Solving a Mathematical Puzzle: Ways to Fill an Odiosis Board

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SUMMARY

The discussion focuses on solving a mathematical puzzle involving an Odiosis board with 4036 boxes, where each box can have two states. The initial calculation of combinations is based on the formula 2^4036, but constraints reduce the possibilities significantly. Specifically, the constraint that no two adjacent columns can be the same leads to a refined calculation of 4 × 3^2017 combinations. Participants emphasize the importance of identifying all constraints to arrive at the correct solution.

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TheFallen018
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Hi,

First of all, I'm not sure what section to put this in, so if this is in the wrong section, please accept my most sincere apologies.

I'm trying to solve this puzzle I've come against, and I'm not quite sure what the best way to go about it is. Here's the question.

View attachment 7980

So, it seems to me that the first thing you'd do is take the maximum number of combinations, which I'm guessing should be 2^4036, due to there being 4036 boxes that each have a possible 2 combinations. Let's take the example with A and B, since the top row is 1 in both boxes, A cannot equal B. Therefore, if A = 0, B has to be equal to 1, or vice versa. By that logic, that takes two possible combinations out of a 4x4 block, making the block instead of having 2^4 possibilities, it now has 2^3 possible combinations. By that logic, there should be 2^(3027) possible numbers.

I feel though that I've missed a good number of constraints. What do you guys think?

Thanks.
 

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[sp]
An equivalent way of stating the rules would be that no two adjacent columns can be the same. That gives you 4 ways to fill the first column, and 3 ways to fill each of the remaining columns, for a total of $4\times3^{2017}$.
[/sp]
 

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