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Redish, Edward F. – Physics Teacher, 2021
The key difference between math as math and math in science is that in science we blend our physical knowledge with our knowledge of math. This blending changes the way we put meaning to math and even the way we interpret mathematical equations. Learning to think about physics with math instead of just calculating involves a number of general…
Descriptors: Mathematics Skills, Science Process Skills, Equations (Mathematics), Physics
Pierratos, Theodoros; Koumaras, Panagiotis – Primary Science, 2022
Although international school systems and resources can differ from those in the UK, it is always useful to have an informed worldview of practice in primary science. The COVID-19 pandemic has inevitably changed the ways in which pupils around the world have access to knowledge. Furthermore, it has changed the ways in which teachers globally…
Descriptors: Foreign Countries, Science Instruction, Teaching Methods, Physics
Tang, Kok-Sing; Won, Mihye; Treagust, David – International Journal of Science Education, 2019
This article presents the development, description, application, and discussion of an analytical framework to examine students' drawings of scientific concepts and processes. Student-generated representation, particularly drawing, is increasingly emphasised as an important learning strategy to help students reason, explain, and demonstrate their…
Descriptors: Scientific Literacy, Scientific Concepts, Freehand Drawing, Learning Strategies
Sengul, Ozden – Journal of College Science Teaching, 2021
This article is prepared as part of a "Practice Teaching in Science" course of a teacher education program aiming for developing prospective science teachers' teaching through inquiry-based instruction involving practices of science and active learning strategies. During the semester, student teachers are required to prepare four…
Descriptors: Science Instruction, Science Teachers, Preservice Teachers, Learning Strategies
Kortemeyer, Gerd – Physics Teacher, 2016
I think most physics teachers would agree that two important components of a proper solution to a numerical physics problem are to first figure out a final symbolic solution and to only plug in numbers in the end. However, in spite of our best efforts, this is not what the majority of students is actually doing. Instead, they tend to plug numbers…
Descriptors: Physics, Problem Solving, Learning Strategies, Educational Practices
Wheaton, S. M.; Binder, P.-M. – Physics Education, 2017
We discuss strategies for the general solution of single-step 1D constant acceleration problems. In a slightly restricted form, these problems have five variables (?"x," "v[subscript 0]," "v," "a" and "t") and two independent equations, so three variables must be given to solve for the other two,…
Descriptors: Motion, Problem Solving, Physics, Equations (Mathematics)
Touitou, Israel; Barry, Stephen; Bielik, Tom; Schneider, Barbara; Krajcik, Joseph – Science Teacher, 2018
Project-based learning (PBL) is an instructional approach to science teaching that supports the "Next Generation Science Standards" (Krajcik 2015; NGSS Lead States 2013). In a PBL lesson, students design and solve real-world problems or explain scientific phenomena. Students using a PBL model learn and retain more than those not using…
Descriptors: Active Learning, Student Projects, Physics, Units of Study
Phillips, Jeffrey A.; Clemmer, Katharine W.; McCallum, Jeremy E. B.; Zachariah, Thomas M. – Journal of College Science Teaching, 2017
Well-developed, problem-solving skills are essential for any student enrolled in a science, technology, engineering, and mathematics (STEM) course as well as for graduates in the workforce. One of the most essential skills is the ability to monitor one's own progress and understanding while solving a problem. Successful monitoring during the…
Descriptors: Problem Solving, Models, STEM Education, Skill Development
Sokoloff, David R. – Physics Teacher, 2016
There is considerable evidence that traditional approaches are ineffective in teaching physics concepts, including light and optics concepts. A major focus of the work of the Activity Based Physics Group has been on the development of active learning curricula like RealTime Physics (RTP) labs and Interactive Lecture Demonstrations (ILDs). Among…
Descriptors: Active Learning, Learning Strategies, Light, Optics
Kettle, Maria – Physics Education, 2013
This paper defines flipped learning and then examines its practical implementation in AS and A2 level physics classes, that is, classes for 16-18 year olds. The effect of this teaching style on student learning behaviour and its impact on test results are evaluated. The paper recounts the difficulties of implementing it and evaluates student…
Descriptors: Physics, Secondary School Science, Teaching Styles, Instructional Effectiveness
Tabor-Morris, A. E.; Froriep, K. A.; Briles, T. M.; McGuire, C. M. – Physics Education, 2009
Physics educators and researchers can be concerned with how students attain cognitive coherence: specifically, how students understand and intra-connect the whole of their knowledge of the "field of physics". Starting instead with the metaphor "city of physics", the implication of applying architectural concepts for the human acquisition of mental…
Descriptors: Urban Planning, Rhetoric, Figurative Language, Learning Strategies
Zavala, Genaro; Alarcon, Hugo; Benegas, Julio – Journal of Science Teacher Education, 2007
In this contribution we describe a short development course for in-service physics teachers. The course structure and materials are based on the results of educational research, and its main objective is to provide in-service teachers with a first contact with the active learning strategy "Tutorials in Introductory Physics," developed by…
Descriptors: Science Teachers, Learning Problems, Multiple Choice Tests, Learning Strategies

Pate, Stephen F. – American Journal of Physics, 1999
Introduces the thermodynamic cube, a mnemonic learning device for learning and recalling thermodynamic relations. (Author/CCM)
Descriptors: Higher Education, Learning Strategies, Mnemonics, Physics

Sillitto, R.; MacKinnon, L. M. – Physics Education, 2000
Describes the development of Simple Projectiles Lesson And Test (SPLAT), an interactive multimedia presentation that targets students aged 16 and older and focuses on teaching the fundamental concepts of physics with a simple and exciting approach, and filling in the gaps of school physics curriculum. (YDS)
Descriptors: Learning Strategies, Motion, Multimedia Instruction, Physics
Faraco, G.; Gabriele, L. – Computers & Education, 2007
Simulations make it possible to explore physical and biological phenomena, where conducting the real experiment is impracticable or difficult. The implementation of a software program describing and simulating a given physical situation encourages the understanding of a phenomenon itself. Fifty-nine students, enrolled at the Mathematical Methods…
Descriptors: Mathematical Models, Computer Software, Computer Simulation, Engineering Education