Skip to main content
Home
plus.maths.org

Secondary menu

  • My list
  • About Plus
  • Sponsors
  • Subscribe
  • Contact Us
  • Log in
  • Main navigation

  • Home
  • Articles
  • Collections
  • Podcasts
  • Maths in a minute
  • Puzzles
  • Videos
  • Topics and tags
  • For

    • cat icon
      Curiosity
    • newspaper icon
      Media
    • graduation icon
      Education
    • briefcase icon
      Policy

    Popular topics and tags

    Shapes

    • Geometry
    • Vectors and matrices
    • Topology
    • Networks and graph theory
    • Fractals

    Numbers

    • Number theory
    • Arithmetic
    • Prime numbers
    • Fermat's last theorem
    • Cryptography

    Computing and information

    • Quantum computing
    • Complexity
    • Information theory
    • Artificial intelligence and machine learning
    • Algorithm

    Data and probability

    • Statistics
    • Probability and uncertainty
    • Randomness

    Abstract structures

    • Symmetry
    • Algebra and group theory
    • Vectors and matrices

    Physics

    • Fluid dynamics
    • Quantum physics
    • General relativity, gravity and black holes
    • Entropy and thermodynamics
    • String theory and quantum gravity

    Arts, humanities and sport

    • History and philosophy of mathematics
    • Art and Music
    • Language
    • Sport

    Logic, proof and strategy

    • Logic
    • Proof
    • Game theory

    Calculus and analysis

    • Differential equations
    • Calculus

    Towards applications

    • Mathematical modelling
    • Dynamical systems and Chaos

    Applications

    • Medicine and health
    • Epidemiology
    • Biology
    • Economics and finance
    • Engineering and architecture
    • Weather forecasting
    • Climate change

    Understanding of mathematics

    • Public understanding of mathematics
    • Education

    Get your maths quickly

    • Maths in a minute

    Main menu

  • Home
  • Articles
  • Collections
  • Podcasts
  • Maths in a minute
  • Puzzles
  • Videos
  • Topics and tags
  • Audiences

    • cat icon
      Curiosity
    • newspaper icon
      Media
    • graduation icon
      Education
    • briefcase icon
      Policy

    Secondary menu

  • My list
  • About Plus
  • Sponsors
  • Subscribe
  • Contact Us
  • Log in
  • The maths sense

    4 November, 2013

    You don't need to count to see that five apples are more than three oranges: you can tell just by looking. That's because we, as well as many animal species, are born with a sense for number that allows us to judge amounts even without being able to count. But is that inborn number sense related to the mathematical abilities people develop later on, or is learnt maths different from innate maths?

    Baby

    In one part of the experiments children were shown two different arrays and asked to choose which one had more dots without counting them. Image courtesy of Duke University.

    New research from the Duke Institute for Brain Sciences suggests that it's the former. "When children are acquiring the symbolic system for representing numbers and learning about maths in school, they're tapping into this primitive number sense," said Elizabeth Brannon, a professor of psychology and neuroscience, who led the study. "It's the conceptual building block upon which mathematical ability is built."

    Brannon and graduate student Ariel Starr worked with 48 six-months-old babies, who they sat in front of two screens. One screen always showed them the same number of dots (eg 8) which changed their size and position. The other screen switched between two numerical values (eg 8 and 16 dots) which also changed size and position. Most babies are interested in things that change, so if a baby looked longer at the screen on which the numerical values were changing, the researchers assumed that it had spotted the difference.

    Brannon and Starr then tested the same children three years later. Again they were asked to judge amounts of dots without counting them. But in addition they were given a standardised maths test suitable for their age, an IQ test and a verbal task to find out the largest number word they could understand. "We found that infants with higher preference scores for looking at the numerically changing screen had better primitive number sense three years later compared to those infants with lower scores," Starr said. "Likewise, children with higher scores in infancy performed better on standardised maths tests."

    This suggests that we do build on our inborn number sense when we come to learn symbolic maths using numerals and symbols. But there's no reason to despair (or excuse for laziness) if you feel you were short-changed at birth. Education is still the most important factor in developing maths ability. "We can't measure a baby's number sense ability at 6 months and know how they'll do on their SATs," Brannon added. "In fact our infant task only explains a small percentage of the variance in young children's maths performance. But our findings suggest that there is cognitive overlap between primitive number sense and symbolic math. These are fundamental building blocks."

    Understanding how babies and young children conceptualise and understand number can lead to new mathematics education strategies, according to Brannon. In particular, this knowledge can be used to help young children who have trouble learning mathematical symbols and basic methodologies. The new results, published in the Proceedings of the National Academy of Sciences, confirm previous research into the link between our inborn number sense and later mathematical ability.

    Read more about...
    mathematical reality
    mathematics education
    innate mathematical ability
    • Log in or register to post comments

    Read more about...

    mathematical reality
    mathematics education
    innate mathematical ability
    University of Cambridge logo

    Plus is part of the family of activities in the Millennium Mathematics Project.
    Copyright © 1997 - 2025. University of Cambridge. All rights reserved.

    Terms