Step 1: Understanding the Concept:
We are given a new condition about the total number of days H works. We need to find a possible arrangement that is consistent with this condition.
Step 2: Key Formula or Approach:
First, determine the distribution of days worked among the employees given the new constraint. Then, build a valid schedule based on that distribution and test the options.
Step 3: Detailed Explanation:
1. Hull (H) works exactly one day.
2. The total number of employee slots is 6. We know F\(\geq\)2 and G\(\geq\)1. With H=1, the remaining 5 slots must be filled by F and G.
3. The only possible distributions are (F=4, G=1), (F=3, G=2), or (F=2, G=3). Since no employee can work on more than 3 days, F=4 is impossible. So the distributions must be (F=3, G=2, H=1) or (F=2, G=3, H=1).
4. Let's try to build a schedule. Let's test the distribution F=2, G=3, H=1. This means G works every day.
- Schedule framework: M:{G,?}, T:{G,?}, W:{G,?}.
- The remaining three slots must be filled by F, F, and H.
- Let's place them: M:{G,F}, T:{G,H}, W:{G,F}.
- Let's check this schedule:
- \textit{Frequency:} F=2, G=3, H=1. (OK)
- \textit{Conditional:} H is not on Monday. (OK)
- \textit{Consecutive Pairs:} {G,F} \(\neq\) {G,H}. {G,H} \(\neq\) {G,F}. (OK)
- This is a valid schedule. Now let's see which option it makes true.
- (A) F and H staff Mon? No, {G,F}.
- (B) F and H staff Wed? No, {G,F}.
- (C) G and H staff Mon? No, {G,F}.
- (D) G and H staff Tue? Yes, our valid schedule has {G,H} on Tuesday. This can be true.
- (E) G and H staff Wed? No, {G,F}.
Step 4: Final Answer:
We found a valid scenario (M:{G,F}, T:{G,H}, W:{G,F}) consistent with Hull working only one day. In this scenario, Gómez and Hull staff the booth on Tuesday. Therefore, this statement "can be true."