of smartphones in experimental physics is by now widely accepted and documented. PASCO scientific's Smart Cart, in combination with student-owned smartphones and free apps, has opened a new universe of low-cost experiments that have traditionally required cumbersome and expensive equipment. In this paper, we demonstrate the simplicity,…
Descriptors: Handheld Devices, Science Experiments, Physics, Computer Oriented Programs
Kaps, A.; Starmach, F. – Physics Teacher, 2020
Smartphones and their internal sensors offer new options for an experimental access to teach physics at secondary schools and universities. Especially in the field of mechanics, a number of smartphone-based experiments are known illustrating, e.g., linear and pendulum motions as well as rotational motions using the internal MEMS accelerometer and…
Descriptors: Physics, Handheld Devices, Measurement Equipment, Mechanics (Physics)
Kaps, Andreas; Splith, Tobias; Stallmach, Frank – Physics Teacher, 2021
Implementing smartphones with their internal sensors into physics experiments represents a modern, attractive, and authentic approach to improve students' conceptual understanding of physics. In such experiments, smartphones often serve as objects with physical properties and as digital measurement devices to record, display, and analyze…
Descriptors: Telecommunications, Handheld Devices, Technology Uses in Education, Science Experiments
Goev, Gosho; Velinov, Tzvetan – Physics Education, 2022
In this paper, we propose a simple yet generic and versatile method to measure the position of a moving body as a function of time. Apart from very basic equipment such as carts and wheels, only a laser pointer or a similar device and a smartphone are necessary. By attaching a source of light to a cart and video filming its movement on a…
Descriptors: Measurement Techniques, Science Instruction, Motion, Physics
Salinas, Isabel; Monteiro, Martín; Martí, Arturo C.; Monsoriu, Juan A. – Physics Teacher, 2020
In this article, the dynamics of a traditional toy, the yo-yo, are investigated theoretically and experimentally using smartphone sensors. In particular, using the gyroscope the angular velocity is measured. The experimental results are complemented thanks to a digital video analysis. The concordance between theoretical and experimental results is…
Descriptors: Toys, Handheld Devices, Telecommunications, Physics
Canassa, T. A.; Freitas, W. P. S.; Ferreira, J. V. B.; Goncalves, A. M. B. – Physics Education, 2020
We propose an experimental analogy to verify Kepler's second law using a spherical pendulum. We made a movie of a closed elliptical orbit of the pendulum and extracted the data position using the Tracker software. Analyzing the data, we measured the areas that the position vector sweeps showing the validity of Kepler's second law.
Descriptors: Scientific Principles, Motion, Physics, Science Experiments
Priyanto, Aan; Yusmantoro; Aji, Mahardika Prasetya – Physics Teacher, 2020
When we travel in a train moving at a certain velocity, we observe the stationary objects outside are moving backwards. These stationary objects seem to move due to a relative velocity. Consider that the stationary object outside the train is a man standing on the stationary floor watching a woman moving on a train. The woman on a train will see…
Descriptors: Telecommunications, Handheld Devices, Motion, Physics
Pendrill, Ann-Marie – Physics Education, 2022
Students' understanding of forces in circular motion is often incomplete. The problems are not limited to confusions about centripetal acceleration and centrifugal forces. This paper considers possible effects of different interventions by a teacher who has discovered the many types of free-body diagrams drawn by students for circular motion in a…
Descriptors: Intervention, Teaching Methods, Physics, Science Instruction
Kaps, A.; Stallmach, F. – Physics Education, 2021
A digital learning-teaching environment is introduced in which undergraduate students are challenged to connect the basic physical concepts of oscillation, buoyancy and data analysis via an authentic experiment. The damped oscillation of a cylindrical body swimming upright in water is measured via the MEMS acceleration sensor of a wireless MCU…
Descriptors: Physics, College Science, Undergraduate Students, Science Experiments
Mananghaya, Michael Rivera; Yu, Dennis – Physics Education, 2022
A low-cost simple one-dimensional spring-mass system was constructed to investigate damped oscillations. The suspended mass in the system can move freely inside a cylinder containing a fluid. It provides an in-depth experience for demonstrating various concepts under oscillations. It can be used to probe the magnitude of damping forces in liquids…
Descriptors: Science Instruction, Physics, Scientific Concepts, Motion
Kaps, A.; Stallmach, F. – Physics Teacher, 2020
The dynamics of a spring pendulum is an important topic in introductory experimental physics courses at universities and advanced science courses in secondary school education. Different types of pendulum setups with smartphones were proposed to investigate, e.g., the gravitational acceleration, to measure spring constants, or to illustrate and…
Descriptors: Telecommunications, Handheld Devices, Physics, College Science
Kapucu, Serkan – Physics Teacher, 2019
In recent years, smartphone sensors have been frequently used in educational demonstrations to improve students' understanding of certain physical kinematic topics. In particular, the sensors on modern smartphones enable students to use their phones as physics mini-laboratories, and they have been used to analyze objects' speeds and accelerations…
Descriptors: Science Instruction, Physics, Telecommunications, Handheld Devices
Salinas, I.; Gimenez, M. H.; Monsoriu, J. A.; Sans, J. A. – Physics Teacher, 2019
New learning strategies try to extend the use of common devices among students in physics lab practices. In particular, there is a recent trend to explore the possibilities of using smartphone sensors to describe physics phenomena. On the other hand, the study of the moment of inertia by the use of the torsion pendulum is a typical example in the…
Descriptors: Handheld Devices, Telecommunications, Physics, Science Instruction