To answer your questions, let’s start with labeling the right triangle and then move to the equations for finding \( AE \) and then calculating its value.
Question 1: Labeling the Sides
Typically, in a right triangle, we label:
- \( AC \) as one leg (let's say it’s the shorter leg),
- \( CE \) as the other leg (the longer leg),
- \( AE \) as the hypotenuse.
In your case:
- So, label: \( AC = 20 \) (one leg)
- Label: \( CE = 29 \) (other leg)
- Label: \( AE \) (hypotenuse)
Question 2: Finding AE with Equations
Given \( CE = 29 \) and \( AC = 20 \), we need to find \( AE \). The Pythagorean theorem states: \[ AE^2 = AC^2 + CE^2 \]
This leads us to:
- \( AE^2 = 20^2 + 29^2 \)
So the correct equation from the options you provided is:
- \( 20^2 + 29^2 = x^2 \)
- Answer: \( 20^2 + 29^2 = x^2 \)
Question 3: Finding AE
Now we can calculate \( AE \):
-
Calculate \( AC^2 \) and \( CE^2 \):
- \( 20^2 = 400 \)
- \( 29^2 = 841 \)
-
Sum these values:
- \( 400 + 841 = 1241 \)
-
Take the square root to find \( AE \):
- \( AE = \sqrt{1241} \approx 35.2 \)
So, rounded to the nearest tenth, \( AE \) is:
- AE = 35.2
Summary Answers:
- Label sides: \( AC = 20, CE = 29, AE \) (hypotenuse)
- Correct equation: \( 20^2 + 29^2 = x^2 \)
- \( AE \approx 35.2 \)