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.
The value of √144 + √0.0225 - √9 =
If the positive square root of (5 + 3√2) (5 - 3√2) is α, then what is the positive square root of 8 + 2α ?
For what values of m, is mx2 + mx + 8x + 9 a perfect square ?
The least number which is a perfect square and is divisible by each of the numbers 4, 10 and 12 is :