Each container holds three sacks, with coin counts ranging from 1 to 9 (inclusive). The mean number of coins per sack within each container is a unique integer. Furthermore, the sum of coins in every row and every column of the 3x3 grid is identical.
Possible averages for a container with 3 sacks are integers from 1 to 9 (distinct). Consequently, the total coins in a container equals 3 × average, resulting in values of 3, 6, 9, ..., 27. All these totals are divisible by 3.
The sum of all 9 containers is \( 3 + 6 + 9 + \dots + 27 = 135 \). This calculation assumes 9 distinct averages are utilized, and the sum is \( 3 \times (1 + 2 + \dots + 9) = 135 \).
Therefore, the total per row/column is \( \frac{135}{3} = 45 \).
| C1 | C2 | C3 | |
|---|---|---|---|
| R1 | 1,1,7 (avg=3) | 3,9,9 (avg=7) | 1,6,8 (avg=5) |
| R2 | 1,2,9 (avg=4) | 1,2,3 (avg=2) | 9,9,9 (avg=9) |
| R3 | 7,8,9 (avg=8) | 1,8,9 (avg=6) | 1,1,1 (avg=1) |
The cells where the average equals the median are:
The final count is: 4
The puzzle features a 3x3 grid of boxes, each containing 3 sacks of coins. The average number of coins per sack within each box is a unique integer from 1 to 9.
Given Information:
Data Sources:
* denotes a box meeting exactly one of the following criteria:** indicates a box meeting two or more criteria:
Approach:
Utilize logical deduction for extreme values:
Apply constraints related to medians, extreme values (min/max), and known box sums (which are multiples of 3 and distinct values between 3 and 27).
After applying all constraints and cross-referencing with both tables...
Conclusion: The box with an average of 9 is the solution.
Each box contains 3 sacks, with each sack holding 1 to 9 coins. The average number of coins per box is a unique integer from 1 to 9. Consequently, the total coins in any box can range from \(3 \times 1 = 3\) to \(3 \times 9 = 27\).
The sum of all distinct averages (1 through 9) is \(1 + 2 + \dots + 9 = 45\). With 9 boxes arranged in a 3x3 grid, and given that row and column totals are equal, each row and column must sum to \(45 / 3 = 15\).
| C1 | C2 | C3 | |
|---|---|---|---|
| R1 | 1,1,7 (3) | 3,9,9 (7) | 1,6,8 (5) |
| R2 | 1,2,9 (4) | 1,2,3 (2) | 9,9,9 (9) |
| R3 | 7,8,9 (8) | 1,8,9 (6) | 1,1,1 (1) |
Number of boxes where all 3 sack coin counts are distinct: 5 boxes.
1. Condition Analysis per Box:
- Boxes with "\" in Table 2 indicate adherence to multiple criteria.
- A potential criterion is a maximum sack coin count of 9.
2. Boxes with 9-Coin Sacks Identified:
- Through systematic examination and constraint application,
- We confirm that 5 boxes contain at least one sack with precisely 9 coins.
Final Answer:
\[ \boxed{5} \] boxes contain at least one sack with 9 coins.
1. Constraints:
- Each row and column contains an equal number of coins.
- The average number of coins per sack within each box is a unique integer.
2. Third Row Analysis:
- Using the distinct integer averages and consistent row/column totals from Tables 1 and 2, equations are formulated.
- Let \( a_1, a_2, a_3 \) represent the average coins per sack and \( s_1, s_2, s_3 \) represent the number of sacks for each box in the third row.
- The total coins in the third row is calculated as:
\[ \text{Total coins in 3rd row} = a_1 \cdot s_1 + a_2 \cdot s_2 + a_3 \cdot s_3 \] - The total is determined by solving these equations, adhering to the puzzle's structure and distinct averages that fulfill all grid requirements.
3. Final Result:
- Through the evaluation of valid combinations and verification of all conditions, the total number of coins across all boxes in the third row is determined to be:
\[ \boxed{45} \]