Let's look at the powers of all the roots. Powers are
\(\frac{1}{3}\), \(\frac{1}{2}\), \(\frac{1}{6}\) and \(\frac{1}{12}\) for {\(\sqrt[3]{4}\); \(\sqrt{3}\); \(\sqrt[6]{25}\); \(\sqrt[{12}]{289}\)} respectively.
Since, all are roots of a number so all values are positive.
Theory: When comparing positive numbers it is same as comparing powers of those positive numbersWe need to take LCM of all the roots i.e. we need to take LCM of 2,3,6 and 12. We are doing this as we can raise all the fractions to LCM to convert them to integer powers (so that it is easier to calculate and compare them!)
LCM (2,3,6,12) = 12 [ [url=https://www.youtube.com/watch?v=7jPV6JD0908]Watch this video to learn how to find LCM using multiple methods ]
So, if we have to compare {\(\sqrt[3]{4}\); \(\sqrt{3}\); \(\sqrt[6]{25}\); \(\sqrt[{12}]{289}\)} then it is same as comparing \(12^th\) (LCM) power of these numbers
{\((\sqrt[3]{4})^{12}\); \((\sqrt{3})^{12}\); \((\sqrt[6]{25})^{12}\); \((\sqrt[{12}]{289})^{12}\)}
=> \(4^{12/3}\); \(3^{12/2}\); \(25^{12/6}\); \(289^{12/12}\);
=> \(4^4\); \(3^6\) ; \(25^2\); 289
=> 256; 729; 625; 289
So, greatest number is 729 -> \(\sqrt{3}\) and least is 256 -> \(\sqrt[3]{4}\)
So,
Answer will be BHope it helps!
Watch the following video to MASTER Roots