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From infancy to adulthood: the development of numerical abilities
1Department of Psychology, University of Missouri at Columbia, 65211-2500, USA. GearyD@Missouri.edu
European Child & Adolescent Psychiatry
|January 4, 2001
Summary
Early math skills are innate and universal, while later academic math abilities depend on education and vary widely. This impacts understanding learning disabilities like dyscalculia.
Area of Science:
- Cognitive Development
- Mathematical Cognition
- Educational Psychology
Background:
- Quantitative skills develop across the lifespan, from infancy through old age.
- Early emerging numerical competencies appear to be biologically predetermined and universal.
- Later acquired mathematical abilities are influenced by formal education and societal factors.
Purpose of the Study:
- To review developmental and school-related changes in basic number, counting, and arithmetic skills.
- To differentiate between inherently based and educationally acquired quantitative competencies.
- To explore the implications of variability in secondary quantitative abilities for research on cognitive impairments.
Main Methods:
- Literature review of developmental changes in quantitative skills.
- Analysis of the origins of basic numerical competencies (biological primary vs. secondary).
- Examination of factors influencing the development of school-based mathematical abilities.
Main Results:
- Infancy and preschool quantitative skills are largely universal, reflecting an inherent cognitive system.
- School-acquired mathematical abilities lack a direct inherent foundation and show significant cross-cultural and generational variation.
- Variability in secondary quantitative skills complicates the study of pathological conditions (e.g., dyscalculia) and aging effects.
Conclusions:
- Distinguishes between innate, universal early math skills and learned, variable later math skills.
- Highlights the crucial role of education in shaping mathematical abilities beyond basic numeracy.
- Suggests that individual differences and educational contexts are key factors in understanding mathematical development and disorders.