Smartphone-Based Undergraduate Physics Labs: A Comprehensive Review of Innovation, Accessibility, and Pedagogical Impact
arXiv:2504.11363 · doi:10.1088/1361-6404/ae2a80
Abstract
Smartphone-integrated physics laboratories (SmartIPLs) have emerged as a cost-effective and scalable approach that offers new opportunities for enhancing introductory physics education. By leveraging the sensing, imaging, and computing capabilities of smartphones, SmartIPLs enable hands-on, inquiry-based experiments that can be conducted flexibly, in classrooms, at home, or in remote environments. This review presents a comprehensive synthesis of over 200 documented SmartIPL activities across key physics domains, including mechanics, optics, thermodynamics, electromagnetism, and modern physics. Activities are systematically categorized by topic, sensor modality (sensor-based versus camera-based), and instructional design. The pedagogical value of SmartIPLs is examined through the lens of context-based learning, open-ended inquiry, cognitive scaffolding, and student motivation, with particular attention to issues of accessibility and equity. We also analyze implementation challenges such as device heterogeneity, sensor limitations, and integration into traditional curricula. Looking forward, we identify emerging directions for the field, including AI-driven feedback systems, open-source curricular platforms, and expanded applications in modern physics. This review positions SmartIPLs not merely as technological supplements, but as transformative tools for fostering scientific thinking, modeling skills, and epistemic agency in 21st-century physics education.
83 pages, 6 figures, 18 tables
References in corpus (27)
- Advanced tools for smartphone-based experiments: phyphox
- Teaching Critical Thinking
- Studying physics during the COVID-19 pandemic: Student assessments of learning achievement, perceived effectiveness of online recitations, and online laboratories
- Measuring the Impact of Introductory Physics Labs on Learning
- Measuring the impact of an instructional laboratory on the learning of introductory physics
- The polarization of light and the Malus' law using smartphones
- Mobile Devices and Sensors for Physics Teaching
- Using smartphone pressure sensors to measure vertical velocities of elevators, stairways, and drones
- Exploring the atmosphere using smartphones
- Magnetic field "flyby" measurement using simultaneously magnetometer and accelerometer
- Computational Thinking in Introductory Physics
- Visualizing Sound Directivity via Smartphone Sensors
- Measuring the Speed of Sound in Air Using a Smartphone and a Cardboard Tube
- Dynamics of a yoyo using a smartphone gyroscope sensor
- Collaborative smartphone experiments for large audiences with phyphox
- Direct visualization of mechanical beats by means of an oscillating smartphone
- Low-Cost Experiments with Everyday Objects for Homework Assignments
- A bottle of tea as a universal Helmholtz resonator
- Physics lab courses under digital transformation: A tri-national survey among university lab instructors about the role of new digital technologies and learning objectives
- Fabrication of a low-cost and high-resolution papercraft smartphone spectrometer
- A home-lab experiment: resonance and sound speed using telescopic vacuum cleaner pipes
- The mobile phone as a free-rotation laboratory
- Spectrophotometers for Labs: a Cost-efficient Solution based on Smartphones
- Using a Smartphone pressure sensor as Pitot tube speedometer
- Measuring the capacitor charge and discharge with a LED and a smartphone
- Two simple experiments using FFT with digital devices in the introductory physics laboratory
- Investigating the Magnetic Field outside small Accelerator Magnet Analogs via Experiment, Simulation, and Theory