To solve for \( x \), we can use the triangle inequality theorem which states that the sum of the lengths of any two sides of a triangle must be greater than the length of the remaining side. Given the sides \( AC = 22 \), \( BC = x + 14 \), and \( AB = x + 10 \), we can set up the following inequalities:
- \( AC + BC > AB \)
- \( AC + AB > BC \)
- \( AB + BC > AC \)
We will solve these inequalities to find the possible values of \( x \).
We are given three line segments \( AC = 22 \), \( BC = x + 14 \), and \( AB = x + 10 \). We need to find the value of \( x \).
The Triangle Inequality Theorem states that the sum of the lengths of any two sides of a triangle must be greater than the length of the third side. We will apply this theorem to the given sides.
- \( AC + BC > AB \)
- \( AC + AB > BC \)
- \( AB + BC > AC \)
Using the given lengths, we set up the inequalities:
- \( 22 + (x + 14) > x + 10 \)
- \( 22 + (x + 10) > x + 14 \)
- \( (x + 10) + (x + 14) > 22 \)
Let's simplify each inequality one by one.
\( 22 + x + 14 > x + 10 \)
\[
36 + x > x + 10
\]
Subtract \( x \) from both sides:
\[
36 > 10
\]
This inequality is always true.
\( 22 + x + 10 > x + 14 \)
\[
32 + x > x + 14
\]
Subtract \( x \) from both sides:
\[
32 > 14
\]
This inequality is always true.
\( x + 10 + x + 14 > 22 \)
\[
2x + 24 > 22
\]
Subtract 24 from both sides:
\[
2x > -2
\]
Divide by 2:
\[
x > -1
\]
Since the only constraint we have is \( x > -1 \), and there are no other restrictions, we can conclude that \( x \) can be any value greater than \(-1\).