In this problem, we are given a choice of equations and need to determine which describes a specific graph. The correct answer is \(|x| - |y| = 6\). Let's explore why this is the case and examine why the other options do not fit correctly either.
To understand the equation \(|x| - |y| = 6\) and its graphical representation, consider the following steps:
- The equation \(|x| - |y| = 6\) implies that the absolute values of \(x\) and \(y\) have a difference of 6 units.
- This means the graph consists of two lines, based on the conditions:
- \(x \geq y + 6\) where \(x \geq 0\) and \(y \geq 0\).
- \(x \geq -y + 6\) where \(x \geq 0\) and \(y \leq 0\).
- \(-x \geq y + 6\) where \(x \leq 0\) and \(y \geq 0\).
- \(-x \geq -y + 6\) where \(x \leq 0\) and \(y \leq 0\).
- These linear segments form the boundaries of a region where the absolute difference remains constant.
Let's consider why the other options are not correct:
- \(|x+y| - |x-y| = 6\): This describes two parallel lines where the distance between them is affected by the simultaneous values of \(x\) and \(y\), not fitting the specific conditions of the given equation.
- \(|x-y| + |x+y| = 10\): This expression sums two absolute differences, resulting in a diamond shape if graphed. The boundaries are significantly different from the equation representing uniform difference like \(|x| - |y| = 6\).
- \(|x+y| - |xy| = 0\): This relationship involves multiplication and would produce a more complex curve than simple linear boundaries.
Based on the explanations above, the equation \(|x|-|y|=6\) best describes the graph because it accounts for a linear boundary through consistent absolute differences.