This solution explains how to find the option that represents a number meeting the criteria of being both a perfect square and an integer.
The question requires identifying an option whose value is an integer and, if applicable, is derived from a perfect square. Based on the options, we interpret this as the resulting value must be an integer, and the number under the square root symbol must itself be a perfect square.
The analysis shows that $Square root of 9$ evaluates to $ 3 $. The number $ 3 $ is an integer, and $ 9 $ is a perfect square. Therefore, this option satisfies the conditions.
In the following examples, a number is coded as three digits — representing the remainders when the number is divided by 3, 7, and 11, respectively.
Example 1: $53 \rightarrow 53 \div 3 = 17 \text{ R} 2$, $53 \div 7 = 7 \text{ R } 4$, $53 \div 11 = 4 \text{ R } 9 \rightarrow \text{ Code: } 2, 4, 9$
Example 2: $68 \rightarrow 68 \div 3 = 22 \text{ R} 2$, $68 \div 7 = 9 \text{ R } 5$, $68 \div 11 = 6 \text{ R } 2 \rightarrow \text{ Code: } 2, 5, 2$
By following this method, which is the least number which would have the code - 2, 2, 2?
Which of the following statement is TRUE for Whole Numbers?
Consider the following statements :
1. (25)! + 1 is divisible by 26
2. (6)! + 1 is divisible by 7
Which of the above statements is/are correct ?
If the sum S is divided by 8, what is the remainder ?
If the sum S is divided by 60, what is the remainder ?
Find the sum of squares of the greatest value and the smallest value of K in the number so that the number 45082K is divisible by 3.
How many composite numbers are there from 53 to 97 ?