The problem requires simplifying the following nested radical expression:
$ \sqrt{93 + \sqrt{32 + \sqrt{274 + \sqrt{225}}}} $
We simplify this expression by working from the inside out.
First, calculate the square root of the innermost number:
$ \sqrt{225} = 15 $
Substitute this result back into the expression:
$ \sqrt{274 + 15} $
Now, calculate this new square root:
$ \sqrt{289} = 17 $
Substitute this result back:
$ \sqrt{32 + 17} $
Calculate the square root:
$ \sqrt{49} = 7 $
Finally, substitute this result into the outermost part:
$ \sqrt{93 + 7} $
Calculate the final square root:
$ \sqrt{100} = 10 $
The evaluated value of the expression $ \sqrt{93 + \sqrt{32 + \sqrt{274 + \sqrt{225}}}} $ is 10.
If (584)2 = 341056, then the value of square root of 34.1056 is:
The sum of the squares of two positive integers is 306. If the square of the larger integer is 25 times the smaller integer, then the difference between the two integers is
The least number which is a perfect square and is divisible by each of the numbers 4, 10 and 12 is :
The addition of the squares of two numbers in squares is 221. What are those numbers?
Find the value of \(\sqrt{9604} \).