Have you at any point wondered where and when you would utilize your school math aptitudes? For example, an expression with root values is known as radical expression. Both have real applications in fields like design, carpentry and brickwork. Radical expressions are used in commercial ventures to figure the formulas for deterioration, home extension and design. Electrical designers additionally utilize radical expressions for estimations and computations. Biologists contrast animal surface regions with radical exponents for the size correlations in logical research. Now, let’s discuss the radical expression.

A radical is a symbol, used to perform the root operations. The radicals are used to eliminate the exponent values. The least radical notation is the **square root**, represented with the notation √. The following radical is the cube root, notated by ³√. The small number before the radical is called the index number. The index number should be any whole number, and it denotes the exponent value, which is usually used to eliminate the radical. For instance, raising the value with the power of 3 would eliminate the cube root. And also, many students have a confusion between the terms surds and the radical. A radical is just a symbol, whereas the surd is an expression which consists of a proper index value and radicand.

The outcome of a radical operation is positive if the number under the radical is positive. If the number under the radical is negative, and the index value is odd, the outcome of the radical operation is negative. A negative number under the radical symbol with an even index value will result in an irrational number. Recall that however, if the index value is not mentioned, the index number of a square root is 2.

“Radicals” are considered as the inverse operation of eliminating the exponents; we can fix power with a radical, and we can fix a radical with a power. For example, if you square 3, you get 9, and if you take the square root of 9, you get 3.

It is noted that the numbers can be raised to any powers. It is not confined only to the power of 2. The number can have a cube, or raised to the power 4, and even you can raise the number to the 100th power also. Similarly, you can take the **cube root of numbers**, the fourth root, the 50th root, etc.

We can take any counting number, square it, and end up with a pleasant, neat number. In any case, the procedure doesn’t generally work while going in reverse. For example, consider √3, the square root of three. But, there is no perfect number that squares to 3, so √3 can’t be streamlined as a pleasant whole number since the value of the square root of 3 is 1.732050807568877… Like the numbers, the radical values can be added, subtracted, multiplied, and divided by using specific rules. The different rules used for the simplification of radicals are product rule, quotient rule and so on.

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