Friday, 6 February 2026

Teaching learners with Dyscalculia

 Writing


Easy Read — Long Multiplication Difficulties in Dyscalculia
For Teachers, Tutors, Lecturers & Support Staff


Understanding the Difficulty

Some learners with Dyscalculia are confident with times tables.

They may know:

2 × 6
5 × 4
7 × 3

But when maths becomes long multiplication, the difficulty increases.

This is because long multiplication requires:

• Memory
• Sequencing
• Layout awareness
• Place value understanding
• Multiple steps at once


Learner Lived Experience Example

A learner may say:

“I’m okay with times tables, but long multiplication crosses over in my head.”

They often understand the first step (units column).

For example:

  23
×  4

They can do:

4 × 3 = 12 ✔️
Write 2, carry 1 ✔️

But when moving to the left side:

4 × 2 = ?

Their memory may freeze or jumble because they are thinking:

• Did I carry the 1?
• Which number do I multiply next?
• Do I add first or multiply first?

This creates confusion and anxiety.


Crossing Over Difficulty

When multiplication has more than one row, the confusion increases.

Example:

  23
× 14

Learners may struggle with:

• Which row to start next
• Where to put the zero
• When to add the rows
• Remembering the carried numbers

They may say:

“I don’t know which one I work on next or last.”

This is a sequencing and working memory difficulty — not lack of effort.


Why This Happens

Long multiplication uses many brain skills at once:

• Holding numbers in short-term memory
• Switching between steps
• Tracking columns
• Remembering carries
• Understanding place value

For Dyscalculic learners, this overloads processing capacity.


Support Strategies for Teachers

1️⃣ Use Grid / Box Method

Break numbers into boxes:

20 | 3
10 | 4

Multiply each box separately.

This removes the “cross over” confusion.


2️⃣ Colour Code Columns

Use colours for:

• Units
• Tens
• Hundreds

This helps learners track where they are working.


3️⃣ Cover Unused Columns

Let learners cover parts not in use yet.

This reduces visual overload.


4️⃣ Step Cards

Provide a step list:

  1. Multiply units

  2. Carry number

  3. Multiply tens

  4. Add carry

  5. Move to next row

Learners can tick steps off.


5️⃣ Allow Times Table Aids

Knowing tables is not the issue — memory load is.

Aids reduce pressure.


6️⃣ Use Calculators for Checking

Encourage:

• Attempt first
• Check after
• Review mistakes calmly


Emotional Support

Learners may feel:

• Embarrassed
• Frustrated
• Mentally “stuck”
• Slow compared to peers

Reassure them:

This is a processing difference, not intelligence.


Key Message

A learner can understand multiplication…

…but still struggle with long multiplication layout and sequencing.

Support should focus on:

• Visual structure
• Step reduction
• Memory aids
• Confidence building

Easy Read — Division & Fractions Difficulties in Dyscalculia
For Teachers, Tutors, Lecturers & Support Staff


The “Mind Barrier” Experience

Some learners with Dyscalculia describe maths as feeling like hitting a mental wall.

They may say:

“It’s like a mind barrier.”

This usually happens when maths involves:

• Too many steps
• Holding numbers in memory
• Abstract concepts
• Crossing columns
• Sequencing processes

The brain becomes overloaded and shuts down processing.


Division Difficulties

Many learners manage simple (single) division.

For example:

10 ÷ 2
12 ÷ 3
20 ÷ 5

They may use:

• Times tables knowledge
• Fingers
• Repeated subtraction
• Visual grouping

This is often manageable.


Long Division

Long division is where the barrier increases.

It requires learners to:

• Divide
• Multiply
• Subtract
• Bring numbers down
• Repeat steps

All in the correct order.

This is a heavy working-memory task.

Learners may need:

• One-to-one support
• Step charts
• Visual guides
• Calculator checking

Many avoid long division entirely without support — and that is common.


Fractions

Fractions can be another barrier area.

Some learners manage basic fractions, such as:

½
¼
¾

Especially when shown visually (pizza, cake, shapes).

But difficulties arise with:

• Equivalent fractions
• Adding fractions
• Improper fractions
• Converting to decimals
• Fraction division/multiplication

This is because fractions are abstract — they represent parts, not whole numbers.


Why These Areas Are Hard

Division and fractions require:

• Strong number sense
• Place value understanding
• Sequencing
• Working memory
• Visualisation

Dyscalculia affects many of these skills.


Support Strategies

1️⃣ Use Visual Models

Use:

• Pizza diagrams
• Fraction bars
• Counters
• Grouping objects

Seeing parts helps understanding.


2️⃣ Teach Step-by-Step

For division, use a repeat phrase:

Divide → Multiply → Subtract → Bring down

Keep it visible on the desk.


3️⃣ Allow Avoidance of Long Methods (When Appropriate)

In real life:

• Calculators are used
• Apps calculate bills
• Technology supports maths

Functional maths matters more than complex written methods.


4️⃣ Build Real-Life Links

Teach using:

• Money
• Shopping
• Cooking
• Measurements

Concrete examples reduce the “mind barrier.”


Emotional Impact

Learners may feel:

• Anxious
• Embarrassed
• Overwhelmed
• Mentally blocked

Staff should reassure learners that:

This is a recognised learning difficulty — not a personal failure.


Key Message

A learner may manage:

• Basic division
• Simple fractions

…but still need significant support with:

• Long division
• Fraction calculations

This uneven skill profile is typical in Dyscalculia.

riting

Easy Read — Understanding Quarters Using Shapes
Step-by-Step Support for Learners with Dyscalculia


Step 1 — Start With The Whole

First, show the learner a full shape.

Example: A circle.

Explain:

“This is one whole.”

Write:

1 whole


Step 2 — Remind About Halves

Before teaching quarters, link back to halves.

Draw a line through the circle.

Now there are 2 equal parts.

Explain:

“Two halves make one whole.”

Write:

½ + ½ = 1

Make sure the learner is confident here first.


Step 3 — Introduce Quarters

Now split the circle again.

Draw another line across the first line (a cross ✚).

The circle now has 4 equal parts.

Explain slowly:

“These are called quarters.”

“A quarter means one of four equal parts.”

Write:

4 quarters = 1 whole


Step 4 — Show The Number Fraction

Point to one piece.

Explain:

“This is one quarter.”

Write:

¼

Say:

“One out of four.”


Step 5 — Count The Pieces

Point and count together:

1 quarter
2 quarters
3 quarters
4 quarters

Explain:

“When we have all 4 quarters, we have one whole again.”

Write:

¼ + ¼ + ¼ + ¼ = 1


Step 6 — Colour Activity

Ask learner to colour:

• 1 quarter
• 2 quarters (half)
• 3 quarters
• 4 quarters (whole)

This helps visual understanding.


Step 7 — Link Back To Half

Show:

2 quarters = ½

Explain:

“Two quarters make a half.”

This connects old learning to new learning.


Teaching With Other Shapes

Square

Draw a square.

Split into 4 small squares.

Each small square = ¼


Rectangle

Split into 4 equal strips.

Each strip = ¼


Triangle

Split from the centre into 3 or 4 equal parts (use visuals carefully).

Explain only when learner is ready.


Everyday Examples

Use real objects:

• Pizza slices
• Chocolate bars
• Sandwich quarters
• Cakes

Say:

“If we cut pizza into 4 slices, each slice is a quarter.”


Step-By-Step Language For Staff

Use clear phrases:

• “One whole”
• “Cut into 4 equal parts”
• “Each part is a quarter”
• “Four quarters make a whole”

Avoid complex maths language at first.


Key Learning Ladder

Teach in this order:

1️⃣ Whole
2️⃣ Halves
3️⃣ Quarters
4️⃣ Link quarters to halves
5️⃣ Move to other shapes

Do not skip steps.


Key Message

Learners may understand halves…

…but need extra visual, step-by-step teaching to understand quarters.

Shapes + colouring + counting = best practice.


Writing

Easy Read — Teaching Basic Multiplication & Division Together
Support for Learners with Dyscalculia


Why Link Multiplication and Division?

Multiplication and division are connected.

They use the same numbers — just in different ways.

Teaching them together helps learners understand maths relationships.


Start With A Simple Fact

Example:

2 × 2 = 4

Explain in words:

“Two groups of two make four.”


Turn It Into A Division Question

Now show the same numbers differently:

How many 2s are in 4?

Write:

4 ÷ 2 = 2

Explain:

“If we split 4 into groups of 2, we get 2 groups.”


Show It Visually

Draw 4 circles:

● ● ● ●

Group them into 2s:

(● ●) (● ●)

Count the groups:

1 group
2 groups

Answer = 2


Use Real Objects

Use:

• Counters
• Blocks
• Sweets
• Coins

Physically group them.

Hands-on learning strengthens understanding.


Teaching Language

Use simple phrases:

Multiplication:
“Groups of”

Division:
“How many groups?”

Example:

2 × 3 = 6
“Two groups of three make six.”

6 ÷ 3 = 2
“How many 3s are in six?”


More Examples

Example 1

3 × 2 = 6
Two groups of three? or three groups of two (show both).

6 ÷ 2 = 3
How many 2s in 6? = 3


Example 2

5 × 2 = 10

“How many 2s in 10?”

10 ÷ 2 = 5


Example 3

4 × 2 = 8

“How many 2s in 8?”

8 ÷ 2 = 4


Teaching Tip — Fact Families

Show learners number families:

2 × 2 = 4
2 × 2 = 4
4 ÷ 2 = 2
4 ÷ 2 = 2

Same numbers — different symbols.

This builds number relationships.


Why This Helps Dyscalculic Learners

It:

• Reduces memorisation pressure
• Builds logic understanding
• Links concepts together
• Uses repetition safely
• Supports visual grouping


Key Message

If a learner understands:

“2 groups of 2 = 4”

They can also understand:

“How many 2s in 4?”

Multiplication and division become connected, not separate maths problems.

Writing

Easy Read — Age-Respectful Maths Support
Supporting Learners with Dyscalculia & Maths Difficulties


Key Principle

Maths support should match the learner’s needs — not their age.

A learner may be:

• 4 years old
• 14 years old
• 40 years old
• 104 years old

If they did not receive the right teaching earlier, they may still need foundation support now.

There should be no stigma in learning at any age.


Not About Levels — About Processing

Maths difficulty is not always about “low level.”

It is about:

• How the brain processes numbers
• Learning disability impact
• Teaching style received
• Missed education support

Two learners the same age may need very different teaching approaches.


Example — Basic Addition

Maths fact:

4 + 4 = 8

Some learners memorise this.

Others need to see it.


Teaching Young Children

Use real objects.

Example:

4 teddy bears + 4 teddy bears.

Ask:

“How many bears are there now?”

Child counts:

1…2…3…4…5…6…7…8

Answer = 8

This builds number sense.


School-Based Visuals

Teachers may use:

• Bear pictures
• Counters
• Toy blocks
• Classroom objects

Visual grouping helps understanding.


Supporting Older Children & Teenagers

Using teddy bears may feel too young.

Instead use:

• Sports balls
• Phones
• Books
• Game tokens
• Money coins

Example:

4 footballs + 4 footballs = 8

Still visual — but age-appropriate.


Supporting Adults

Adults may feel embarrassed using child-style resources.

Adapt visuals to adult life:

• £/$ coins
• Work tools
• Shopping items
• Coffee cups
• Budget examples

Example:

4 coins + 4 coins = 8 coins

Same maths — respectful context.


Picture Use — Done Respectfully

Pictures should:

• Support learning
• Match age interests
• Avoid babyish tone
• Be optional, not forced

Visual learning is valid at any age.


Important Staff Message

Never assume:

“Too old for object learning.”

Instead think:

“What visual method fits this learner respectfully?”


Inclusive Teaching Mindset

Say:

“Let’s find a way that works for you.”

Not:

“You should know this already.”


Key Message

Foundation maths can be learned at any age.

Whether using:

• Bears
• Footballs
• Coins
• Everyday objects

The goal is understanding — not judgement.

Easy Read — Supporting Employees with Dyscalculia in the Workplace


Dyscalculia and Real-Life Maths

People with Dyscalculia can:

• Understand numbers in some situations
• Struggle with numbers in other situations

For example:

  • When you were in school, you used cubes, played shops, and practised money.

  • You could count and give money in role-play.

  • But working out change in your head was difficult.

Even today, in shops or workplaces:

  • Many tills are computerized.

  • Cards are used a lot.

  • Cash is still used sometimes.

People with Dyscalculia may find it hard to calculate change quickly or accurately in real life.


Why This Matters in Workplaces

  • The world of work is unpredictable.

  • Employees may not always use the same methods they learned in school.

  • Mental calculation under pressure can be stressful.

Without support, people may:

  • Feel embarrassed

  • Make mistakes

  • Lose confidence


Practical Support Employers Can Provide

1️⃣ Accessible Cheat Sheets

  • Provide simple, easy-to-read sheets for staff to check calculations.

  • Example: “If a customer gives $10 for a $6.50 purchase, the change is $3.50.”


2️⃣ Step-by-Step Guides

  • Show the method for giving change or doing calculations.

  • Can be laminated or on screen for reference.


3️⃣ Ask for Help When Needed

  • Employees should know it’s okay to call a manager for guidance.

  • No need to feel embarrassed — it is a workplace support.


4️⃣ Use Technology Where Possible

  • Tills or apps that calculate change

  • Scanners and card readers

  • Digital payment methods

These tools reduce mistakes and stress.


5️⃣ Respect and Understanding

  • Remember: difficulty is not laziness.

  • Employees are trying their best.

  • Simple support creates confidence and independence.


Key Message

People with Dyscalculia can work successfully in any job — with small, respectful adjustments.

Support is about:

  • Reducing embarrassment

  • Preventing mistakes

  • Building confidence

Even if school teaching used cubes or role-play, adults need practical, workplace-focused tools.

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