NotesFAQContact Us
Collection
Advanced
Search Tips
Publication Type
Reports - Descriptive24
Journal Articles22
Books1
Opinion Papers1
Audience
Teachers5
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
Showing 1 to 15 of 24 results Save | Export
Peer reviewed Peer reviewed
Direct linkDirect link
Greenslade, Thomas B., Jr. – Physics Teacher, 2022
As I approach my 70th year in physics, let me tell my younger colleagues about my adventures with computation. When I was 14, my father gave me a slide rule because I appeared to be headed toward a career in physics. Since then, I have had experience with many other calculating devices.
Descriptors: Physics, Science Instruction, Educational Technology, Calculators
Peer reviewed Peer reviewed
Direct linkDirect link
Caerols, Hugo; Asenjo, Felipe A. – Physics Teacher, 2020
From ancient times, the different features of planets and moons have created a huge interest. Aristarchus was one of the first to study the relative relations among Earth, Moon, and Sun. This interest has remained until today, and therefore it is always relevant to make this knowledge more appealing to the younger generations. Nowadays, smartphone…
Descriptors: Science Instruction, Astronomy, Telecommunications, Handheld Devices
Peer reviewed Peer reviewed
Direct linkDirect link
Eric Best; Daniel J. Mallinson – Journal of Political Science Education, 2024
There has been a massive shift in teaching quantitative political research since the "Journal of Political Science Education" was launched in 2004. Smartphones were an anomaly, and it was uncommon to have laptops in the classroom. Statistical calculations were sometimes done by "statisticians", i.e., professional staff who did…
Descriptors: Political Science, Educational History, Educational Trends, Educational Change
Peer reviewed Peer reviewed
Direct linkDirect link
Siegle, Del – Gifted Child Today, 2020
The Thunkable online platform is an easy-to-use resource for creating apps for mobile devices. Computational thinking is at the heart of problem solving in computer science, and research suggests students' computational thinking improves when they use simple block coding systems similar to the format used for Thunkable.
Descriptors: Gifted Education, Academically Gifted, Technology Uses in Education, Computer Oriented Programs
Peer reviewed Peer reviewed
Direct linkDirect link
Larnder, Chris Isaac – Physics Teacher, 2020
In a paper (posthumously) co-authored by Isaac Newton himself, the primacy of geometric notions in pedagogical expositions of centripetal acceleration has been clearly asserted. In the present paper we demonstrate how this pedagogical prerogative can inform the design of an experiment involving an accelerometer-equipped smartphone rotating…
Descriptors: Physics, Science Instruction, Teaching Methods, Geometric Concepts
Peer reviewed Peer reviewed
Direct linkDirect link
Hossain, M. Alamgir; Menz, Petra M.; Stockie, John M. – PRIMUS, 2022
We present a question bank consisting of over 250 multiple-choice and true--false questions covering a broad range of material typically taught in an introductory undergraduate course in numerical analysis or computational science. The questions are ideal for polling students during lectures by means of a student response system that uses…
Descriptors: Audience Response Systems, Undergraduate Study, Telecommunications, Handheld Devices
Peer reviewed Peer reviewed
Direct linkDirect link
Dunbar, Kyle M.; Rich, Kathryn M. – Mathematics Teacher: Learning and Teaching PK-12, 2020
The aim of this article is to inspire more teachers to explore the use of codable robots for teaching mathematics. The authors begin by discussing four benefits experienced by incorporating robots into middle school mathematics classes: (1) reasonable time frames; (2) authentic purposes for mathematics; (3) visual and nonevaluative feedback; and…
Descriptors: Mathematics Instruction, Teaching Methods, Robotics, Middle School Mathematics
Peer reviewed Peer reviewed
Direct linkDirect link
Azhikannickal, Elizabeth – Physics Teacher, 2019
Much data, both published and anecdotal, have shown that students grasp scientific concepts more easily when they are directly involved in the learning via lab experiments or other hands-on activities. Hands-on or experiential learning also appears to aid in students' ability to retain scientific theory. One way to engage students in a first-year…
Descriptors: Science Instruction, Physics, Scientific Concepts, Concept Formation
Ferguson, Rebecca – Commonwealth of Learning, 2019
This guide explores how pedagogy and vision underpin successful TEL [technology-enabled learning] innovation, as well as the other building blocks that are needed. It also outlines recent pedagogical innovations in TEL that can be trialled in any classroom where learners have access to smartphones and the Internet.
Descriptors: Technology Uses in Education, Distance Education, Educational Innovation, Educational Technology
Peer reviewed Peer reviewed
Direct linkDirect link
Moggio, L.; Onorato, P.; Gratton, L. M.; Oss, S. – Physics Education, 2017
We propose the use of a smartphone based time-lapse and slow-motion video techniques together with tracking analysis as valuable tools for investigating thermal processes such as the response time of a thermometer. The two simple experimental activities presented here, suitable also for high school and undergraduate students, allow one to measure…
Descriptors: Reaction Time, Handheld Devices, Computation, Measurement Techniques
Peer reviewed Peer reviewed
Direct linkDirect link
Vogt, Patrik; Kuhn, Jochen – Physics Teacher, 2014
It has been illustrated several times how the built-in acceleration sensors of smartphones can be used gainfully for quantitative experiments in school and university settings (see the overview in Ref. 1 ). The physical issues in that case are manifold and apply, for example, to free fall, radial acceleration, several pendula, or the exploitation…
Descriptors: Handheld Devices, Mechanics (Physics), Motion, Computation
Peer reviewed Peer reviewed
Direct linkDirect link
Dilek, Ufuk; Sengören, Serap Kaya – Physics Education, 2017
The position of a ball was measured by using the touchscreen of a mobile phone during its rolling motion. The translational speed of the ball was determined using the recorded position and time data. The speed was also calculated by a conventional method. The speed values determined by the two methods were consistent, thus it was proven that a…
Descriptors: Science Instruction, Physics, Motion, Teaching Methods
Peer reviewed Peer reviewed
Direct linkDirect link
Kinser, Jason M. – Physics Teacher, 2015
A simple experiment in relating a time-dependent linear acceleration function to height is explored through the use of a smartphone and an elevator. Given acceleration as a function of time, a(t), the velocity function and position functions are determined through integration as in v(t)=? a(t) dt (1) and x(t)=? v(t) dt. Mobile devices such as…
Descriptors: Time, Physics, Scientific Concepts, Science Experiments
Peer reviewed Peer reviewed
Direct linkDirect link
Underwood, Bret; Zhai, Yunxiao – Physics Teacher, 2016
Smartphones and tablets are packed with sensors that allow us to take experimental data, essentially making them mobile physics labs. Apps exist that make it easy to capture and analyze data from these sensors, allowing users to study diverse phenomena such as free fall acceleration, the speed of sound,radioactivity, and many others. Commonly, the…
Descriptors: Handheld Devices, Computer Oriented Programs, Physics, Time
Peer reviewed Peer reviewed
Direct linkDirect link
Ok, Min Wook; Rao, Kavita – Intervention in School and Clinic, 2017
Secondary students with learning disabilities (LD) can benefit from using assistive and instructional technologies to support content and skill acquisition. Digital pens have features that can be beneficial for students who struggle with comprehension, note taking, and organization. Livescribe pens, in particular, provide a variety features that…
Descriptors: Secondary School Students, Learning Disabilities, Assistive Technology, Handheld Devices
Previous Page | Next Page »
Pages: 1  |  2