Group Theory and Patterns Generation in High Order Rubik Cubes

Authors

  • Qiyuan Sun

DOI:

https://doi.org/10.54097/94eey926

Keywords:

Group theory; Rubik’s Cube; Permutation group; Cube operations; Pattern generation.

Abstract

This paper explores the relationship between group theory and Rubik’s Cube operations and explains how mathematical structures can be used to generate patterns on higher-order cubes. The operations of a Rubik’s Cube can be modeled by a finite permutation group, where each move corresponds to a permutation of edge and corner blocks. By analyzing the locations and orientations of these blocks, the paper explains why repeated operations eventually return the cube to its original state. The total number of valid configurations of a 3×3×3 Rubik’s Cube is derived using permutation constraints on edge and corner positions and orientations. Examples such as the operations U, RRUU, and FR are used to illustrate how permutation cycles determine the order of operations and the resulting cube patterns. The study further extends these ideas to higher-order cubes and demonstrates methods for generating visual patterns on a 7×7×7 cube using structured sequences of layer rotations.

References

[1] Singmaster, D. (1981). Notes on Rubik’s Magic Cube. Enslow Publishers.

[2] Cornwell, J.F. (1997). Group Theory in Physics: An Introduction. San Diego: Academic Press.

[3] Rokicki, T., Kociemba, H., Davidson, M., & Dethridge, J. (2014). The diameter of the Rubik’s cube group is twenty. SIAM Review, 56(4), 645–670.

[4] Joyner, D. (2008). Adventures in Group Theory: Rubik’s Cube, Merlin’s Machine, and Other Mathematical Toys. Baltimore: Johns Hopkins University Press.

[5] Thompson, F. (2024). Algebra at Your Fingertips: Subgroups of the Rubik’s Cube. Medium. Available at: https://medium.com (Accessed: 14 August 2025).

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Published

23-03-2026

Issue

Section

Articles

How to Cite

Sun, Q. (2026). Group Theory and Patterns Generation in High Order Rubik Cubes. Mathematical Modeling and Algorithm Application, 8(3), 33-37. https://doi.org/10.54097/94eey926