Multiplication Practice for Kids | Free Questions & Times Tables

Make multiplication easy for kids! Learn multiplication easily with our fun Material and Free practice tests. Discover the rules, stages of learning, and the best ways to memorize times tables in Sydney.
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Interactive maths practice

Multiplication Practice Test

Build confidence one level at a time. Start with 2-digit × 1-digit multiplication, then progress through 2-digit × 2-digit, 3-digit × 1-digit and challenging 3-digit × 2-digit multiplication.

  • 4 progressive levels
  • 32 practice questions
  • Instant answer checks
  • Hints and full working
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Level 1 2-Digit × 1-Digit Multiplication 8 questions · Foundation 0/8

Tip: Multiply from the ones place first. Regroup when a product is 10 or more.
  1. 23 × 4 = ?

    View hint and full working

    Hint: Multiply the ones first, then the tens. Regroup the 1 ten from 3 × 4.

    Working
    3 × 4 = 12: write 2 ones and regroup 1 ten.
    2 × 4 = 8 tens; add the regrouped 1 ten to get 9 tens.
    So 23 × 4 = 92.
    Answer: 92
  2. 47 × 6 = ?

    View hint and full working

    Hint: Start with 7 × 6. Write the ones digit and regroup the tens.

    Working
    7 × 6 = 42: write 2 ones and regroup 4 tens.
    4 × 6 = 24 tens; add 4 tens to get 28 tens.
    So 47 × 6 = 282.
    Answer: 282
  3. 24 × 3 = ?

    View hint and full working

    Hint: Multiply 4 × 3 first and regroup before multiplying the tens.

    Working
    4 × 3 = 12: write 2 ones and regroup 1 ten.
    2 × 3 = 6 tens; add the regrouped 1 ten to get 7 tens.
    So 24 × 3 = 72.
    Answer: 72
  4. 30 × 5 = ?

    View hint and full working

    Hint: Think of 30 as 3 tens. Multiply the 3 tens by 5.

    Working
    3 tens × 5 = 15 tens.
    15 tens = 150.
    So 30 × 5 = 150.
    Answer: 150
  5. 42 × 2 = ?

    View hint and full working

    Hint: Doubling is a quick way to multiply by 2.

    Working
    Double 42: 40 × 2 = 80.
    2 × 2 = 4.
    80 + 4 = 84, so 42 × 2 = 84.
    Answer: 84
  6. 68 × 3 = ?

    View hint and full working

    Hint: Multiply 8 × 3 first, regroup, then multiply the tens.

    Working
    8 × 3 = 24: write 4 ones and regroup 2 tens.
    6 × 3 = 18 tens; add 2 tens to get 20 tens.
    So 68 × 3 = 204.
    Answer: 204
  7. 15 × 7 = ?

    View hint and full working

    Hint: Split 15 into 10 and 5, or use the column method.

    Working
    10 × 7 = 70.
    5 × 7 = 35.
    70 + 35 = 105, so 15 × 7 = 105.
    Answer: 105
  8. 44 × 2 = ?

    View hint and full working

    Hint: Multiply each place value by 2, or simply double 44.

    Working
    40 × 2 = 80.
    4 × 2 = 8.
    80 + 8 = 88, so 44 × 2 = 88.
    Answer: 88

Level 2 2-Digit × 2-Digit Multiplication 8 questions · Developing 0/8

Tip: Partition the second factor into tens and ones, then add the two partial products.
  1. 23 × 15 = ?

    View hint and full working

    Hint: Split 15 into 10 + 5 and find both partial products.

    Working
    23 × 10 = 230.
    23 × 5 = 115.
    230 + 115 = 345, so 23 × 15 = 345.
    Answer: 345
  2. 47 × 12 = ?

    View hint and full working

    Hint: Split 12 into 10 + 2, then add the partial products.

    Working
    47 × 10 = 470.
    47 × 2 = 94.
    470 + 94 = 564, so 47 × 12 = 564.
    Answer: 564
  3. 34 × 20 = ?

    View hint and full working

    Hint: Treat 20 as 2 tens. Multiply by 2, then make the result ten times larger.

    Working
    34 × 2 = 68.
    Because 20 is 2 tens, 68 becomes 680.
    So 34 × 20 = 680.
    Answer: 680
  4. 25 × 24 = ?

    View hint and full working

    Hint: Split 24 into 20 + 4 and find both partial products.

    Working
    25 × 20 = 500.
    25 × 4 = 100.
    500 + 100 = 600, so 25 × 24 = 600.
    Answer: 600
  5. 31 × 13 = ?

    View hint and full working

    Hint: Split 13 into 10 + 3 and add the two products.

    Working
    31 × 10 = 310.
    31 × 3 = 93.
    310 + 93 = 403, so 31 × 13 = 403.
    Answer: 403
  6. 50 × 14 = ?

    View hint and full working

    Hint: Split 14 into 10 + 4. Both partial products are easy multiples of 50.

    Working
    50 × 10 = 500.
    50 × 4 = 200.
    500 + 200 = 700, so 50 × 14 = 700.
    Answer: 700
  7. 42 × 11 = ?

    View hint and full working

    Hint: Think of 11 as 10 + 1.

    Working
    42 × 10 = 420.
    42 × 1 = 42.
    420 + 42 = 462, so 42 × 11 = 462.
    Answer: 462
  8. 18 × 16 = ?

    View hint and full working

    Hint: Split 16 into 10 + 6 and add the partial products.

    Working
    18 × 10 = 180.
    18 × 6 = 108.
    180 + 108 = 288, so 18 × 16 = 288.
    Answer: 288

Level 3 3-Digit × 1-Digit Multiplication 8 questions · Intermediate 0/8

Tip: Use place value carefully. You can use the column method or partition hundreds, tens and ones.
  1. 123 × 4 = ?

    View hint and full working

    Hint: Multiply each place value by 4 and combine the results.

    Working
    100 × 4 = 400.
    20 × 4 = 80 and 3 × 4 = 12.
    400 + 80 + 12 = 492, so 123 × 4 = 492.
    Answer: 492
  2. 356 × 7 = ?

    View hint and full working

    Hint: Partition 356 into 300 + 50 + 6 before multiplying by 7.

    Working
    300 × 7 = 2100.
    50 × 7 = 350 and 6 × 7 = 42.
    2100 + 350 + 42 = 2492, so 356 × 7 = 2492.
    Answer: 2492
  3. 402 × 5 = ?

    View hint and full working

    Hint: Partition 402 into 400 + 2.

    Working
    400 × 5 = 2000.
    2 × 5 = 10.
    2000 + 10 = 2010, so 402 × 5 = 2010.
    Answer: 2010
  4. 478 × 3 = ?

    View hint and full working

    Hint: Partition 478 into hundreds, tens and ones.

    Working
    400 × 3 = 1200.
    70 × 3 = 210 and 8 × 3 = 24.
    1200 + 210 + 24 = 1434, so 478 × 3 = 1434.
    Answer: 1434
  5. 219 × 6 = ?

    View hint and full working

    Hint: Break 219 into 200 + 10 + 9, then multiply each part by 6.

    Working
    200 × 6 = 1200.
    10 × 6 = 60 and 9 × 6 = 54.
    1200 + 60 + 54 = 1314, so 219 × 6 = 1314.
    Answer: 1314
  6. 840 × 3 = ?

    View hint and full working

    Hint: Think of 840 as 84 tens, or partition it into 800 + 40.

    Working
    800 × 3 = 2400.
    40 × 3 = 120.
    2400 + 120 = 2520, so 840 × 3 = 2520.
    Answer: 2520
  7. 605 × 9 = ?

    View hint and full working

    Hint: Partition 605 into 600 + 5.

    Working
    600 × 9 = 5400.
    5 × 9 = 45.
    5400 + 45 = 5445, so 605 × 9 = 5445.
    Answer: 5445
  8. 731 × 2 = ?

    View hint and full working

    Hint: Multiplying by 2 is the same as doubling the number.

    Working
    700 × 2 = 1400.
    30 × 2 = 60 and 1 × 2 = 2.
    1400 + 60 + 2 = 1462, so 731 × 2 = 1462.
    Answer: 1462

Level 4 3-Digit × 2-Digit Multiplication 8 questions · Challenge 0/8

Tip: Split the 2-digit multiplier into tens and ones. Find both partial products and add them carefully.
  1. 123 × 12 = ?

    View hint and full working

    Hint: Split 12 into 10 + 2, then add the two partial products.

    Working
    123 × 10 = 1230.
    123 × 2 = 246.
    1230 + 246 = 1476, so 123 × 12 = 1476.
    Answer: 1476
  2. 356 × 24 = ?

    View hint and full working

    Hint: Split 24 into 20 + 4 and calculate each partial product.

    Working
    356 × 20 = 7120.
    356 × 4 = 1424.
    7120 + 1424 = 8544, so 356 × 24 = 8544.
    Answer: 8544
  3. 478 × 16 = ?

    View hint and full working

    Hint: Split 16 into 10 + 6.

    Working
    478 × 10 = 4780.
    478 × 6 = 2868.
    4780 + 2868 = 7648, so 478 × 16 = 7648.
    Answer: 7648
  4. 219 × 15 = ?

    View hint and full working

    Hint: Split 15 into 10 + 5.

    Working
    219 × 10 = 2190.
    219 × 5 = 1095.
    2190 + 1095 = 3285, so 219 × 15 = 3285.
    Answer: 3285
  5. 842 × 20 = ?

    View hint and full working

    Hint: Multiply by 2 first, then multiply that result by 10.

    Working
    842 × 2 = 1684.
    20 is 2 × 10, so 1684 × 10 = 16840.
    Therefore 842 × 20 = 16840.
    Answer: 16840
  6. 300 × 34 = ?

    View hint and full working

    Hint: Multiply 34 by 3 first, then account for the two zeros in 300.

    Working
    34 × 3 = 102.
    300 = 3 × 100.
    102 × 100 = 10200, so 300 × 34 = 10200.
    Answer: 10200
  7. 604 × 11 = ?

    View hint and full working

    Hint: Think of 11 as 10 + 1.

    Working
    604 × 10 = 6040.
    604 × 1 = 604.
    6040 + 604 = 6644, so 604 × 11 = 6644.
    Answer: 6644
  8. 701 × 12 = ?

    View hint and full working

    Hint: Split 12 into 10 + 2 and add the partial products.

    Working
    701 × 10 = 7010.
    701 × 2 = 1402.
    7010 + 1402 = 8412, so 701 × 12 = 8412.
    Answer: 8412
Understanding multiplication

Multiplication Is More Than Remembering Times Tables

The practice questions above are useful for building fluency, but multiplication becomes much more reliable when a child understands what the calculation represents.

For a beginner, one of the clearest ways to explain multiplication is through equal groups. If there are 3 equal groups with 4 objects in each group, there are 12 objects altogether.

The same quantity can be written as: 4 + 4 + 4 = 12
3 × 4 = 12

Repeated addition is therefore a useful starting point, but it should not be the final strategy. As students become more confident, they should begin recognising multiplication facts without having to add every group individually.

Useful maths ideas

Four Useful Properties of Multiplication

Parents sometimes search for the “four rules of multiplication”. A more useful way to describe them is as four properties that explain how multiplication behaves.

1. Commutative

The order can change

4 × 6 = 6 × 4. Both calculations equal 24. This is useful when learning tables because one fact gives the student a second fact automatically.

2. Associative

The grouping can change

When multiplying three numbers, (2 × 3) × 4 = 2 × (3 × 4). Both calculations equal 24.

3. Identity

Multiplying by 1 keeps the number

8 × 1 = 8. One group of 8 still contains 8.

4. Zero

Multiplying by 0 gives 0

8 × 0 = 0. Zero groups of something means there is nothing to count.

Build understanding first

How Multiplication Understanding Usually Develops

I would not treat multiplication as a rigid five-stage checklist. Children can move forwards and backwards between ideas as confidence develops.

A practical progression is: Equal groups → repeated addition → skip counting → times-table facts → multiplication and division connections → larger calculations → problem solving.

The important point is that speed should not replace understanding. During the learning stage, it is perfectly reasonable for a child to use pictures, groups, doubles, known facts and number relationships to work out an answer.

Once the idea is secure, repeated practice helps important facts become quicker and more automatic.

Times-table strategy

Which Times Tables Should a Child Learn First?

There is no single compulsory order. In my tutoring, when a student's times-table recall is weak, I normally begin with the tables that provide useful patterns and early success.

01

Start With 2, 3, 5 and 10

These are my usual starting tables. The 2s use doubling, the 5s and 10s have strong patterns, and the 3s give a useful next step.

02

Build 4, 6, 8 and 9 From Known Factors

Instead of treating every table as a completely separate list, I show students how harder numbers can be built from familiar factors.

03

Extend Recall Gradually

As confidence improves, students should rely less on reconstructing each fact and become quicker at recalling important products.

Using factors to make harder tables easier to understand

One method I use is to break a multiplier into smaller factors the child already understands.

For example: 7 × 4 = 7 × 2 × 2
Double 7 to get 14, then double 14 to get 28.
4 = 2 × 2 Double, then double again
6 = 2 × 3 Connect the 2 and 3 tables
8 = 2 × 2 × 2 Use repeated doubling
9 = 3 × 3 Connect back to the 3 table

This decomposition is a learning bridge rather than something the child needs to do forever. With enough purposeful practice, the facts should gradually become easier to recall directly.

How far should students learn their times tables?

I generally want students to become confident through at least 10 × 10 and preferably 12 × 12.

For students preparing for Opportunity Class or Selective School maths , I generally push fluency further. Knowing multiplication facts up to around 15 can save useful thinking time, while stronger students may extend their fluency towards 20.

That is my tutoring expectation for students who benefit from that level of fluency; it is not a claim that every child must memorise the same range at the same age.

Build from what they know

Use Known Facts to Work Out New Multiplication Facts

A child does not need to treat every multiplication fact as an isolated fact to memorise.

If the student knows 7 × 5 = 35: 7 × 6 = 35 + 7 = 42
If the student knows 8 × 5 = 40: 8 × 6 = 40 + 8 = 48

This builds number sense and gives the student a sensible backup strategy when a fact temporarily disappears from memory.

The commutative property is useful here too. If a child knows 3 × 8 = 24, they already know 8 × 3 = 24.

Why the foundation matters

Weak Multiplication Facts Can Make Later Maths Harder

Multiplication is not an isolated primary-school skill. Slow or uncertain recall can make later maths more difficult because the student is using attention on a basic calculation while also trying to understand a more advanced idea.

Multiples and LCM

Common multiples are harder to recognise when multiplication facts are uncertain.

Fractions

Simplifying fractions and finding common denominators often rely on factors and multiples.

Percentages and Ratios

Efficient multiplication supports scaling and proportional reasoning.

Area

Many area problems require multiplication to be carried out accurately and efficiently.

Algebra

The student may understand the algebraic idea but lose fluency because the arithmetic inside it is slow.

Exam Speed

Faster recall leaves more attention available for reasoning and problem solving.

An example from tutoring at Aussie Math Tutor NSW

If a student is struggling with LCM, I do not automatically assume the main problem is LCM. I first check whether the student can recognise multiples confidently.

Sometimes the deeper issue is weak multiplication recall. In that case, giving more LCM questions may simply repeat the symptom. I would strengthen the multiplication foundation first and then return to the current topic.

This is the same diagnostic idea used in our catch-up maths tutoring : identify the skill underneath the difficulty rather than only working on the question the student happened to get wrong.

Beyond times tables

Two Ways to Teach Larger Multiplication

Once basic multiplication facts are reasonably secure, students need to apply them to larger numbers. I normally teach both the traditional written column method and partitioning because each method has a useful role.

Method 1

Traditional Column Multiplication

The vertical method is efficient and important for larger calculations. Students need to keep place value organised, multiply carefully and regroup accurately.

   47
×   6
-----
  282
Method 2

Partitioning

Partitioning makes the place-value structure visible. Instead of treating 23 × 14 as one unexplained process, split 14 into 10 and 4.

23 × 14
= 23 × (10 + 4)
= 230 + 92
= 322

Why teach both?

The column method gives the student an efficient written procedure. Partitioning helps them understand why the partial products exist. A student who understands both is less dependent on remembering a sequence of steps without understanding the place value underneath it.

What parents can watch for

Common Multiplication Mistakes and What They May Mean

  • The child repeatedly counts from the beginning. The multiplication facts may not yet be fluent enough to support larger calculations.
  • The written method is correct but the final answer is wrong. Check the underlying times-table fact before assuming the written method is the problem.
  • Regrouped numbers are forgotten. Slow the method down and make each place-value step visible.
  • The second row in 2-digit × 2-digit multiplication is misplaced. This often indicates a place-value issue. Partitioning can help explain why multiplying by a tens digit produces tens.
  • The child knows a fact but cannot recognise multiplication in a word problem. The difficulty may be applying multiplication rather than recalling it.
  • The child becomes uncomfortable when the numbers get larger. Temporarily reduce the difficulty, rebuild successful examples and increase complexity gradually.
For parents

How to Help Your Child Practise Multiplication at Home

Short, regular practice is usually easier to sustain than turning every multiplication session into a long test.

A simple 10–15 minute routine: 2 minutes reviewing known facts → 5 minutes on one target table → 5 minutes applying the facts in written questions → finish with one problem the child can solve confidently.

Flashcards, games and verbal questioning can all be useful, but speed should not be the only measure of progress. I would rather see a child explain a sensible way to find 7 × 8 than guess quickly and repeatedly get it wrong.

Once understanding is secure, faster recall can gradually become a goal, particularly for students who need strong calculation fluency for assessments such as OC and Selective preparation.

Questions parents often ask

Multiplication FAQs

What is the easiest way to teach multiplication?

Start by making multiplication visible. Use equal groups, counters, arrays or repeated addition so the child understands what the expression represents. Once the meaning is clear, build recall through practice and number patterns.

How should I help my child memorise times tables?

Combine understanding with recall practice. Start with useful tables such as 2, 3, 5 and 10, then use known facts and factor relationships to support harder tables.

What order should children learn the times tables?

There is no single required order. In my tutoring, I often begin with 2, 3, 5 and 10, then use those facts to support tables such as 4, 6, 8 and 9.

Should children know times tables from memory?

Fluent recall is very useful, but I prefer understanding to come first. A student should know what multiplication means and have a strategy for reconstructing a forgotten fact before speed becomes the main priority.

How far should students learn their times tables?

I generally want students to become secure through at least the standard 10 and 12 times tables. For OC and Selective preparation, I often encourage recall to around 15, while stronger students may extend their fluency towards 20.

What are the rules for multiplying positive and negative numbers?

Positive × positive gives a positive result. Negative × negative also gives a positive result. Multiplying a positive and a negative number gives a negative result.

Are multiplication rhymes useful?

They can help with an individual fact, but I would not build a whole multiplication strategy around rhymes. Number relationships and known facts provide a more flexible backup when memory fails.

What if my child understands multiplication but is very slow?

Slow but accurate work usually calls for more fluency practice, not restarting the whole topic. Concentrate on a small set of facts and use short, repeated practice sessions.

What if multiplication is well below my child's current year level?

It can be more useful to identify where the gap begins than to continue giving harder questions. Aussie Math Tutor NSW provides personalised Years 1–10 support for students who need earlier foundations rebuilt.

Continue learning

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