We are given the following information:
The goal is to determine the value of $z$.
From the first two equations, it's clear that both $x$ and $y$ are equal to the same value, $7^{0.07}$. Therefore, we can conclude that $x = y$.
Now, we substitute $x = y$ into the third equation, $x^z = y^3$:
$x^z = x^3$
Since $x = 7^{0.07}$, the base $x$ is a positive number not equal to 1. For the equation $x^z = x^3$ to hold true, the exponents must be equal.
$z = 3$
The exact value of $z$ is 3. This matches Option 3 directly.
If $\sqrt{2916} = 54$ then what is the value of the following?
$\sqrt{29.16} + \sqrt{0.2916} + \sqrt{0.002916} + \sqrt{0.00002916}$
If $\frac{2\sqrt{2}+\sqrt{7}}{2\sqrt{2}-\sqrt{7}} = x + y\sqrt{14}$, find the value of y.
Find the cube root of 78402752
Find the value of :
[(3 × 3 × 3 × 3 × 3 × 3) 6 ÷ (3 × 3 × 3 × 3) 7 × 3 4]
The cube root of - 64 × - 1331 is:
If (27) m = (81) n, then m 2: mn = ?
if 49 n + 49 n + 49 n + 49 n + 49 n + 49 n + 49 n = 7 2221 , then n = ?