
Each container contains three sacks, with coin counts between 1 and 9 (inclusive). The average (mean) number of coins per sack in each container is a distinct integer. Also, the total number of coins in each row and each column of the 3x3 grid is the same.
Possible averages for a container of 3 sacks: 1 through 9 (distinct). Thus, total coins in a container = 3 × average = 3, 6, 9, ..., 27. These totals are all divisible by 3.
Therefore, the sum of all 9 containers = \( 3 + 6 + 9 + \dots + 27 = 135 \). But only 9 distinct averages allowed, and sum = \( 3 \times (1 + 2 + \dots + 9) = 135 \)
So total per row/column = \( \frac{135}{3} = 45 \)
| 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 average = median are:
Therefore, the answer is: 4
The puzzle involves a 3×3 grid of boxes. Each box contains 3 sacks of coins. The average number of coins per sack in each box is a distinct integer from 1 to 9.
Given:
From the tables:
* indicates the box satisfies exactly one of the following:** means it satisfies two or more:
Strategy:
Use logic to determine extreme values:
Use constraints on medians, max/min values, and known box sums (multiples of 3 and unique values from 3 to 27).
After working through all constraints and validating against both tables...
Hence, the box with average 9 is the answer.
The average number of coins per sack in the boxes are all distinct integers. The total number of coins in each row is the same. The total number of coins in each column is also the same.
The average number of coins per sack in the boxes are all distinct integers. The total number of coins in each row is the same. The total number of coins in each column is also the same. The averages are 1, 2, 3, 4,.....9. The totals are these into 3. Total number of coins = 3(1 + 2 + 3....9) = 135. Each row and each column adds up to 45. Also, the total number coins in each box should be a multiple of 3.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9. Chase the extremes. Which box will have average 1? Which one will have average 9
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9. Chase the extremes. Which box will have average 1? Which one will have average 9
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9.
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9. Which box could have average 2?
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9. Now let us finish this off
Table 1 gives the median of the numbers of coins in the three sacks in a box for some of the boxes. In Table 2 each box has a number which represents the number of sacks in that box having more than 5 coins. That number is followed by a * if the sacks in that box satisfy exactly one among the following three conditions, and it is followed by ** if two or more of these conditions are satisfied. i) The minimum among the numbers of coins in the three sacks in the box is 1. ii) The median of the numbers of coins in the three sacks is 1. iii) The maximum among the numbers of coins in the three sacks in the box is 9. Now let us finish this off
Hence the Answer is 9
Each box contains 3 sacks. Each sack has between 1 and 9 coins. The average number of coins per box is a distinct integer between 1 and 9. So, possible total coins in any box are: \(3, 6, 9, \ldots, 27\).
The sum of all averages = \(1 + 2 + \dots + 9 = 45\). Since there are 9 boxes (3×3), and row and column totals are equal, each row and each column must sum to 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 bags where all 3 sack coin counts are distinct: 5 bags.
1. Analyzing Conditions for Each Box:
- From Table 2, any box marked with "\" satisfies multiple conditions.
- One such condition could be that the maximum number of coins in a sack is 9.
2. Identifying Boxes with Sacks Containing 9 Coins:
- By systematically checking each box and applying the given constraints,
- We identify that 5 boxes have at least one sack that contains exactly 9 coins.
Final Answer:
\[ \boxed{5} \] boxes contain at least one sack with 9 coins.
1. Understanding the Constraints:
- The total number of coins in each row and each column is the same.
- The average number of coins per sack in each box is a distinct integer.
2. Analyzing the Third Row:
- Based on the distinct integer average values and the equality of row and column totals from Tables 1 and 2, we can set up equations.
- Let each box in the third row have an average of \( a_1, a_2, a_3 \) coins per sack and \( s_1, s_2, s_3 \) sacks respectively.
- Then the total number of coins in the third row is:
\[ \text{Total coins in 3rd row} = a_1 \cdot s_1 + a_2 \cdot s_2 + a_3 \cdot s_3 \] - Solving based on the given structure of the puzzle and distinct averages that satisfy all grid constraints gives us the total.
3. Conclusion:
- After testing valid combinations and ensuring all conditions are satisfied, we find the total number of coins in all the boxes in the third row is:
\[ \boxed{45} \]
A train travels from Station A to Station E, passing through stations B, C, and D, in that order. The train has a seating capacity of 200. A ticket may be booked from any station to any other station ahead on the route, but not to any earlier station. A ticket from one station to another reserves one seat on every intermediate segment of the route. For example, a ticket from B to E reserves a seat in the intermediate segments B– C, C– D, and D–E. The occupancy factor for a segment is the total number of seats reserved in the segment as a percentage of the seating capacity. The total number of seats reserved for any segment cannot exceed 200. The following information is known. 1. Segment C– D had an occupancy factor of 952. Exactly 40 tickets were booked from B to C and 30 tickets were booked from B to E. 3. Among the seats reserved on segment D– E, exactly four-sevenths were from stations before C. 4. The number of tickets booked from A to C was equal to that booked from A to E, and it was higher than that from B to E. 5. No tickets were booked from A to B, from B to D and from D to E. 6. The number of tickets booked for any segment was a multiple of 10.