Math // Mathematical Thinking
Real-World to Maths Connections
Move between a real-world situation and a mathematical representation using concrete objects, drawings, diagrams, tables, number sentences, or bar models
Quick check
If the learner is working out a real-life maths problem — like sharing 8 sweets between 2 people — can they use objects or draw a picture to show what's happening before writing any numbers?
Ask this to see whether the topic is secure.
Topic // Mastery
What mastery looks like
- Given a story about combining groups, represent it with counters or cubes and find the total
- Given a set of objects, tell a simple addition or subtraction story to match
- Connect a physical action (putting together, taking away) to the matching operation
Topic // Map
Where this fits
- RequiredMust come first
- HelpfulHelps, but not essential
Before this
2 topicsAddition & Subtraction // Ages 4 to 6
Solving word problems within 10 with objects requires translating between situation and representation
Addition & Subtraction // Ages 4 to 6
Representing addition/subtraction with objects and drawings is the core exercise of early quantitative reasoning
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Real-World to Maths Connections
Ages 5 to 6 // Thinking skill
Leads to
1 topic- Connecting RepresentationsRequired
Mathematical Thinking // Ages 6 to 7
Age 6-7 quantitative reasoning builds on age 5-6 concrete-to-representation skills
Topic // Research-informed
Teaching notes
From the Marble Skill Taxonomy. These notes have not been validated in classrooms, so treat them as a starting point for your own judgement.
The approach
For 5-6 year olds, quantitative reasoning is a two-way translation between a real situation and a concrete/pictorial model: acting out 'five ducks and two more swim up' with cubes, AND going the other way — given cubes, telling a matching story. The heart (CCSS MP2) is attending to the MEANING of quantities, not just producing a total: knowing THIS cube stands for a duck, that 5 and 2 are the parts and the whole is the total, and that 'putting together' is what makes it addition. Taught through story-acting and the concrete→pictorial bridge NCETM describes for the youngest bar model: line objects up, stand a drawn bar beside them, and ask 'what's the same, what's different?' so the picture is understood as an abstraction of the real thing.
Common misconceptions
- Treats the model as a picture of two separate amounts, not a relationship — lays out 5 and 2 but cannot say which is the whole or show the joining
- Loses the exact quantities when telling a story from objects ('some ducks and some more') instead of preserving 5 and 2
- Produces the total by counting all but cannot point to the parts or the action inside the model
- Picks the operation from a word ('more' → add) rather than from what happens in the situation
Useful representations
- Counters/cubes for acting out and combining/separating
- Five-frame and ten-frame for structuring the quantities
- Part-whole picture: two groups lined up with a drawn bar beside them (the bar model's earliest form)
- Simple number sentence (with +, −) as the symbolic end of the concrete→pictorial→abstract bridge
Teaching practices
- Act stories out with concrete objects first, then draw alongside, so the child sees the drawing as standing FOR the objects (NCETM's line-up→cubes→bar sequence with 'what's the same, what's different?')
- Insist the child name the referent of each quantity ('the 5 is the ducks already there') — MP2's 'attend to the meaning of quantities, not just how to compute'
- Work translation in BOTH directions: situation→model AND model→story, so the child is not just illustrating answers but reading meaning off a representation
- Pair children (one moves cubes, one draws/records) so the mapping between concrete and pictorial is talked aloud
- Connect the physical action to the operation explicitly — putting together = addition, taking away = subtraction — rather than letting the child guess from words
Activities to try
- 1
Build the story, then flip it
Why it works: The model carries meaning in both directions: numbers stand for ducks, the joining stands for adding, and the child can travel from world to symbol and back — the model is not a picture of an answer but a thing that holds a relationship.
- Listen to or watch a short story: 'Five ducks bob on a pond, then two more paddle in.'
- Drag/place five cubes into the left of a part-whole frame and two into the right to match the story.
- Watch a bar form across the top and the sentence 5 + 2 = 7 appear, with the '5' marking the first cubes and the '2' marking the newcomers.
- Point to which cubes are the 5, which are the 2, and show the whole group.
- 'Flip it': take a pile of cubes already split (e.g. 4 and 3) and invent a story the picture could tell — then notice the SAME cubes could be 'four birds and three more' OR 'seven birds, three flew off'.
- 2
Line up, cubes, bar — what's the same, what's different?
Why it works: The bar/picture is an abstraction OF the real objects, not a decoration — and the two parts combine into one whole (part-part-whole), not two unrelated piles.
- Line real objects (toy ducks, counters) up to match a told situation.
- Replace them with linking cubes, then stand a drawn bar alongside the cubes.
- Compare: 'What's the same between the cubes and the bar? What's different?'
- Push the two groups together under one bar to show the whole being made of parts.
- 3
Talk it through with a story partner
Why it works: Naming what each quantity refers to, and the action that joins them, keeps the numbers attached to meaning; saying it aloud makes the concrete→pictorial mapping explicit.
- Listen to a partner (an adult, peer, or in-role puppet) tell a story and build it with cubes.
- Answer 'where's the 5 in your cubes? which bit is the 2? what happened to make it the whole group?'
- When the partner builds a model, say what story it could be — keeping the exact numbers in.
- In pairs, one child moves the cubes while the other draws/records, talking the mapping aloud.
Math // Mathematical Thinking
More in Mathematical Thinking
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