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Yassine Yachou; Olivier Samson; Olivier Lasvergnas – Anatomical Sciences Education, 2024
While traditional anatomy education often emphasizes passive learning and rote memorization, it seldom employs constructivist theories that focus on active, hands-on experiences for effective learning. This study tests the hypothesis that tactile experiences with modeling clay enhance geometric mental representation more effectively than verbal…
Descriptors: Geometry, Geometric Concepts, Schemata (Cognition), Anatomy
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Dimmel, Justin; Pandiscio, Eric; Bock, Camden – Journal of Mathematics Education at Teachers College, 2021
Physical models for exploring multiplication are fixtures in elementary classrooms. The most widely used physical models of multiplication are collections of discrete things, such as Cuisenaire rods, Unifix Cubes, or Base-10 Blocks. But discrete physical models are limited in the products they can represent. By contrast, pictorial models, such as…
Descriptors: Mathematics Instruction, Multiplication, Elementary School Mathematics, Geometric Concepts
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Smith, Derrick W.; Lampley, Sandra A.; Dolan, Bob; Williams, Greg; Schleppenbach, David; Blair, Morgan – Journal of Visual Impairment & Blindness, 2020
Introduction: The emerging technology of three-dimensional (3D) printing has the potential to provide unique 3D modeling to support specific content in science, technology, engineering, and mathematics (STEM) education, particularly chemistry. Method: Seventeen (n=17) students with visual impairments were provided direct instruction on chemistry…
Descriptors: Visual Impairments, Manipulative Materials, Spatial Ability, Geometric Concepts
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Wan, Anna; Ivy, Jessica – Journal of Digital Learning in Teacher Education, 2021
This article condenses five years of professional development based on Technological Pedagogical and Content Knowledge (TPACK) integration principles, National Council of Teachers of Mathematics Principles to Actions (2014), and ISTE Student and Teacher standards to give a launch point for teachers and teacher educators to integrate 3D modeling…
Descriptors: Computer Assisted Design, Mathematics Education, Mathematics Teachers, Teacher Education Programs
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Perone, Sammy; Molitor, Stephen J.; Buss, Aaron T.; Spencer, John P.; Samuelson, Larissa K. – Child Development, 2015
Executive functions enable flexible thinking, something young children are notoriously bad at. For instance, in the dimensional change card sort (DCCS) task, 3-year-olds can sort cards by one dimension (shape), but continue to sort by this dimension when asked to switch (to color). This study tests a prediction of a dynamic neural field model that…
Descriptors: Executive Function, Young Children, Manipulative Materials, Color
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Shiakalli, Maria Angela; Zacharos, Konstantinos; Markopoulos, Christos – International Journal for Mathematics Teaching and Learning, 2015
Our research programme, a part of which is presented in this paper, looked at four year old children's ability to use manipulatives in the construction of cube models. We looked at how pre-school children managed the creation of cube nets as a mathematical problem and whether graphical representations of solutions could become a useful tool in a…
Descriptors: Young Children, Manipulative Materials, Models, Preschool Education
Davenport, Jodi L.; Silberglitt, Matt; Boxerman, Jonathan; Olson, Arthur – Grantee Submission, 2014
3D models derived from actual molecular structures have the potential to transform student learning in biology. We share findings related to our research questions: 1) what types of interactions with a protein folding kit promote specific learning objectives?, and 2) what features of the instructional environment (e.g., peer interactions, teacher…
Descriptors: Geometric Concepts, Depth Perception, Spatial Ability, Models
Burczyk, Krystyna – Mathematics Teaching, 2011
In this article, the author discusses the creativity of origami and discusses a model she designed in May 2008 in Freiburg at the 20th International Origami Convention of Origami Deutschland. The model resulted from her investigation of a geometric model that exposes the centre part of a square paper sheet. The base model of the series called…
Descriptors: Foreign Countries, Geometric Concepts, Mathematics Instruction, Conferences (Gatherings)
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Georgeson, Joseph – Mathematics Teaching in the Middle School, 2011
Students enjoy origami and like making everything from paper cranes to footballs out of small, colorful squares of paper. They can invent their own shapes and are intrigued by the polyhedrons that they can construct. Paper folding is fun, but where is the math? Unless teachers develop lessons that address mathematical objectives, origami could be…
Descriptors: Student Interests, Algebra, Mathematics Instruction, Experiential Learning
Stephenson, Paul – Mathematics Teaching, 2010
The ability of interlocking polygonal tiles, like those in the "Polydron Frameworks kit," to flex can give rise to polyhedra whose faces don't quite fit. In this article, the author discusses what happens with polyhedra whose faces don't quite fit. (Contains 2 notes.)
Descriptors: Geometric Concepts, Infants, Mathematical Logic, Thinking Skills
Meenan, Liz – Mathematics Teaching Incorporating Micromath, 2008
When the author began teaching, she always hit a problem when it came to 3D shapes. She wanted the pupils to get a feel for them, and she would get them to make the shapes from their nets. The pupils would first try to visualize how the 2D nets could become 3D shapes and then they would physically fold the nets into the shapes for themselves.…
Descriptors: Geometric Concepts, Mathematics Instruction, Teaching Methods, Manipulative Materials
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Brunton, James – Mathematics in School, 1973
Descriptors: Activity Units, Enrichment, Experiential Learning, Geometric Concepts
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Spaulding, Raymond E. – Mathematics Teacher, 1974
Descriptors: Discovery Learning, Experiential Learning, Geometric Concepts, Instructional Materials
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Rapaport, William J. – Mathematics Teacher, 1974
Descriptors: Elementary School Mathematics, Geometric Concepts, Instruction, Manipulative Materials
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Picciotto, Henri; Wah, Anita – Journal of Mathematical Behavior, 1993
Presents 24 activities related to the theme of area to illustrate how algebra can empower students, not impede their progress. Activities use grid tools, manipulatives, computational tools, and paper-and-pencil tools to facilitate access, discourse, independence, and multiple representations. Well-chosen themes offer connections, motivation,…
Descriptors: Algebra, Area, Calculators, Geometric Concepts