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Showing 1 to 15 of 22 results Save | Export
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Lucy Robertson; Jeana Kriewaldt; Natasha Ziebell – Geographical Education, 2023
Humans use space as a lens to navigate and make sense of the world, thus successfully applying spatial concepts is an important life skill. Spatial thinking and developing spatial concepts are core components of school Geography curricula. Teachers teach geographical skills systematically aligning to the curriculum; however, students can struggle…
Descriptors: Urban Areas, Parks, Geography Instruction, Design
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Sartori, Mariana; Peralta, Olga – Journal for the Study of Education and Development, 2022
Young children increasingly interact with technological devices, either as a form of entertainment or for educational purposes. This research sought to investigate the early symbolic understanding of an interactive, three-dimensional digital image presented on a tablet. Two studies were designed in which the children had to use the image as a…
Descriptors: Young Children, Spatial Ability, Geometric Concepts, Depth Perception
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Mix, Kelly S.; Levine, Susan C.; Cheng, Yi-Ling; Stockton, Jerri DaSha; Bower, Corinne – Journal of Educational Psychology, 2021
A pretest-training-posttest design assessed whether training to improve spatial skills also improved mathematics performance in elementary-aged children. First grade students (mean age = 7 years, n = 134) and sixth grade students (mean age = 12 years, n = 124) completed training in 1 of 2 spatial skills--spatial visualization or form…
Descriptors: Grade 1, Grade 6, Mathematics Achievement, Spatial Ability
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Shuwairi, Sarah M.; Tran, Annie; Belardo, John; Murphy, Gregory L. – Infant and Child Development, 2020
Prior work showed that infants look longer at impossible figures than possible ones, although it is unclear whether they or older children understand "impossibility." We employed a series of matching and sorting tasks with pictures and objects to evaluate children's knowledge of this dimension. In Experiment 1, nearly all children…
Descriptors: Concept Formation, Spatial Ability, Preschool Children, Error Patterns
Mix, Kelly S.; Levine, Susan C.; Cheng, Yi-Ling; Stockton, Jerri DaSha; Bower, Corinne – Grantee Submission, 2020
A pretest-training-posttest design assessed whether training to improve spatial skills also improved mathematics performance in elementary-aged children. First grade students (mean age = 7 years, n = 134) and sixth grade students (mean age = 12 years, n = 124) completed training in 1 of 2 spatial skills-spatial visualization or form…
Descriptors: Grade 1, Grade 6, Mathematics Achievement, Spatial Ability
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Erden Ozcan, Sule; Bal, Ayten Pinar – Cypriot Journal of Educational Sciences, 2019
The purpose of this study is to analyse geometric transformations of children in the early childhood period. The study utilised a case study to design one of the qualitative research methods. Interviews were conducted with 6-, 7- and 8-year-old children, in total 24 children, who were enrolled in a private pre-school and a primary school of the…
Descriptors: Transformations (Mathematics), Young Children, Preschools, Elementary Schools
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Solomon, Tracy L.; Vasilyeva, Marina; Huttenlocher, Janellen; Levine, Susan C. – Developmental Psychology, 2015
Understanding measurement units is critical to mathematics and science learning, but it is a topic that American students find difficult. In 3 studies, we investigated the challenges underlying this difficulty in kindergarten and second grade by comparing performance on different versions of a linear measurement task. Children measured crayons…
Descriptors: Children, Spatial Ability, Concept Formation, Measurement
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Mandler, Jean M. – Cognitive Science, 2012
A theory of how concept formation begins is presented that accounts for conceptual activity in the first year of life, shows how increasing conceptual complexity comes about, and predicts the order in which new types of information accrue to the conceptual system. In a compromise between nativist and empiricist views, it offers a single…
Descriptors: Concept Formation, Theories, Cognitive Processes, Attention
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Lange-Kuttner, C. – Developmental Psychology, 2009
The current study analyzed figure size modification in different types of spatial context (C. Lange-Kuttner, 1997, 2004) for sequence and practice effects. Children of 7, 9, and 11 years of age, as well as 17-year-olds, drew figures in a series of ready-made spatial axes systems, which (a) logically increased in dimensional complexity as in child…
Descriptors: Foreign Countries, Children, Concept Formation, Child Development
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Pillow, Bradford H.; Flavell, John H. – Child Development, 1986
Four experiments investigated three- and four-year-old children's knowledge of projective size-distance and projective shape-orientation relationships. Results indicated that preschool children's understanding of these relationships seems at least partly cognitive rather than wholly perceptive, providing further evidence for the acquisition of…
Descriptors: Age Differences, Concept Formation, Preschool Children, Spatial Ability
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Sophian, Catherine – Developmental Psychology, 1984
Examines mastery of spatial-transposition problems by 20-, 30-, and 42-month-old children. Subjects performed well on irrelevant transpositions of three cups. However, on relevant transpositions the correct cup was not selected until 42 months. Results suggest that children initially acquire search patterns on an experimental basis and gradually…
Descriptors: Age Differences, Behavior Patterns, Concept Formation, Exploratory Behavior
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Coley, John D.; Gelman, Susan A. – Child Development, 1989
Investigated the interpretation of the word "big" by 40 children of 3 to 5 years. The type and orientation of objects used in the study were varied. Results demonstrated that contextual factors influenced children's responses. (RJC)
Descriptors: Age Differences, Cognitive Processes, Concept Formation, Language Acquisition
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Uttal, David H.; Fisher, Joan A.; Taylor, Holly A. – Developmental Science, 2006
People acquire spatial information from many sources, including maps, verbal descriptions, and navigating in the environment. The different sources present spatial information in different ways. For example, maps can show many spatial relations simultaneously, but in a description, each spatial relation must be presented sequentially. The present…
Descriptors: Maps, Concept Formation, Cognitive Mapping, Spatial Ability
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And Others; Worthington, R. Kirby – Perceptual and Motor Skills, 1980
Thirty-two preschool children were matched by age, sex, and pretest scores on spatial concept knowledge. Four groups were (1) instruction (see and hear) only, (2) verbal repetition, (3) fine motor treatment (hand manipulation), and (4) gross motor treatment (body movement). There was no difference in performance between groups given instruction…
Descriptors: Age Differences, Concept Formation, Learning Modalities, Motor Development
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Quinn, Paul C.; Adams, Adria; Kennedy, Erin; Shettler, Lauren; Wasnik, Amanda – Developmental Psychology, 2003
Nine experiments examined 6- to 10-month-olds' formation of an abstract category representation for "between." Findings indicated that older, but not younger infants, could form an abstract category representation for "between" when performing in an object-variation version of the between categorization task. Six- to…
Descriptors: Age Differences, Classification, Cognitive Development, Concept Formation
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