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Children’s Mathematical Graphics (CMG)

What are Children’s Mathematical Graphics?                                                                                                                                          

We originated

 We originated this term to describe the marks, signs and

symbols that children freely and, (often spontaneously)

choose to use to communicate their mathematical thinking.

Our use of the word graphics refers to young children's early

marks for 'drawing' and include scribbles, lines, dots,

drawings, tally marks, crosses, ticks, arrows, occasional

drawings, children’s early emergent) writing, invented

signs, and gradually standard abstract mathematical symbols.

Young children use their early marks and signs to make

meanings  to communicate their thinking.

     These marks signs, and symbols originate in their earliest

and in their very earliest marks for 'drawing' (e.g., Lancaster,

2003; 2014). We have included the word Children's to

emphasise the significance of the children's role and agency

in their mathematics.

    Children's mathematical graphics are truly remarkable, and relentlessly intriguing!

 

Close the gap!

We developed Children's Mathematical Graphics to help young children come to understand the formal system of mathematics, through at first using their own, intuitive ways of representing their mathematical thinking, including their own signs and symbols. In order to 'close the gap' of which Martin Hughes (1986) wrote, children need many opportunities to communicate through graphicacy in their own ways. Hughes urged teachers to "build on children's own strategies" and to "respect children's invented symbolism' (pp.176/177), and these are at the heart of Children's Mathematical Graphics.

 

Note: Children’s mathematical signs and representations are variously termed external representations; inscriptions; notations; cultural, psychological or symbolic tools; emergent models; schematisations; visual signs, and (from Worthington & Carruthers, 2003), Children’s Mathematical Graphics. All of the of the examples we have gathered arose freely, naturally and spontaneously, without any adult guiding or telling a child what to do.

 

EXAMPLES

 

    Hughes, M. (1986). Children and Number: Difficulties in learning mathematics. Basil Blackwell.

 

    Lancaster, L. (2003). Moving into literacy: How it all begins. In N. Hall, J. Larson & J. Marsh (Eds.).

    Handbook of Early Childhood Literacy. Sage.

 

    Lancaster, L. (2005). The emergence of suymbolic principles: The distributions of mind in early sign

    making. Biosemiotics, 7(1), 19-47.

 

    Worthington, M. & Carruthers, E. (2003). Children's Mathematics: Making Marks, Making Meanings.

    (1st ed.). Paul Chapman.

 

 

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