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Chinaka, Taurayi Willard – African Journal of Research in Mathematics, Science and Technology Education, 2021
Research in the past decades has repeatedly revealed that first year university students struggle to understand two-dimensional projectile motion concepts. In contrast to high school, projectile motion frequently makes use of components and it requires at least a basic understanding of trigonometry concepts. To follow the lessons and generate…
Descriptors: College Freshmen, Scientific Concepts, Motion, Concept Formation
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Daniel, Ann – Physics Teacher, 2019
Researchers have shown students develop misconceptions in projectile motion for various reasons. A common misunderstanding among first-year high school physics students is the notion that the horizontal and vertical components are interchangeable in projectile motion. The students' incorrect reasoning is connected to their personal experiences…
Descriptors: Experiential Learning, Motion, Misconceptions, Physics
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Wieselmann, Jeanna R.; Sager, Marc T.; Binford, Lily – PDS Partners: Bridging Research to Practice, 2022
Emergency remote and hybrid instructional approaches during the COVID-19 pandemic presented new challenges to science teachers, including how to incorporate authentic, hands-on, and collaborative learning experiences via Zoom™ instruction. Through a school-university partnership, a first-year middle school science teacher, an assistant professor,…
Descriptors: STEM Education, Integrated Curriculum, Partnerships in Education, College School Cooperation
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Eriksson, Urban; Pendrill, Ann-Marie – Physics Education, 2019
Vertical amusement rides let your body experience the tickling sensation of feeling light, but also feeling much heavier than as usual, due to velocity changes as you move up and down. Family rides offer different possibilities to visualize the forces that are experienced by your accelerating body. This paper presents a number of different ways to…
Descriptors: Physics, Science Instruction, Scientific Concepts, Telecommunications
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Lemmer, Miriam – Africa Education Review, 2018
Science teaching and learning require knowledge about how learning takes place (cognition) and how learners interact with their surroundings (affective and sociocultural factors). The study reported on focussed on learning for understanding of Newton's second law of motion from a cognitive perspective that takes social factors into account. A…
Descriptors: Science Education, Physics, Scientific Principles, Motion
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Tretter, Thomas – Science Teacher, 2012
Teachers strive to engage students in rich and varied experiences involving exploration. These experiences should be accessible to all types of learners (e.g., visual, kinesthetic, mathematically inclined), offering multiple pathways for engagement at different levels of sophistication and accommodating both conceptual and computational…
Descriptors: Physics, Video Technology, Teaching Methods, Science Instruction
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Trundle, Kathy Cabe; Smith, Mandy McCormick – Science and Children, 2011
Some of children's earliest explorations focus on movement of their own bodies. Quickly, children learn to further explore movement by using objects like a ball or car. They recognize that a ball moves differently than a pushed block. As they grow, children enjoy their experiences with motion and movement, including making objects move, changing…
Descriptors: Young Children, Developmental Stages, Motion, Human Body
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Wee, Loo Kang – Physics Education, 2012
We develop an Easy Java Simulation (EJS) model for students to experience the physics of idealized one-dimensional collision carts. The physics model is described and simulated by both continuous dynamics and discrete transition during collision. In designing the simulations, we discuss briefly three pedagogical considerations namely (1) a…
Descriptors: Physics, College Science, Experiential Learning, Feedback (Response)
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Benenson, Gary; Stewart-Dawkins, Shawndel; White, Gwynn – Advances in Engineering Education, 2012
In spite of numerous calls for action, e.g., Executive Office of the President (2010), there have been few efforts nationally to promote engineering education in the elementary grades. Of these, hardly any have targeted underrepresented populations (National Academy of Engineering, 2009, p. 74). The collaboration described in this paper is a…
Descriptors: Engineering Education, Elementary Education, STEM Education, Design
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Eisenstein, Stanley – Science Teacher, 2008
First-year physics students often have a difficult time grasping Newton's laws of motion and recognizing the forces that these laws depend on. The "Paper Car" project is an experiential activity that is rich in application of force principles. It is also simple enough that students are able to integrate straightforward but non-trivial physics…
Descriptors: Physics, Motion, Teaching Methods, Scientific Principles
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Van Hook, Stephen; Lark, Adam; Hodges, Jeff; Celebrezze, Eric; Channels, Lindsey – Physics Teacher, 2007
A playground can provide a valuable physics education laboratory. For example, Taylor et al. describe bringing teachers in a workshop to a playground to examine the physics of a seesaw and slide, and briefly suggest experiments involving a merry-go-round. In this paper, we describe an experiment performed by students from a Society of Physics…
Descriptors: Physics, Playgrounds, Science Education, Motion
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Wetzel, David R. – Science Scope, 2000
Describes an activity with cars and fans that observes the motion of cars under force. Lists required materials, the procedure, and introductory questions for the activity. (YDS)
Descriptors: Elementary Secondary Education, Experiential Learning, Force, Mechanics (Physics)
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Ringlein, James – Science Teacher, 2005
Violins, earthquakes, and the "singing rod" demonstration all have something in common--stick-slip frictional motion. The application of stick-slip friction can be extended to a ringing wineglass, exotic percussion instruments, car racing, and the latest research on the interplay between surfaces at the atomic level. These examples all involve two…
Descriptors: Motion, Physics, Demonstrations (Educational), Science Experiments
Oh, Kyoungjin; Im, Sungmin; Pak, Sungjae – Journal of the Korean Association for Research in Science Education, 2000
Compares junior high school students' conceptual changes about force and motion and their interest in science between a group whose instruction including sports experiential learning activities and a group who used traditional instruction. Examines students' conceptual changes and interests according to the degree of their sports experience before…
Descriptors: Concept Formation, Experiential Learning, Force, Foreign Countries
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Park, Do-Yong; O'Brien, George; Eraso, Mario; McClintock, Edwin – Science Activities, 2002
Describes an inquiry-based scooter activity in which students learn the mathematical concepts of measurement and proportionality and the science concepts of force, motion, velocity, and acceleration while using their problem solving skills. Explains strengths and weaknesses of the activity and includes suggestions for assessment. (YDS)
Descriptors: Experiential Learning, High Schools, Inquiry, Interdisciplinary Approach
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