NotesFAQContact Us
Collection
Advanced
Search Tips
Laws, Policies, & Programs
Showing 1 to 15 of 44 results Save | Export
Peer reviewed Peer reviewed
PDF on ERIC Download full text
Debrenti, Edith; László, Beáta – Acta Didactica Napocensia, 2020
Our research focuses on developing elementary students' mental computation skills with the help of card games. Choosing this area of study was motivated by our personal experiences, namely, that mathematics programmes of study do not lay emphasis on this aspect; there are too few hours dedicated to developing this skill, and several mental…
Descriptors: Elementary School Students, Cognitive Development, Games, Mathematics Instruction
Peer reviewed Peer reviewed
Direct linkDirect link
Bakker, Merel; Torbeyns, Joke; Verschaffel, Lieven; De Smedt, Bert – Developmental Psychology, 2023
Children start preschool with large individual differences in their early numerical abilities. Little is known about the importance of heterogeneous patterns that exist within these individual differences. A person-centered analytic approach might be helpful to unravel these patterns and the cognitive and environmental factors that are associated…
Descriptors: Longitudinal Studies, Mathematics Instruction, Mathematics Achievement, Preschool Education
Peer reviewed Peer reviewed
PDF on ERIC Download full text
Siegler, Robert S.; Braithwaite, David W. – Grantee Submission, 2016
In this review, we attempt to integrate two crucial aspects of numerical development: learning the magnitudes of individual numbers and learning arithmetic. Numerical magnitude development involves gaining increasingly precise knowledge of increasing ranges and types of numbers: from non-symbolic to small symbolic numbers, from smaller to larger…
Descriptors: Numeracy, Numbers, Arithmetic, Fractions
Peer reviewed Peer reviewed
Direct linkDirect link
Hallett, Darcy; Nunes, Terezinha; Bryant, Peter – Journal of Educational Psychology, 2010
Previous research on children's conceptual and procedural understanding of fractions, and other arithmetic skills, has led to contradictory conclusions. Some research suggests that children learn conceptual knowledge before procedural knowledge, some suggests that they learn procedural knowledge before conceptual knowledge, and other research…
Descriptors: Mathematics Skills, Concept Formation, Foreign Countries, Arithmetic
Peer reviewed Peer reviewed
Direct linkDirect link
Chandler, Cynthia C.; Kamii, Constance – Journal for Research in Mathematics Education, 2009
The purpose of this study was to investigate children's construction of 10s out of the 1s they have already constructed. It was found that, for many younger children, a dime was something different from 10 pennies even though they could say with confidence that a dime was worth 10 cents. As the children grew older, their performance improved.…
Descriptors: Problem Solving, Arithmetic, Number Concepts, Children
Peer reviewed Peer reviewed
Direct linkDirect link
Sarama, Julie; Clements, Douglas – Young Children, 2009
Children's thinking follows natural developmental paths in learning math. When teachers understand those paths and offer activities based on children's progress along them, they build developmentally appropriate math environments. The authors explain math learning trajectories and why teaching math using the trajectories approach is effective. A…
Descriptors: Concept Formation, Mathematics Instruction, Elementary School Mathematics, Developmental Stages
Peer reviewed Peer reviewed
Direct linkDirect link
Booth, Julie L.; Siegler, Robert S. – Child Development, 2008
This study examined whether the quality of first graders' (mean age = 7.2 years) numerical magnitude representations is correlated with, predictive of, and causally related to their arithmetic learning. The children's pretest numerical magnitude representations were found to be correlated with their pretest arithmetic knowledge and to be…
Descriptors: Pretests Posttests, Achievement Tests, Short Term Memory, Mathematics Skills
Cawley, John F.; Hayes, Anne; Foley, Teresa E. – Rowman & Littlefield Education, 2008
This book includes two main sections: a discussion of problem solving and a section on computation with whole numbers. A primary theme of the text is that problem solving sets the stage for meaning and conceptual development with respect to numbers. The section on problem solving includes numerous problem-solving activities that have a dual…
Descriptors: Comprehension, General Education, Learning Disabilities, Numbers
Peer reviewed Peer reviewed
Direct linkDirect link
Kamii, Constance; Rummelsburg, Judith – Teaching Children Mathematics, 2008
To build cognitive foundation for number, twenty-six low-performing, low-SES first graders did mathematical physical-knowledge activities, such as "bowling," during the first half of the year. As their arithmetic readiness developed, they tried more word problems and games. At the end of the year, these children did better in mental arithmetic and…
Descriptors: Textbooks, Mental Computation, Number Concepts, Word Problems (Mathematics)
Peer reviewed Peer reviewed
Direct linkDirect link
Baroody, Arthur J.; Brach, Catherine; Tai, Yu-chi – Cognition and Instruction, 2006
A schema based view of addition development is compared with Siegler's latest strategy-choice model, which includes an addition goal sketch (a basic understanding of "the goals and causal relations" of addition; Siegler & Crowley, 1994, p. 196). This metacognitive component in the latter model is presumed to develop as a child practices a basic…
Descriptors: Arithmetic, Mathematics Instruction, Models, Cognitive Development
Peer reviewed Peer reviewed
Pauli, P.; Bourne, L. E., Jr.; Birbaumer, N. – Mathematical Cognition, 1998
Presents a study in which participants were trained on nine single-digit multiplication problems over three sessions. Transfer of practice was tested with nine different multiplication problems in the fourth session for half the participants. Interprets problem-size, transfer, and retention effects within a network-interference model of mental…
Descriptors: Arithmetic, Cognitive Ability, Cognitive Development, Elementary Education
Moser, James M. – 1972
The arithmetic portion of the Developing Mathematical Processes (DMP) program, as it applies to children of ages 5 to 8, is described in some detail. The terminal objective of the number program of the primary segment of DMP is the ability of the child to correctly write, read and validate mathematical sentences of the form A = B plus or minus X.…
Descriptors: Arithmetic, Cognitive Development, Early Childhood Education, Elementary School Mathematics
Peer reviewed Peer reviewed
Chard, David; Gersten, Russell – Journal of Special Education, 1999
Examines the concept of number sense in mathematics learning, compares this concept to that of phonological awareness in reading, and urges application of existing research to improving mathematics instruction for students with mathematical disabilities. Reviews research on building automaticity with basic facts, adjusting instruction to address…
Descriptors: Arithmetic, Cognitive Development, Concept Formation, Dyscalculia
Kamii, Constance – 1994
Equivalent fractions are usually introduced in fourth grade and reviewed repeatedly in the subsequent grades as the four arithmetical operations are taught. In spite of this repeated instruction, the results are disappointing. This paper reviews some data from previous research documenting the difficulty of equivalent fractions, explains this…
Descriptors: Arithmetic, Cognitive Development, Elementary School Mathematics, Fractions
Peer reviewed Peer reviewed
Christou, Constantinos; Philippou, George – Journal for Research in Mathematics Education, 1998
Investigates the effect of mental schemes corresponding to additive and multiplicative situations in the process of interpreting and solving problems. Classifies relative difficulties of problems according to their situations which are considered through a written test administered to pupils in grades 2, 3, and 4. Supports the assumption that…
Descriptors: Addition, Arithmetic, Cognitive Development, Concept Formation
Previous Page | Next Page »
Pages: 1  |  2  |  3