Difference between revisions of "CR†"

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(The article wasn't written in an encyclopedic style. I think this is cleaner this way. I hope I did not any mistake.)
(corrected from + to † because this is a Christian method)
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{{Substep Infobox
 
{{Substep Infobox
|name=CR+
+
|name=CR†
 
|image=
 
|image=
 
|proposers=[[Matt DiPalma]]
 
|proposers=[[Matt DiPalma]]
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|year=2017
 
|year=2017
 
|subgroup=
 
|subgroup=
|algs=144 (72 with mirrors) for CR2+ substep
+
|algs=144 (72 with mirrors) for CR2† substep
|moves=26.135 (for CR1, CR2+ and CR3+ substep)
+
|moves=26.135 (for CR1, CR2† and L3C substep)
 
|purpose=<sup></sup>
 
|purpose=<sup></sup>
 
* [[Speedsolving]], [[FMC]]
 
* [[Speedsolving]], [[FMC]]
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}}
 
}}
  
'''CR+''' is a revised, simplified and improved version of [[Cardan Reduction]]. Recognition is easier with CR+ than [[Cardan Reduction|CR]] and the last substep is [[L3C]], easier than CR3 substep.
+
'''CR+''' is a revised, simplified and improved version of [[Cardan Reduction]]. Recognition is easier with CR† than [[Cardan Reduction|CR]] and the last substep is [[L3C]], easier than CR3 substep.
  
 
== Steps ==
 
== Steps ==
 
# ''(CR1)'' [[F2L-1 + EO cube state]] to [[F2L-1C + EO + 2x1x1 block cube state]] : Insert FR edge and create a U-layer 2x1x1 block.
 
# ''(CR1)'' [[F2L-1 + EO cube state]] to [[F2L-1C + EO + 2x1x1 block cube state]] : Insert FR edge and create a U-layer 2x1x1 block.
# ''(CR2+)'' [[F2L-1 + EO cube state]] to [[L3C cube state]] : Solve the 2x1x1 pair, all edges, and last D corners.
+
# ''(CR2†)'' [[F2L-1 + EO cube state]] to [[L3C cube state]] : Solve the 2x1x1 pair, all edges, and last D corners.
#* Algorithms for the 2nd substep (CR2+) can be found [https://docs.google.com/spreadsheets/d/1n9C-FDrC2geg-6W1an8ZPFVyUwoONbgUIEwnRpKbrs0 here].
+
#* Algorithms for the 2nd substep (CR2†) can be found [https://docs.google.com/spreadsheets/d/1n9C-FDrC2geg-6W1an8ZPFVyUwoONbgUIEwnRpKbrs0 here].
 
# ''(L3C)'' [[L3C cube state]] to [[Solved cube state]] Solve the remaining 3 corners using [[L3C]] algs.
 
# ''(L3C)'' [[L3C cube state]] to [[Solved cube state]] Solve the remaining 3 corners using [[L3C]] algs.
  
 
== External links ==
 
== External links ==
* [https://docs.google.com/spreadsheets/d/1n9C-FDrC2geg-6W1an8ZPFVyUwoONbgUIEwnRpKbrs0 CR2+ Alg Spreadsheet]
+
* [https://docs.google.com/spreadsheets/d/1n9C-FDrC2geg-6W1an8ZPFVyUwoONbgUIEwnRpKbrs0 CR2† Alg Spreadsheet]
 
* [https://www.speedsolving.com/forum/threads/cardan-reduction-novel-ls-ll-approach.64042 Forum post]
 
* [https://www.speedsolving.com/forum/threads/cardan-reduction-novel-ls-ll-approach.64042 Forum post]
  
 
[[Category:3x3x3 last slot substeps]]
 
[[Category:3x3x3 last slot substeps]]

Revision as of 19:04, 6 November 2017

CR†
[[Image:]]
Information
Proposer(s): Matt DiPalma
Proposed: 2017
Alt Names:
Variants: CR, Step 3-4 of Heise Method
Subgroup:
No. Algs: 144 (72 with mirrors) for CR2† substep
Avg Moves: 26.135 (for CR1, CR2† and L3C substep)
Purpose(s):
Previous state: F2L-1 + EO cube state
Next state: Solved cube state

F2L-1 + EO cube state -> CR† step -> Solved cube state


The CR† step is the step between the F2L-1 + EO cube state and the Solved cube state.

CR+ is a revised, simplified and improved version of Cardan Reduction. Recognition is easier with CR† than CR and the last substep is L3C, easier than CR3 substep.

Steps

  1. (CR1) F2L-1 + EO cube state to F2L-1C + EO + 2x1x1 block cube state : Insert FR edge and create a U-layer 2x1x1 block.
  2. (CR2†) F2L-1 + EO cube state to L3C cube state : Solve the 2x1x1 pair, all edges, and last D corners.
    • Algorithms for the 2nd substep (CR2†) can be found here.
  3. (L3C) L3C cube state to Solved cube state Solve the remaining 3 corners using L3C algs.

External links