To solve for the measure of segment $AL$ in the diagram, we need to understand the geometric relationships involved.

1. Given Data:
   • $\overline{AQ} = 4 \text{ in.}$
   • $\overline{AH} = 8.06 \text{ in.}$ (This forms the vertical side of the triangle $\triangle AHQ$, and since $\overline{QA}$ is horizontal, $\triangle AHQ$ is a right triangle.)
   • $\overline{AD} = 32.24 \text{ in.}$

Step 1: Find $\overline{QL}$

Looking at the diagram, it appears that line segment $AL$ is horizontal, and $L$ is directly under $D$. Since $\overline{QA}$ and $\overline{AL}$ are horizontal, $\overline{QL} = \overline{AQ} + \overline{AL}$.

We can find $AL$ by applying the Pythagorean theorem in triangle $ADL$, where:

• $AD = 32.24 \text{ in.}$ (hypotenuse),
• $\overline{DL}$ is the vertical leg and is equal to $\overline{DH} = 8.06 \text{ in.} + 24.18 \text{ in.} = 32.24 \text{ in.}$.

Step 2: Solve for $AL$

Since both $AD$ and $DL$ are equal, this is an isosceles right triangle, meaning $\overline{AL}$ is also $32.24$. Therefore, the measure of $\overline{AL}$ is:

$AL = 32.24 \text{ in.}$

Would you like further clarification or additional details on any part of the process?

Here are some related questions to expand your understanding:

1. How does the Pythagorean theorem work for right triangles?
2. Can you explain what an isosceles right triangle is?
3. How would the solution change if the angles were different?
4. What are the properties of a triangle when two sides are equal?
5. How can we check our answer using another method?

Tip: When working with right triangles, always confirm which sides are adjacent, opposite, and the hypotenuse, as this helps in applying the Pythagorean theorem.