To find the range where the cube root of 150 lies, we need to find two consecutive integers whose cubes bracket 150.
Let the number be '$N = 150$'. We are looking for a value '$x$' such that $x^3 = N$. We can test the cubes of integers:
We observe that 150 falls between the calculated cubes:
$125 < 150 < 216$Substituting the integer cubes back:
$5^3 < 150 < 6^3$Taking the cube root of all parts of the inequality:
$\sqrt[3]{5^3} < \sqrt[3]{150} < \sqrt[3]{6^3}$ $\implies 5 < \sqrt[3]{150} < 6$Therefore, the cube root of 150 lies between 5 and 6.
If 5 \(\sqrt{3}\) + \(\sqrt{75}\) = 17.32, then the value of 14 \(\sqrt{3}\) + \(\sqrt{108}\) is:
Find the value of (25)3 + (-29)3 + (4)3
The value of \(\frac{\sqrt[3]{-2744} \times \sqrt[3]{-216}}{\sqrt[3]{\frac{64}{729}}}\) is:
A number is cube of 53. When 7 times of 57 is subtracted from the number, then the resultant number which is formed will be divisible by:
The sum of a positive number and its cube is 1740. What is the value of the number?