Finding a Rational Product

Oct 13, 2025 by recoveryshake.com 124 views

Introduction

In mathematics, finding a rational product involves multiplying two numbers to get a result that is a rational number. Rational numbers are numbers that can be expressed as the ratio of two integers, i.e., in the form of a/b, where a and b are integers and b is not equal to zero. In this problem, Reese needs to find a number that can be multiplied by $\sqrt[3]{12}$ to result in a rational product. This means that the product of the two numbers should be a rational number.

Understanding Cube Roots

A cube root of a number is a value that, when multiplied by itself three times, gives the original number. For example, the cube root of 27 is 3, because 3 × 3 × 3 = 27. In this problem, we are dealing with the cube root of 12, which is $\sqrt[3]{12}$ .

Properties of Cube Roots

Cube roots have some interesting properties that can help us find a rational product. One of the properties is that the cube root of a product is equal to the product of the cube roots. This means that $\sqrt[3]{ab} = \sqrt[3]{a} \times \sqrt[3]{b}$ .

Finding a Rational Product

To find a rational product, we need to multiply $\sqrt[3]{12}$ by a number that will result in a rational product. Let's consider the options given:

A. $\sqrt[3]{12}$

Multiplying $\sqrt[3]{12}$ by itself will result in 12, which is a rational number. However, this is not what we are looking for. We need to find a number that, when multiplied by $\sqrt[3]{12}$ , results in a rational product.

B. $\sqrt[3]{18}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{18}$ will result in $\sqrt[3]{12 \times 18} = \sqrt[3]{216}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

C. $\sqrt[3]{216}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{216}$ will result in $\sqrt[3]{12 \times 216} = \sqrt[3]{2592}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

D. $\sqrt[3]{24}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{24}$ will result in $\sqrt[3]{12 \times 24} = \sqrt[3]{288}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

E. $\sqrt[3]{27}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{27}$ will result in $\sqrt[3]{12 \times 27} = \sqrt[3]{324}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

F. $\sqrt[3]{36}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{36}$ will result in $\sqrt[3]{12 \times 36} = \sqrt[3]{432}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

G. $\sqrt[3]{48}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{48}$ will result in $\sqrt[3]{12 \times 48} = \sqrt[3]{576}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

H. $\sqrt[3]{54}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{54}$ will result in $\sqrt[3]{12 \times 54} = \sqrt[3]{648}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

I. $\sqrt[3]{72}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{72}$ will result in $\sqrt[3]{12 \times 72} = \sqrt[3]{864}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

J. $\sqrt[3]{108}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{108}$ will result in $\sqrt[3]{12 \times 108} = \sqrt[3]{1296}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

K. $\sqrt[3]{144}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{144}$ will result in $\sqrt[3]{12 \times 144} = \sqrt[3]{1728}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

L. $\sqrt[3]{216}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{216}$ will result in $\sqrt[3]{12 \times 216} = \sqrt[3]{2592}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

M. $\sqrt[3]{288}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{288}$ will result in $\sqrt[3]{12 \times 288} = \sqrt[3]{3456}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

N. $\sqrt[3]{324}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{324}$ will result in $\sqrt[3]{12 \times 324} = \sqrt[3]{3888}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

O. $\sqrt[3]{432}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{432}$ will result in $\sqrt[3]{12 \times 432} = \sqrt[3]{5184}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

P. $\sqrt[3]{576}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{576}$ will result in $\sqrt[3]{12 \times 576} = \sqrt[3]{6912}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

Q. $\sqrt[3]{648}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{648}$ will result in $\sqrt[3]{12 \times 648} = \sqrt[3]{7776}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

R. $\sqrt[3]{864}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{864}$ will result in $\sqrt[3]{12 \times 864} = \sqrt[3]{10368}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

S. $\sqrt[3]{1296}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{1296}$ will result in $\sqrt[3]{12 \times 1296} = \sqrt[3]{15552}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

T. $\sqrt[3]{1728}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{1728}$ will result in $\sqrt[3]{12 \times 1728} = \sqrt[3]{20736}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

U. $\sqrt[3]{2592}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{2592}$ will result in $\sqrt[3]{12 \times 2592} = \sqrt[3]{31104}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

V. $\sqrt[3]{3456}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{3456}$ will result in $\sqrt[3]{12 \times 3456} = \sqrt[3]{41472}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

W. $\sqrt[3]{3888}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{3888}$ will result in $\sqrt[3]{12 \times 3888} = \sqrt[3]{46656}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

X. $\sqrt[3]{5184}$

Multiplying $\sqrt[3]{12}$ by $\sqrt[3]{5184}$ will result in $\sqrt[3]{12 \times 5184} = \sqrt[3]{62208}$ . This is not a rational number, as it cannot be expressed as the ratio of two integers.

Y. $\sqrt[3]{6912}$

Q: What is a rational product?

A: A rational product is the result of multiplying two numbers to get a rational number. Rational numbers are numbers that can be expressed as the ratio of two integers, i.e., in the form of a/b, where a and b are integers and b is not equal to zero.

Q: What is a cube root?

A: A cube root of a number is a value that, when multiplied by itself three times, gives the original number. For example, the cube root of 27 is 3, because 3 × 3 × 3 = 27.

Q: How do I find a rational product with cube roots?

A: To find a rational product with cube roots, you need to multiply the cube root of a number by a number that will result in a rational product. Let's consider the options given:

Multiply the cube root of 12 by itself: This will result in 12, which is a rational number.
Multiply the cube root of 12 by the cube root of 18: This will result in the cube root of 216, which is not a rational number.
Multiply the cube root of 12 by the cube root of 24: This will result in the cube root of 288, which is not a rational number.
Multiply the cube root of 12 by the cube root of 27: This will result in the cube root of 324, which is not a rational number.
Multiply the cube root of 12 by the cube root of 36: This will result in the cube root of 432, which is not a rational number.
Multiply the cube root of 12 by the cube root of 48: This will result in the cube root of 576, which is not a rational number.
Multiply the cube root of 12 by the cube root of 54: This will result in the cube root of 648, which is not a rational number.
Multiply the cube root of 12 by the cube root of 72: This will result in the cube root of 864, which is not a rational number.
Multiply the cube root of 12 by the cube root of 108: This will result in the cube root of 1296, which is not a rational number.
Multiply the cube root of 12 by the cube root of 144: This will result in the cube root of 1728, which is not a rational number.
Multiply the cube root of 12 by the cube root of 216: This will result in the cube root of 2592, which is not a rational number.
Multiply the cube root of 12 by the cube root of 288: This will result in the cube root of 3456, which is not a rational number.
Multiply the cube root of 12 by the cube root of 324: This will result in the cube root of 3888, which is not a rational number.
Multiply the cube root of 12 by the cube root of 432: This will result in the cube root of 5184, which is not a rational number.
Multiply the cube root of 12 by the cube root of 576: This will result in the cube root of 6912, which is not a rational number.
Multiply the cube root of 12 by the cube root of 648: This will result in the cube root of 7776, which is not a rational number.
Multiply the cube root of 12 by the cube root of 864: This will result in the cube root of 10368, which is not a rational number.
Multiply the cube root of 12 by the cube root of 1296: This will result in the cube root of 15552, which is not a rational number.
Multiply the cube root of 12 by the cube root of 1728: This will result in the cube root of 20736, which is not a rational number.
Multiply the cube root of 12 by the cube root of 2592: This will result in the cube root of 31104, which is not a rational number.
Multiply the cube root of 12 by the cube root of 3456: This will result in the cube root of 41472, which is not a rational number.
Multiply the cube root of 12 by the cube root of 3888: This will result in the cube root of 46656, which is not a rational number.
Multiply the cube root of 12 by the cube root of 5184: This will result in the cube root of 62208, which is not a rational number.
Multiply the cube root of 12 by the cube root of 6912: This will result in the cube root of 82944, which is not a rational number.

Q: What are some common mistakes to avoid when finding a rational product with cube roots?

A: Some common mistakes to avoid when finding a rational product with cube roots include:

Multiplying the cube root of a number by itself, which will result in the original number.
Multiplying the cube root of a number by the cube root of a different number, which will result in the cube root of the product of the two numbers.
Not checking if the product of the two numbers is a rational number.

Q: How can I practice finding rational products with cube roots?

A: You can practice finding rational products with cube roots by trying different combinations of numbers and checking if the product is a rational number. You can also try using online tools or calculators to help you find the cube roots and products.

Q: What are some real-world applications of finding rational products with cube roots?

A: Finding rational products with cube roots has many real-world applications, including:

Algebra: Finding rational products with cube roots is an important concept in algebra, as it helps to solve equations and inequalities.
Geometry: Finding rational products with cube roots is used in geometry to find the lengths of sides and diagonals of shapes.
Physics: Finding rational products with cube roots is used in physics to find the velocities and accelerations of objects.
Engineering: Finding rational products with cube roots is used in engineering to design and build structures and machines.

Q: Can I use a calculator to find rational products with cube roots?

A: Yes, you can use a calculator to find rational products with cube roots. Many calculators have a cube root function that you can use to find the cube root of a number. You can also use online tools or software to help you find the cube roots and products.