NikkyAI
commented
7 years ago i hope i can help a little .. i made myself a little table to understand how it works
as far as i understand you match the right side of the left piece and the left side of the right piece the left piece can be rotated left by x the L x number pointing to where the side thats compared will end up the right piece cna be rotated right by x and i marked it using R x
| L 3 | R 1 | ||||||
| bridge | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| component | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| connection | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| corner | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| dskew | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| skew | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| substrate | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| t | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| track | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| transition | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| turn | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 | ||||||
| L 3 | R 1 | ||||||
| vias | L 2 |  |
L 0 | R 0 | |
R 2 | |
| L 1 | R 3 |
PS: i am working on a script that generates the neighbor entries based on which faces/connections a tile has.. it also supports things like (circuit example again) connection has to connect to component_internal, component_internal, can connect to components, essentially circumeventing mini chips if i had only compare equality of face/connection names
i will share the script here probably
selfsame
mxgmn
Hello, awesome work on this algorithm. Really cool stuff.
I'm still reading the code and getting a grip on what's happening, so I don't understand every part of the code yet. But in the readme you give an example of a human started level completed by the algorithm. So I tried to implement that.
I tried manually creating a wave that has only one coefficient set to true on the tiles that I draw, with the rest set to false. I then set that as the wave in the simple tiled model. But this approach doesn't work as the algorithm always fails after about 19 iterations (using the Castle example). (Basically as soon as the propagation reaches the user defined tiles, the result is unsuccessful).
Could you explain how did you do the autocompletion?