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Cube Root Table with Accurate Values and Explanation

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How to Use the Cube Root Table Formula and Solved Examples

A perfect cube is the result of multiplying the same integer three times. Repeating the number 4 times three makes 64 and as a result 64 is a perfect cube.  64 has a cube root of 4. If a number can be decomposed into a product of the same three numbers, it is said to be a perfect cube.


A complete cube is the product of three identical numbers. To see if the number (for example n) is a suitable cube,multiply it by three times and check if the resulting number is the same as 'n' if yes then it is a perfect cube


One, eight, twenty-seven, and sixty-four are examples of perfect cubes. A perfect square is one that can be made by multiplying two numbers together. Both positive and negative numbers can be used to make perfect cubes. Because it is the product of multiplying -4 three times, -64 is a perfect cube.


When we say a number has been cubed, we mean that it has been multiplied three times. The process of cubing a number  is reversed by its root. When the number 5 is cubed, for example, we obtain 55 5, which is 125. The cube  root of 5 is 125. This is because multiplying the number 5 three times gives the result of 125.It is the same as the square root symbol with an addition of '3' to indicate it is a cube root .The cube root of a number can be stated in exponent form as (number)13.


Cube root table

Cube root table is a table consisting of a list of numbers and their cube roots. Before we write the cube root table, it is very important for all of us to understand what is the perfect cube root chart and cube of a number. The cube of any real number can be defined as that number which is obtained by multiplying a number by itself twice or by raising its power to 3. At the same time, the cube root of any number is that number which when raised to the power 3 gives the answer as the number whose cube root is to be determined.


Perfect Cube Root Chart

Perfect Cube Number

Cube Root of the Number

1

1

8

2

27

3

64

4

125

5

216

6

343

7

512

8

729

9

1000

10

1331

11

1728

12

2197

13

2744

14

3375

15

4096

16

4913

17

5832

18

6859

19

8000

20

9261

21

10648

22

12167

23

13824

24

15625

25


Cube root of a number can also be exponentially represented as the number raised to the power ⅓. If ‘x’ is any real number, then its cube root is represented as (x) or ∛x. Perfect cubes are the numbers that are obtained when natural numbers are multiplied by itself twice. All the perfect cube numbers have a square root equal to a natural number. The perfect cube root chart of the first 25 perfect cube numbers is represented in the table below. 


While it is very important to know the cube roots of the numbers, it is also very important to know the table of cubes from 1 to 50 (i.e. first 50 natural numbers) in order to make our Mathematical computations easy and efficient without a calculator. The table of cubes from 1 to 50 is given below for the reference of students and facilitators. 


Table of Cubes from 1 to 50

Natural Number

Cube of the Number

1

1

2

8

3

27

4

64

5

125

6

216

7

343

8

512

9

729

10

1000

11

1331

12

1728

13

2197

14

2744

15

3375

16

4096

17

4913

18

5832

19

6859

20

8000

21

9261

22

10648

23

12167

24

13824

25

15625

26

17576

27

19683

28

21952

29

24389

30

27000

31

29791

32

32768

33

35937

34

39304

35

42875

36

46656

37

50653

38

54872

39

59319

40

64000

41

68921

42

74088

43

79507

44

85184

45

91125

46

97336

47

103823

48

110592

49

117649

50

125000


Any student or a facilitator who is keen about Mathematics will find his or her own ways to memorize the cube root list 1 to 100. Though it may seem a little difficult at the initial days, the task of remembering the cube root list 1 to 100 becomes more and more easy through continuous practice and periodic revision. 


Cube Root List 1 to 100

Number 

Cube Root

Number 

Cube Root

Number 

Cube Root

Number 

Cube Root

1

1.000

26

2.962

51

3.708

76

4.236

2

1.260

27

3.000

52

3.733

77

4.254

3

1.442

28

3.037

53

3.756

78

4.273

4

1.587

29

3.072

54

3.780

79

4.291

5

1.710

30

3.107

55

3.803

80

4.309

6

1.817

31

3.141

56

3.826

81

4.327

7

1.913

32

3.175

57

3.849

82

4.344

8

2.000

33

3.208

58

3.871

83

4.362

9

2.080

34

3.240

59

3.893

84

4.380

10

2.154

35

3.271

60

3.915

85

4.397

11

2.224

36

3.302

61

3.936

86

4.414

12

2.289

37

3.332

62

3.958

87

4.431

13

2.351

38

3.362

63

3.979

88

4.448

14

2.410

39

3.391

64

4.000

89

4.465

15

2.466

40

3.420

65

4.021

90

4.481

16

2.520

41

3.448

66

4.041

91

4.498

17

2.571

42

3.476

67

4.062

92

4.514

18

2.621

43

3.503

68

4.082

93

4.531

19

2.668

44

3.530

69

4.102

94

4.547

20

2.714

45

3.557

70

4.121

95

4.563

21

2.759

46

3.583

71

4.141

96

4.579

22

2.802

47

3.609

72

4.160

97

4.595

23

2.844

48

3.634

73

4.179

98

4.610

24

2.884

49

3.659

74

4.198

99

4.626

25

2.924

50

3.684

75

4.217

100

4.642


Steps To Find Out Perfect Cube Root 

Following the steps below, you can check if a number is a perfect cube:


Step 1: Starting with the smallest prime number, prime factorise the given number (2).

Step 2: Once the prime factorization is complete, group together all three identical factors.

Step 3: Repeat Step 3 for all sets of the same three factors in the group. The provided number is not a perfect cube if any factors are left over that do not fit into a group of three identical factors. The provided integer is otherwise a perfect cube.


Fun Fact About Cube Root 

  • Cube and cube roots are inverse mathematical operations.

  • The Cube of a cube root of a number or the cube root of a cube of a number is the number itself.


There is a method for determining whether or not greater integers are perfect cubes. To check, find the sum of the number's digits repeatedly and see if it's either 0, 1, 8, or 9. If it's any of these, it could be a perfect cube, although that isn't always the case.


Perfect Cube Formula 

The perfect cube formula is used to determine whether or not a number is a perfect cube. Let's say we have a number, x, that equals yyy. Every composite number can be written as the product of the powers of its prime elements, according to the fundamental theorem of arithmetic. The number is considered to be a perfect cube if the power of all prime factors is a multiple of three.


From 1 to 50, this is a list of perfect cubes.


In the table below, the perfect cubes of integers 1 to 50 are presented. Every integer is multiplied three times by itself to get the ideal cubes.


1

1 × 1 × 1

1

2

2 × 2 × 2

8

3

3 × 3 × 3

27

4

4 × 4 × 4

64

5

5 × 5 × 5

125

6

6 × 6 × 6

216

7

7 × 7 × 7

343

8

8 × 8 × 8

512

9

9 × 9 × 9

729

10

10 × 10 × 10

1000

11

11 × 11 × 11

1331

12

12 × 12 × 12

1728

13

13 × 13 × 13

2197

14

14 × 14 × 14

2744

15

15 × 15 × 15

3375

16

16 × 16 × 16

4096

17

17 × 17 × 17

4913

18

18 × 18 × 18

5832

19

19 × 19 × 19

6859

20

20 × 20 × 20

8000

21

21 × 21 × 21

9261

22

22 × 22 × 22

10648

23

23 × 23 × 23

12167

24

24 × 24 × 24

13824

25

25 × 25 × 25

15625

26

26 × 26 × 26

17576

27

27 × 27 × 27

19683

28

28 × 28 × 28

21952

29

29 × 29 × 29

24389

30

30 × 30 × 30

27000

31

31 × 31 × 31

29791

32

32 × 32 × 32

32768

33

33 × 33 × 33

35937

34

34 × 34 × 34

39304

35

35 × 35 × 35

42875

36

36 × 36 × 36

46656

37

37 × 37 × 37

50653

38

38 × 38 × 38

54872

39

39 × 39 × 39

59319

40

40 × 40 × 40

64000

41

41 × 41 × 41

68921

42

42 × 42 × 42

74088

43

43 × 43 × 43

79507

44

44 × 44 × 44

85184

45

45 × 45 × 45

91125

46

46 × 46 × 46

97336

47

47 × 47 × 47

103823

48

48 × 48 × 48

110592

49

49 × 49 × 49

117649

50

50 × 50 × 50

125000


Conclusion

This is how we can easily calculate perfect cube roots of different numbers. Focus on the concept of perfect cube roots and understand how they are determined. Follow the examples given in the tables and charts here to develop your conceptual foundation. 

FAQs on Cube Root Table with Accurate Values and Explanation

1. What is a cube root table?

A cube root table is a chart that lists numbers alongside their corresponding cube roots for quick reference. It helps students find cube roots without long calculations or calculators.

For example:

  • ∛1 = 1
  • ∛8 = 2
  • ∛27 = 3
  • ∛64 = 4
  • ∛125 = 5
Cube root tables are commonly used in algebra, arithmetic, and competitive exams.

2. How do you use a cube root table?

To use a cube root table, locate the given number in the table and read its corresponding cube root value. If the exact number is not listed, find the closest value.

Steps:

  • Find the number whose cube root is required.
  • Search for it in the cube column.
  • Read the cube root listed next to it.
For example, to find ∛216, the table shows ∛216 = 6.

3. What is the formula for finding a cube root?

The formula for cube root is ∛x = x1/3. It means finding a number that, when multiplied by itself three times, equals the given number.

Example:

  • 271/3 = 3
  • Because 3 × 3 × 3 = 27
This exponential form is widely used in algebra and higher mathematics.

4. What are the cube roots of numbers from 1 to 10?

The cube roots of numbers 1 to 10 include both perfect and non-perfect cubes, but only 1 and 8 are perfect cubes in this range.

Perfect cube roots:

  • ∛1 = 1
  • ∛8 = 2
Other cube roots (approximate values):
  • ∛2 ≈ 1.26
  • ∛3 ≈ 1.44
  • ∛4 ≈ 1.59
  • ∛5 ≈ 1.71
  • ∛6 ≈ 1.82
  • ∛7 ≈ 1.91
  • ∛9 ≈ 2.08
  • ∛10 ≈ 2.15

5. How do you find the cube root of a perfect cube?

To find the cube root of a perfect cube, identify the number that multiplies by itself three times to give the original number.

Steps:

  • Factor the number into prime factors.
  • Group the factors in sets of three.
  • Take one number from each group.
Example: 125 = 5 × 5 × 5, so ∛125 = 5.

6. What is the cube root of negative numbers?

The cube root of a negative number is negative because the product of three negative numbers is negative.

Example:

  • (−2) × (−2) × (−2) = −8
  • So, ∛(−8) = −2
This property makes cube roots different from square roots, which do not have real values for negative numbers.

7. What is the difference between square root and cube root?

The main difference is that a square root involves multiplying a number twice, while a cube root involves multiplying a number three times.

Key differences:

  • √x = x1/2
  • ∛x = x1/3
  • Square root of negative numbers is not real.
  • Cube root of negative numbers is real.
Example: √16 = 4, while ∛27 = 3.

8. Why is a cube root table important in Maths?

A cube root table is important because it saves time and improves calculation accuracy when solving algebraic and numerical problems.

It helps in:

  • Quick reference during exams
  • Solving equations involving x3
  • Understanding perfect cubes
  • Checking manual calculations
It is especially useful in arithmetic, algebra, and competitive tests.

9. Can you give an example of finding a cube root using prime factorization?

Yes, the cube root can be found by grouping prime factors in triples.

Example: Find ∛216.

  • 216 = 2 × 2 × 2 × 3 × 3 × 3
  • Group into triples: (2 × 2 × 2) and (3 × 3 × 3)
  • Take one factor from each group: 2 × 3
Therefore, ∛216 = 6.

10. What are some common mistakes when using a cube root table?

Common mistakes when using a cube root table include misreading values and confusing cubes with cube roots.

Students should avoid:

  • Mixing up x3 and ∛x
  • Ignoring negative signs
  • Assuming non-perfect cubes have whole number roots
  • Reading the wrong row or column
Careful checking ensures correct and accurate cube root calculations.