Difference between revisions of "Hex9 Documents"

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=Length 3=
 
=Length 3=
 
This puzzle is the 16-coloured version of the hexagonal tiling. The slices are related to that of the Rubik's cube's or more specifically the Megaminx's, therefore the solution is not difficult.
 
This puzzle is the 16-coloured version of the hexagonal tiling. The slices are related to that of the Rubik's cube's or more specifically the Megaminx's, therefore the solution is not difficult.

Revision as of 13:44, 24 March 2011

Back to MagicTile_Records main page Back to [[Hex9]

Length 3

This puzzle is the 16-coloured version of the hexagonal tiling. The slices are related to that of the Rubik's cube's or more specifically the Megaminx's, therefore the solution is not difficult.

Length 3:1.2

Andrey:

With 9 colors first stage was easy, but edges are too much connected. The best thing that I could develop was 22-twist commutators for 3-cycle of edges and 10-twist for re-orientation of the couple of edges. And I had to remember them in normal and mirrored forms in all orientations of the plane. Terrible...

Nan:

I just finished my {6,3} 9 colors, 3 layer factor = 1.29903810567 (the sweet spot Roice provided). For the edges, I used a 10-move commutator for 3-cycle, which is not too bad. It's actually easier than I expected yesterday. I notice you said your 3-cycle is 22-twist but re-orientation is 10-twist. That's a little weird. For me re-orientation is usually two 3-cycles.

Andrey:

Yes, it's strange for me too.

Let's mark centers as

Hex3-3-1.2-illustr.PNG

I've started with commutator [A,E']. Among other things it moves three edges around center D and changes orientation of two of them. So when I made [[A,E'],D^2] (10 twists), it was pure reversing of edges DF and DG. But I failed to make pure 3-cycle from it. Then I tried [A,E]. Again, it moves 9 edges, and the best I made from it was 5-cycle [[A,E],C^2]. Third commutator converted it to 3-cycle: [[[A,E],C^2],D^2]. Not very good, but enough for solving.

Nan:

Your reorientation algorithm is interesting. Using your notation, my 3-cycle is [[C,E],D] = (C,E,C',E'),D,(E,C,E',C'),D'. D can be replaced by D2, D3, D', etc to get some variations.


Length 5

Possible strategy

(1) Collect the edges first with normal twists then with the 3-cycle sequence S1 = [[A,B2'],[D2',C]] , B and D second layer, A and C first layer

Eb MT Hex 9c 5 sq1.PNG

(2) Do the face-edges with the 3-cycle sequence S2 = [A,B]^5 where A is layer 1 and B layer 2

(3) Do the edges as I have indicated in KleinsQuartic Document

(4) Do the corners as I have indicated in KleinsQuartic Document

(5) Do the face-corners with the 3-cycle sequence S3 = [ C'DA2 [A,B'] A2'D'C , [A,B'] ] all second layer turns except D

Eb MT Hex 9c 5 sq3.PNG

other

other