To determine which two values satisfy the inequality \(-2\sqrt{2} < x < 125\), we first need to evaluate the boundaries of the inequality.
- Calculate \(-2\sqrt{2}\):
- \(\sqrt{2} \approx 1.414\)
- Therefore, \(-2\sqrt{2} \approx -2 \times 1.414 \approx -2.828\)
Now we have the inequality: \[ -2.828 < x < 125 \]
Now let's check the provided values against this inequality:
-
0.63:
- \(-2.828 < 0.63 < 125\) ⇒ True
-
27/20 (which is 1.35):
- \(-2.828 < 1.35 < 125\) ⇒ True
-
\(\pi\) (approximately 3.14):
- \(-2.828 < 3.14 < 125\) ⇒ True
-
\(-\sqrt{10}\) (which is approximately -3.16):
- \(-2.828 < -3.16 < 125\) ⇒ False (since -3.16 is less than -2.828)
-
\(-\pi/2\) (approximately -1.57):
- \(-2.828 < -1.57 < 125\) ⇒ True
Thus, the values that satisfy the inequality are:
- 0.63
- 27/20
- \(\pi\)
- \(-\pi/2\)
However, we are looking for two values, so the pairs that work are:
- 0.63 and 27/20 (the smallest two values), or any combination with \(\pi\) or \(-\pi/2\).
Overall, possible selections of two values from the provided list that satisfy the inequality are:
- 0.63 and 27/20
- 0.63 and \(\pi\)
- 27/20 and \(\pi\)
- 0.63 and \(-\pi/2\)
- 27/20 and \(-\pi/2\)
- \(\pi\) and \(-\pi/2\)
However, if strictly selecting just two from the options:
- 0.63 and 27/20 would be good candidates.