Question: Answer these absolute value inequalities individually:
$|2s - 7| \geq -1$
$|5p + 2| < -4$
$|6t - 7| - 8 \geq 3$
$3|14 - m| > 18$
$2|3w + 8| - 13 \leq -5$
$|h - 5| \leq 10$
$|4c + 5| > 7$
$|19 - 4n| < 5$
$|3j - 1| + 6 > 0$
$-4|6b - 8| \leq 12$
1. **Problem:** Solve $|2s - 7| \geq -1$.
Since absolute value is always non-negative, $|2s - 7| \geq -1$ is always true for all real $s$.
**Answer:** $\boxed{\text{All real numbers}}$.
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2. **Problem:** Solve $|5p + 2| < -4$.
Absolute value is always $\geq 0$, so it can never be less than a negative number.
**Answer:** $\boxed{\text{No solution}}$.
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3. **Problem:** Solve $|6t - 7| - 8 \geq 3$.
Step 1: Add 8 to both sides:
$$|6t - 7| \geq 3 + 8$$
$$|6t - 7| \geq 11$$
Step 2: Use definition of absolute value inequality:
$$6t - 7 \leq -11 \quad \text{or} \quad 6t - 7 \geq 11$$
Step 3: Solve each:
For $6t - 7 \leq -11$:
$$6t \leq -11 + 7$$
$$6t \leq -4$$
$$t \leq \frac{\cancel{6}t}{\cancel{6}} \leq \frac{-4}{6} = -\frac{2}{3}$$
For $6t - 7 \geq 11$:
$$6t \geq 11 + 7$$
$$6t \geq 18$$
$$t \geq \frac{18}{6} = 3$$
**Answer:** $\boxed{t \leq -\frac{2}{3} \text{ or } t \geq 3}$.
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4. **Problem:** Solve $3|14 - m| > 18$.
Step 1: Divide both sides by 3:
$$|14 - m| > \frac{18}{3}$$
$$|14 - m| > 6$$
Step 2: Absolute value inequality:
$$14 - m < -6 \quad \text{or} \quad 14 - m > 6$$
Step 3: Solve each:
For $14 - m < -6$:
$$-m < -6 - 14$$
$$-m < -20$$
Multiply both sides by $-1$ (reverse inequality):
$$m > 20$$
For $14 - m > 6$:
$$-m > 6 - 14$$
$$-m > -8$$
Multiply both sides by $-1$ (reverse inequality):
$$m < 8$$
**Answer:** $\boxed{m < 8 \text{ or } m > 20}$.
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5. **Problem:** Solve $2|3w + 8| - 13 \leq -5$.
Step 1: Add 13 to both sides:
$$2|3w + 8| \leq -5 + 13$$
$$2|3w + 8| \leq 8$$
Step 2: Divide both sides by 2:
$$|3w + 8| \leq 4$$
Step 3: Absolute value inequality:
$$-4 \leq 3w + 8 \leq 4$$
Step 4: Subtract 8 from all parts:
$$-4 - 8 \leq 3w \leq 4 - 8$$
$$-12 \leq 3w \leq -4$$
Step 5: Divide all parts by 3:
$$\frac{-12}{3} \leq w \leq \frac{-4}{3}$$
$$-4 \leq w \leq -\frac{4}{3}$$
**Answer:** $\boxed{-4 \leq w \leq -\frac{4}{3}}$.
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6. **Problem:** Solve $|h - 5| \leq 10$.
Step 1: Absolute value inequality:
$$-10 \leq h - 5 \leq 10$$
Step 2: Add 5 to all parts:
$$-10 + 5 \leq h \leq 10 + 5$$
$$-5 \leq h \leq 15$$
**Answer:** $\boxed{-5 \leq h \leq 15}$.
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7. **Problem:** Solve $|4c + 5| > 7$.
Step 1: Absolute value inequality:
$$4c + 5 < -7 \quad \text{or} \quad 4c + 5 > 7$$
Step 2: Solve each:
For $4c + 5 < -7$:
$$4c < -7 - 5$$
$$4c < -12$$
$$c < \frac{-12}{4} = -3$$
For $4c + 5 > 7$:
$$4c > 7 - 5$$
$$4c > 2$$
$$c > \frac{2}{4} = \frac{1}{2}$$
**Answer:** $\boxed{c < -3 \text{ or } c > \frac{1}{2}}$.
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8. **Problem:** Solve $|19 - 4n| < 5$.
Step 1: Absolute value inequality:
$$-5 < 19 - 4n < 5$$
Step 2: Subtract 19 from all parts:
$$-5 - 19 < -4n < 5 - 19$$
$$-24 < -4n < -14$$
Step 3: Divide all parts by $-4$ (reverse inequalities):
$$\frac{-24}{-4} > n > \frac{-14}{-4}$$
$$6 > n > 3.5$$
Rewrite:
$$3.5 < n < 6$$
**Answer:** $\boxed{3.5 < n < 6}$.
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9. **Problem:** Solve $|3j - 1| + 6 > 0$.
Step 1: Subtract 6 from both sides:
$$|3j - 1| > -6$$
Since absolute value is always $\geq 0$, it is always greater than $-6$.
**Answer:** $\boxed{\text{All real numbers}}$.
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10. **Problem:** Solve $-4|6b - 8| \leq 12$.
Step 1: Divide both sides by $-4$ (reverse inequality):
$$|6b - 8| \geq \frac{12}{-4} = -3$$
Since absolute value is always $\geq 0$, it is always $\geq -3$.
**Answer:** $\boxed{\text{All real numbers}}$.