Math: Side by SideNotice More. Wonder Together.

Tools for your side of the table

Visual Models

Make an idea visible. Explore ways to represent numbers, fractions, decimals, and relationships—then talk about what the picture shows.

Start with the whole. Name what one whole means, then connect the objects, picture, and symbols. Model choices are anchored to Models in Bridges (The Math Learning Center, 2017), especially pages 1–10. The drawings and examples here are original; later-grade models extend the ideas beyond that guide.

These bands are starting points, not tests. The overlaps let you revisit an idea or explore what comes next. Choose what fits your child’s thinking.

Kindergarten & 1st

Count, see parts, and connect quantities to numbers.

Ten-frame

Seeing seven

One ten-frame. Seven counters.5 + 2 = 7 • 3 more make 10

A ten-frame arranges objects in two rows of five. The spaces make groups of five and ten visible.

Ask your child“How can you see seven without counting every counter?”
What to listen for & explore

Look for five and two, or a full ten with three spaces empty. Move seven real objects into another arrangement and discuss what stayed the same.

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Part–whole model

A whole and its parts

One amount, two parts7527 is 5 and 2 together

A whole amount can be broken into parts and put back together. The lines connect the parts to the whole.

Ask your child“If seven is five and two, what other parts could make seven?”
What to listen for & explore

Try four and three, six and one, or seven and zero with objects. All represent the same total; the parts change.

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Number rack

Five is a useful anchor

See 8 as 5 and 38 beads together2 left5 + 3 = 8 • 8 + 2 = 10

A number rack groups beads in fives. Sliding beads together makes parts of a number visible.

Ask your child“Where do you see five? How many more make eight?”
What to listen for & explore

Invite five and three or two groups of four. The two beads left over help show that eight needs two more to make ten. Bridges connection: counting and addition models, pages 1–2.

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2nd & 3rd

Make tens, build equal groups, and begin exploring equal parts.

Base-ten drawing

Tens are groups of ones

34 = 3 tens + 4 ones304

Each long rod contains ten little squares. The four separate squares represent four more ones.

Ask your child“Could you show 34 with two tens? What else would you need?”
What to listen for & explore

Two tens and fourteen ones also make 34. Trading a ten for ten ones changes the representation, not the amount. This supports regrouping.

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Array

Multiplication has structure

3 rows of 43 × 4 = (2 × 4) + (1 × 4) = 12

Rows and columns organize equal groups. Splitting an array connects a new multiplication fact to facts your child already knows.

Ask your child“Where do you see two groups of four? Where is one more group?”
What to listen for & explore

Two rows have eight counters and the third has four. Together they make twelve. Turn the array to explore four groups of three.

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Equal-length strips

Fractions name equal parts

The same whole, split equally1/21/2 = 2/4

The whole matters. Each strip here is the same length, and each is divided into equal parts.

Ask your child“How can one shaded part and two shaded parts show the same amount?”
What to listen for & explore

The parts have different sizes. One of two equal parts covers the same length as two of four equal parts. Keep the wholes equal when comparing.

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Open number line

A jump can be a useful part

38 + 27: make a friendly ten38406065+2+20+527 = 2 + 20 + 5

Begin at 38 and break 27 into 2, 20, and 5. This scaled drawing shows one possible route; your child can sketch another.

Ask your child“Why might we stop at 40? Where is all of the 27?”
What to listen for & explore

Two reaches 40, twenty reaches 60, and five reaches 65. Compare adding 20 and then 7. Bridges connection: place-value and number-line models, page 3. Try these jumps in Math Meadow →

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4th & 5th

Connect fractions, decimals, and the size of the whole.

Equivalent fraction strips

Same amount, different names

Keep the whole the same size3/46/83/4 = 6/8

Both strips represent one identical whole. Smaller pieces can describe the same shaded length.

Ask your child“What changed when each fourth was split in two? What stayed the same?”
What to listen for & explore

The number of equal pieces doubled, and so did the number of shaded pieces. The shaded amount is still three fourths, now named six eighths.

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Interactive hundred grid

A decimal is a quantity

The entire square represents 1 whole1 small square= 1/100= 0.01

The full grid is one whole. Each small square is one hundredth; each full row is one tenth. Move the slider to connect the picture, fraction, and decimal.

Ask your child“What changes in the picture when 0.35 becomes 0.40?”
What to listen for & explore

Five more hundredths are shaded. At 0.40, forty hundredths make four tenths. Ask why 0.4 and 0.40 describe the same amount.

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Double number line

Fractions share a location

One location, two fraction names01/42/43/4101/82/83/84/85/86/87/813/4 = 6/8

The zero and one line up on both number lines. Each fourth covers the same distance as two eighths.

Ask your child“Why do ¾ and 6/8 line up?”
What to listen for & explore

The unit whole and the location stay fixed while the number of equal parts changes. Bridges connection: fractions and decimals, page 7.

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Egg-carton model

A whole can be a set

The whole set is 12 spaces8/12 = 2/3 of the set is filled

Here, one whole means all twelve spaces in a carton. Eight filled spaces can be grouped into two of three equal groups of four.

Ask your child“What is the whole? How can eight eggs be two thirds of it?”
What to listen for & explore

Twelve spaces make the whole set. Each group of four is one third; two groups are filled. Bridges connection: egg cartons, page 7.

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Geoboard

Area can name a fraction

Count the spaces, not the pegs8 of 16 square spaces = 1/2

Five pegs along each edge enclose four spaces. The entire square is one whole, with sixteen equal square units.

Ask your child“Why are we counting sixteen spaces even though there are twenty-five pegs?”
What to listen for & explore

Pegs mark boundaries. Area counts the enclosed square units. Eight shaded squares cover one half of the whole. Bridges connection: geoboards, page 8.

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Partial-products area model

Multiplication fits together

12 × 14: every part has a place10 × 10 = 10010 × 42 × 10 = 202 × 4 = 8104102= 40100 + 40 + 20 + 8 = 168

Split 12 into 10 and 2, and 14 into 10 and 4. The four regions account for the whole rectangle.

Ask your child“Where would 2 × 4 appear? What if we forgot that corner?”
What to listen for & explore

The corner contributes eight square units. Every part matters: 100 + 40 + 20 + 8 = 168. Bridges connection: multi-digit multiplication, page 6.

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5th & 6th

Make sense of fraction and decimal operations through models and quantities.

Fraction area model

Multiplying fractions means scaling

The whole rectangle represents 1 cupBlue + coral: 3/4 cupCoral: 1/2 of 3/4 = 3/8 cup

A full recipe needs ¾ cup of oats. Half a batch needs half of that amount. The coral region shows the amount you will use.

Ask your child“Why is half of ¾ cup smaller than ¾ cup?”
What to listen for & explore

Three fourths is six eighths of the cup. Half of those six eighths is three eighths. The factor ½ scales the positive amount down.

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Decimal area model

Multiplying decimals has a size

0.6 × 0.4: six tenths of four tenths24 overlappingsmall squares24/100= 0.24

The entire grid is one. Six tenths of its width and four tenths of its height overlap in 24 hundredths.

Ask your child“Should 0.6 × 0.4 be larger or smaller than 0.6? How does the picture explain it?”
What to listen for & explore

Four tenths of six tenths covers 24 small squares out of 100, or 0.24. In a price story, 0.6 meters at $0.40 per meter costs $0.24.

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Measurement division

Division asks how many fit

How many 1/8-cup scoops fit in 3/4 cup?123456Each part is 1/8 cup3/4 ÷ 1/8 = 6 scoops

You have ¾ cup of rice and a ⅛-cup scoop. Each shaded piece represents one full scoop.

Ask your child“How many scoops fit? How does the picture help you see it?”
What to listen for & explore

Three fourths is six eighths. Six scoops of one eighth fill three fourths. Division by a small positive amount can produce a count larger than the original number.

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Ratio table

A recipe becomes a relationship

Scale both quantities togetherBatchesOats (cups)13/421 1/243Double the batches → double the oats

Each batch uses ¾ cup of oats. The table keeps batches and cups connected.

Ask your child“How could two batches help us figure out four?”
What to listen for & explore

Double both quantities. One and a half cups becomes three cups. Bridges connection: ratio tables for fraction and decimal operations, page 10.

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6th & 7th

Explore rates, percents, and changes that cross zero.

Double number line

Keep two quantities connected

The same relationship on two number linesNotebooks01234Cost ($)0369121 notebook ↔ $3 • 4 notebooks ↔ $12

Each notebook costs $3 in this example. Matching positions connect the number of notebooks and their total cost.

Ask your child“If the number of notebooks doubles, what happens to the cost?”
What to listen for & explore

At a constant $3 per notebook, both quantities scale together. Four notebooks cost $12. This relationship assumes no extra fee or discount.

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Signed number line

Negative numbers describe position

A change of +5 from −2-4-3-2-101234+5−2 + 5 = 3

The temperature starts at −2°C and rises 5 degrees. Position and change are different ideas: −2 is the start, +5 is the move.

Ask your child“Why does a rise of five degrees take us past zero?”
What to listen for & explore

Two degrees take us from −2 to zero, and three more take us to 3. Break the change into parts to see why −2 + 5 = 3.

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Percent bar

Percent means a part of 100

The whole price is $40$8$8$8$8$820% = 1/5 • 20% of $40 = $8$40 − $8 = $32 before tax

In this example, a $40 item is discounted by 20%. The bar shows five equal parts because 20% is one fifth.

Ask your child“Is $8 the discount or the price you pay? How can the bar show both?”
What to listen for & explore

One fifth of $40 is $8: the amount taken off. Four fifths remain, so the price before tax is $32. Always name what the percent refers to.

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8th & beyond

Connect patterns, graphs, equations, and geometric relationships.

Graph, rule, and context

A graph tells a relationship

Rental example: y = 2x + 1024681001234Hours (x)Cost ($)(3, 7)$1 to start + $2 per hour

A rental costs $1 to start and $2 per hour. The rule y = 2x + 1, the graph, and the story describe the same pricing plan.

Ask your child“Where do you see the starting fee? Where do you see the hourly rate?”
What to listen for & explore

The graph crosses the vertical axis at 1. Every increase of one hour adds $2, so the slope is 2 dollars per hour. At three hours, the cost is $7.

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Right-triangle model

Geometry helps measure a shortcut

A right-angle shortcut3 m4 m5 m3² + 4² = 9 + 16 = 25 = 5²

Two perpendicular paths measure 3 meters and 4 meters. Their straight-line shortcut is the hypotenuse of a right triangle.

Ask your child“Why is the diagonal shorter than walking both sides, but longer than either side?”
What to listen for & explore

The Pythagorean relationship gives 3² + 4² = 5², so the diagonal is 5 meters. The right angle is essential; this rule does not apply to every triangle.

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