9 Times Table - Finger Trick, Multiples & Examples

#Multiplication Table
TL;DR
The 9 times table is 9, 18, 27, 36, 45, 54, 63, 72, 81, 90, so 9 × 10 = 90 and 9 × 20 = 180. This page gives the full chart to 20, the table in words, the multiples of nine, the finger trick and why it works, worked examples, and practice questions with answers.
BT
Bhanzu TeamLast updated on June 23, 20267 min read

The 9 times table chart below carries the pattern that powers every trick on this page. The first ten rows hold the core facts; the run to 20 extends them for longer multiplication.

Table of 9 up to 10

Multiplication

Product

$9 \times 1$

9

$9 \times 2$

18

$9 \times 3$

27

$9 \times 4$

36

$9 \times 5$

45

$9 \times 6$

54

$9 \times 7$

63

$9 \times 8$

72

$9 \times 9$

81

$9 \times 10$

90

Table of 9 up to 20

Multiplication

Product

$9 \times 11$

99

$9 \times 12$

108

$9 \times 13$

117

$9 \times 14$

126

$9 \times 15$

135

$9 \times 16$

144

$9 \times 17$

153

$9 \times 18$

162

$9 \times 19$

171

$9 \times 20$

180

Table of 9 in Words

Reading the table aloud reinforces the climbing-and-falling rhythm. Each line adds one more nine:

  • One times nine is nine

  • Two times nine is eighteen

  • Three times nine is twenty-seven

  • Four times nine is thirty-six

  • Five times nine is forty-five

  • Six times nine is fifty-four

  • Seven times nine is sixty-three

  • Eight times nine is seventy-two

  • Nine times nine is eighty-one

  • Ten times nine is ninety

What Is the 9 Times Table?

The 9 times table is repeated addition stored once. $9 \times 3$ means three groups of nine, and the table keeps every such sum on hand. Built by adding nine each step:

$$9,\ 9+9 = 18,\ 9+9+9 = 27,\ 9+9+9+9 = 36,\ \dots$$

Nine sits one below ten, and that single fact explains its behaviour: multiplying by 9 is the same as multiplying by 10 and removing one group. That "10 minus 1" structure is why every product's digits add to 9.

Multiples of 9

The first twelve multiples of 9 are:

$$9,\ 18,\ 27,\ 36,\ 45,\ 54,\ 63,\ 72,\ 81,\ 90,\ 99,\ 108$$

Every entry in the 9 times table is a multiple of 9. A number is a multiple of 9 exactly when its digits add to a multiple of 9, which is the divisibility test that grows straight out of this table.

Tips and Tricks to Memorize the 9 Times Table

Nine carries more shortcuts than any other table, so pick the one that fits the fact.

  • The finger trick. Hold up ten fingers and fold down the one matching the multiplier. For $9 \times 4$, fold the 4th finger: 3 fingers on the left (tens) and 6 on the right (ones) give 36. It works because folding finger $n$ leaves $(n-1)$ and $(10-n)$ fingers, which add to $(n-1) + (10-n) = 9$.

  • The 10-minus method. Multiply by 10, then subtract one group: $9 \times 7 = (10 \times 7) - 7 = 70 - 7 = 63$. This is the only method that keeps working past $9 \times 10$.

  • The digit-sum check. Up to $9 \times 10$, every product's digits add to 9 (for 54, $5 + 4 = 9$). If your digits don't add to 9, you slipped somewhere.

  • The tens digit is one less than the multiplier. For $9 \times 7$, the tens digit is $7 - 1 = 6$, so the product is 63.

How to Read and Use the 9 Times Table

Read each row as a sentence: $9 \times 6 = 54$ is "nine times six is fifty-four," or "six groups of nine make fifty-four." The first number is how many nines you are counting.

To learn it, lean on a few habits:

  • Start with the finger trick for the facts up to $9 \times 10$, then switch to the 10-minus method so you aren't tied to your hands.

  • Chant the table in words and test yourself out of order.

  • Space the practice across days. The patterns make the 9s one of the most rewarding tables to drill, because every answer carries its own built-in check.

Where the 9 Times Table Appears

Nine shows up wherever a "round number minus a little" matters, like a $99 price tag trading on $9 \times 11 = 99$ looking far smaller than 100. It also anchors the digit-sum check accountants and students use to catch arithmetic slips: if a number's digits sum to a multiple of 9, the number itself is divisible by 9.

Solved Examples

Example 1

A box holds 9 pencils. How many pencils in 6 boxes?

$$9 \times 6 = 54$$

Final answer: 54 pencils.

Example 2

A student wrote 9 × 7 = 72. Check whether that is right.

The slip is to grab a nearby 9s fact and land on 72. But the tens digit must be one less than 7, so it should be 6, not 7. Rebuild it:

$$9 \times 7 = (10 \times 7) - 7 = 70 - 7 = 63$$

The digit-sum check confirms it: $6 + 3 = 9$.

Final answer: $9 \times 7 = 63$.

Example 3

A shop sells items for $9 each. What do 8 items cost?

$$9 \times 8 = (10 \times 8) - 8 = 80 - 8 = 72$$

Final answer: $72.

Example 4

Find the missing factor: $9 \times \square = 108$.

Past $9 \times 10 = 90$ comes $9 \times 11 = 99$, then $9 \times 12 = 108$.

Final answer: $\square = 12$.

Example 5

A field has 9 rows of 14 plants. How many plants in total?

$$9 \times 14 = (10 \times 14) - 14 = 140 - 14 = 126$$

Final answer: 126 plants.

Common Mistakes

Mistake 1: Counting the folded finger

Where it slips in: Using the finger trick but including the bent-down finger in the tens or ones count.

Don't do this: Read $9 \times 4$ as "4 tens and 6 ones" by counting the folded finger on the left.

The correct way: The folded finger is the divider, not a digit; it separates the count without belonging to either side. Treating the fold as a number instead of a wall is the first thing students get wrong with the trick.

Mistake 2: Expecting the digit-sum pattern past 9 × 10

Where it slips in: Assuming the neat digit-sum rule still gives the answer for $9 \times 11$ and up.

Don't do this: Expect $9 \times 12$ to follow the simple climbing-and-falling digits.

The correct way: Past $9 \times 10$, switch to the 10-minus method: $9 \times 12 = 120 - 12 = 108$. The clean digit pattern is a property of the first ten facts only, and leaning on it past that point is a quiet source of wrong answers.

Practice Questions

  1. $9 \times 5 = \square$

  2. $9 \times 8 = \square$

  3. A team has 9 players. How many players across 7 teams?

  4. Find the missing factor: $9 \times \square = 81$.

  5. $9 \times 11 = \square$

  6. Is 56 a multiple of 9?

  7. $9 \times 13 = \square$

  8. A book has 9 chapters of 12 pages each. How many pages?

Answers: 1) 45 2) 72 3) 63 4) 9 5) 99 6) No, since $5 + 6 = 11$ is not a multiple of 9; the nearest multiples are 54 and 63 7) 117 8) 108

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Frequently Asked Questions

How does the 9 times table finger trick work?
Fold the finger matching the multiplier; the fingers left of it are the tens, the fingers right are the ones. It works because folding finger $n$ leaves $(n-1)$ and $(10-n)$ fingers, which always add to 9.
Why do the digits of the 9 times table add up to 9?
Because multiplying by 9 is multiplying by 10 and subtracting one group. That "10 minus 1" structure forces the tens and ones digits to complement each other to 9, up to $9 \times 10$.
Does the finger trick work past 9 × 10?
No, because you only have ten fingers and the digit pattern changes after $9 \times 10$. Use the 10-minus method instead.
What is 9 × 9?
$9 \times 9 = 81$, a perfect square. Its digits $8 + 1 = 9$, as the rule predicts.
Is the 9 times table odd or even?
Nine is odd, so its products alternate odd, even, odd, even: 9 (odd), 18 (even), 27 (odd), and so on.
✍️ Written By
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Bhanzu Team
Content Creator and Editor
Bhanzu’s editorial team, known as Team Bhanzu, is made up of experienced educators, curriculum experts, content strategists, and fact-checkers dedicated to making math simple and engaging for learners worldwide. Every article and resource is carefully researched, thoughtfully structured, and rigorously reviewed to ensure accuracy, clarity, and real-world relevance. We understand that building strong math foundations can raise questions for students and parents alike. That’s why Team Bhanzu focuses on delivering practical insights, concept-driven explanations, and trustworthy guidance-empowering learners to develop confidence, speed, and a lifelong love for mathematics.
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