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Mayer, V. V.; Varaksina, E. I. – Physics Education, 2022
We propose a laboratory experiment on the quantitative study of the normal dispersion of light. A triangular isosceles prism made of flint glass TF3 is used as the object of study, and we describe a simple and affordable device for observing and photographing the dispersion spectrum on a smartphone. A possibility of the quantitative investigation…
Descriptors: Light, Physics, Science Experiments, Science Instruction
Trout, K. P.; Adkins, Mark; Bekker, Jennifer; Harlacher, Alexis; Ramirez, Frandy; Swingler, Andrew; Wagner, Chase – Physics Teacher, 2021
For science students doing traditional laboratory experiments, often it may feel as if the apparatus and experiment have been specifically chosen for good results. They suspect that the science they are learning in the classroom will not match nearly as well in the real world. However, many educators have observed that student motivation and…
Descriptors: Handheld Devices, Video Technology, Physics, Science Instruction
Arribas, Enrique; Escobar, Isabel; Ramirez-Vazquez, Raquel; del Pilar Suarez Rodriguez, Carmen; Gonzalez-Rubio, Jesus; Belendez, Augusto – Physics Teacher, 2020
We believe that a natural focus of the physics education research community is on understanding and improving students' learning in our physics courses. Due to the increase in technology, we can bring laboratory experiments closer to our students. It is necessary to update our laboratories technologically to get closer to the world in which our…
Descriptors: Physics, Laboratory Experiments, Educational Technology, Handheld Devices
Aziz Amaaz; Abderrahman Mouradi; Moahamed Erradi – Journal of Baltic Science Education, 2024
Despite the importance of physics practical work in higher education, its implementation is often hampered by various constraints and problems. Technology, such as learning management systems (LMS) and mobile learning, can offer solutions to some of these problems and enrich students' learning experiences. Therefore, this research proposes a model…
Descriptors: Physics, Science Education, Learning Management Systems, Chemistry
Mayer, V. V.; Varaksina, E. I. – Physics Education, 2020
For conducting laboratory experiments on Fresnel diffraction, the use of a simple point light source from an LED and the application of a modern smartphone for photographing the diffraction patterns are proposed. The developed devices allow the experiments to be carried out under normal laboratory lighting.
Descriptors: Photography, Physics, Science Education, Teaching Methods
Kim, J.; Bouman, L.; Cayruth, F.; Elliott, C.; Francis, B.; Gogo, E.; Hyman, C.; Marshall, A.; Masters, J.; Olano, W.; Paone, A.; Patel, K.; Richards, L.; Sbardella, C.; Snider, A.; Trinh, B.; Umari, F.; Wilks, H. – Physics Teacher, 2020
These days, smartphones are popular commodities among students in high school and college. Students carry their devices all the time, so why not use such a popular electronic device to measure physical quantities such as "g" in physics labs? In this work, we report a "multiple tasking" method, a measurement technique that we…
Descriptors: Physics, Science Instruction, Teaching Methods, Telecommunications
Carroll, Ryan; Lincoln, James – Physics Teacher, 2020
The phyphox app has demonstrated itself to be useful and impressive for physics teaching. The app is free to download and has so many features that it seems it may be particularly helpful in this time of distance learning. Phyphox (pronounced to sound like "physics") works for Android and Apple phones, and there are many experiments…
Descriptors: Physics, Science Instruction, Teaching Methods, Computer Software
Jiang, Shiyan; Huang, Xudong; Sung, Shannon H.; Xie, Charles – Research in Science Education, 2023
Learning analytics, referring to the measurement, collection, analysis, and reporting of data about learners and their contexts in order to optimize learning and the environments in which it occurs, is proving to be a powerful approach for understanding and improving science learning. However, few studies focused on leveraging learning analytics…
Descriptors: Learning Analytics, Hands on Science, Science Education, Laboratory Safety
Zhdanov, Arsenii; Pyay, Anna – Physics Teacher, 2022
Mobile phones are a widely used platform for educational apps, mobile health, and a variety of chemical tests. Here, we are working on a mobile phone-based physics lab (mPhysics) that uses a mobile phone's capabilities to run simple physics experiments and demonstrations. While a mobile phone can be used to analyze magnetic and optical properties…
Descriptors: Telecommunications, Handheld Devices, Physics, Science Instruction
Gallitto, Aurelio Agliolo; Battaglia, Onofrio Rosario; Fazio, Claudio – Physics Education, 2021
We describe an educational activity that can be done by using smartphones to collect data in physics experiments aimed to measure the oscillating period of a spring-mass system and the elastic constant of the helicoidal spring by the dynamic method. Results for the oscillating period and for the elastic constant of the spring agree very well with…
Descriptors: Science Instruction, Physics, Measurement Techniques, Telecommunications
Gössling, Alexander; Becker, Sebastian; Kuhn, Jochen – Physics Teacher, 2021
Supersonic free-fall jumps are excellent examples of kinematics in the context of drag. They have attracted a lot of media, public, and scientific interest. In 2012, Felix Baumgartner jumped from a height of approximately 38.969 km. During his flight he reached a top speed of 373 m/s, becoming the first human to travel faster than the speed of…
Descriptors: Science Instruction, Science Experiments, Physics, Kinetics
Salinas, Isabel; Giménez, Marcos H.; Monsoriu, Juan A.; Castro-Palacio, Juan C. – Physics Teacher, 2018
The smartphone's ambient light sensor has been used in the literature to study different physical phenomena. For instance, Malus's law, which involves the polarized light, has been verified by using simultaneously the orientation and light sensors of a smartphone. The illuminance of point light sources has been characterized also using the light…
Descriptors: Physics, Handheld Devices, Light, Measurement
Pili, Unofre; Violanda, Renante; Ceniza, Claude – Physics Teacher, 2018
The internal sensors in smartphones for their advanced add-in functions have also paved the way for these gadgets becoming multifunctional tools in elementary experimental physics. For instance, the acceleration sensor has been used to analyze free-falling motion and to study the oscillations of a spring-mass system. The ambient light sensor on…
Descriptors: Physics, Motion, Measurement, Measurement Equipment
Ürek, Handan; Özdemir, Erdogan; Coramik, Mustafa – Physics Education, 2021
The target of this study is to determine the minimum angle of deviation of a prism which is one of the optical experiments. Thus, the aim is to state the refractive index of a prism. In this context, the Tracker program, which might also be utilized in terms of distance education purposes, was preferred. The videos of the experiments were recorded…
Descriptors: Science Instruction, Physics, Scientific Concepts, Concept Formation
Pili, Unofre; Violanda, Renante – Physics Teacher, 2019
In introductory physics laboratories, spring constants are traditionally measured using the static method. The dynamic method, via vertical spring-mass oscillator, that uses a stopwatch in order to measure the period of oscillations is also commonly employed. However, this time-measuring technique is prone to human errors and in this paper we…
Descriptors: Telecommunications, Handheld Devices, Physics, Scientific Concepts