sm
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- Oct 6, 2013
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How to solve a cube 3x3x3 only with one algorithm without additional moves.
Author of idea – Eugene Benek from Kazakhstan.
For solving we will use a J-permute algorithm: λ = R U' L U2 R' U R U2 L' R' U
Sequence of solving:
My demo-video for this "crazy" method - http://youtu.be/7SopDBFCusI Yes!!! I did it!!!
Total, on solving of the cube was required:
605 / 11 = 55 λ
where:
605 - total number of movements
11 - count of moves in this algorithm (λ)
It is very interesting task! I recommend to try.
Rules: It is forbidden to use any additional moves except this algorithm! Also it is forbidden to use the mirror version of this algorithm!
Tricks with λ-algorithm:
If to emulate algorithms by means of these tricks you need bigger quantity of J-permute. I so think. In this case the algorithm is used as a picklock and the task loses any interest. I use it as a key.
PS. Eugene Benek can only with this algorithm solved cubes of any size!!! Too without additional moves. He likes very hard puzzles - a big bandaged cubes and etc.
One of his topics at the Russian forum - http://twistypuzzles.ru/forum/index.php/topic,305.0.html
The correction from Eugene for big cubes:
On the big cubes he uses another version J-permute: λ = R2 U D' R2 U R2 U' R2 D R2 U' R2 U
In this algorithm need to replace U/D on u/d - λ = R2 u d' R2 u R2 u' R2 d R2 u' R2 u (i.e. instead of external, we twist inside layers) - http://twistypuzzles.ru/forum/index.php/topic,305.msg3296.html#msg3296
For those who used a U-trick, one more task from Evgeny which excludes opportunity to use simply a U-trick with λ.
Modified version of λ-algorithm: λ = D R2 U' L U2 R' U R U2 L' R' U R' D'
Video from Eugene about it - http://www.youtube.com/watch?v=B_di2vm682w
This method should be considered as an additional task on the Rubik's cube. For example, as a knight's move on a chessboard. The cube can be used and thus without any physical modifications (bandaging, morphing, etc). Here we limit ourselves to conditions and such tasks sometimes too are interesting and difficult.
Author of idea – Eugene Benek from Kazakhstan.
For solving we will use a J-permute algorithm: λ = R U' L U2 R' U R U2 L' R' U
Sequence of solving:
- Solving all edges around centers
- Solving all corners
My demo-video for this "crazy" method - http://youtu.be/7SopDBFCusI Yes!!! I did it!!!
Total, on solving of the cube was required:
605 / 11 = 55 λ
where:
605 - total number of movements
11 - count of moves in this algorithm (λ)
It is very interesting task! I recommend to try.
Rules: It is forbidden to use any additional moves except this algorithm! Also it is forbidden to use the mirror version of this algorithm!
Tricks with λ-algorithm:
- U = λ y λ y λ
- U' = λ y' λ y' λ
- U2 = (λ y2 λ y λ y2 λ) or (λ y2 λ y' λ y2 λ)
If to emulate algorithms by means of these tricks you need bigger quantity of J-permute. I so think. In this case the algorithm is used as a picklock and the task loses any interest. I use it as a key.
PS. Eugene Benek can only with this algorithm solved cubes of any size!!! Too without additional moves. He likes very hard puzzles - a big bandaged cubes and etc.
One of his topics at the Russian forum - http://twistypuzzles.ru/forum/index.php/topic,305.0.html
The correction from Eugene for big cubes:
On the big cubes he uses another version J-permute: λ = R2 U D' R2 U R2 U' R2 D R2 U' R2 U
In this algorithm need to replace U/D on u/d - λ = R2 u d' R2 u R2 u' R2 d R2 u' R2 u (i.e. instead of external, we twist inside layers) - http://twistypuzzles.ru/forum/index.php/topic,305.msg3296.html#msg3296
For those who used a U-trick, one more task from Evgeny which excludes opportunity to use simply a U-trick with λ.
Modified version of λ-algorithm: λ = D R2 U' L U2 R' U R U2 L' R' U R' D'
Video from Eugene about it - http://www.youtube.com/watch?v=B_di2vm682w
This method should be considered as an additional task on the Rubik's cube. For example, as a knight's move on a chessboard. The cube can be used and thus without any physical modifications (bandaging, morphing, etc). Here we limit ourselves to conditions and such tasks sometimes too are interesting and difficult.
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