To solve the compound inequality \( 19 - 4h > h + 14 > -4h - 6 \), we can break it into two parts and solve each part separately.
Part 1: \( 19 - 4h > h + 14 \)
- Start by isolating \( h \): \[ 19 - 4h > h + 14 \]
- Bring all terms involving \( h \) to one side and the constant terms to the other side: \[ 19 - 14 > h + 4h \] \[ 5 > 5h \]
- Divide by 5: \[ 1 > h \quad \text{or} \quad h < 1 \]
Part 2: \( h + 14 > -4h - 6 \)
- Start by isolating \( h \): \[ h + 14 > -4h - 6 \]
- Bring all terms involving \( h \) to one side and the constant terms to the other side: \[ h + 4h > -6 - 14 \] \[ 5h > -20 \]
- Divide by 5: \[ h > -4 \]
Combine the two inequalities
Now that we have our two inequalities:
- \( h < 1 \)
- \( h > -4 \)
We can write the solution as a compound inequality: \[ -4 < h < 1 \]
Thus, the answer is: \[ \boxed{(-4, 1)} \]
This indicates that \( h \) is greater than -4 and less than 1.