How to Solve the 2×2 Rubik’s Cube?

The Rubik’s Cube was invented by Ernő Rubik in 1974. Initially known as the “Magic Cube,” it gained popularity in the 1980s and became a global phenomenon. It has sold over 450 million units worldwide, making it one of the best-selling toys ever. It has become an iconic symbol of problem-solving, creativity, and intellectual challenge. The 2×2 Rubik’s Cube, also known as the Pocket Cube, is a smaller variant of the original 3×3 Rubik’s Cube. It consists of a 2x2x2 grid, each face comprising four smaller cubies. Despite its smaller size, the 2×2 Rubik’s Cube offers its own unique challenges and solving techniques. It is often considered an initial step for beginners before moving on to larger and more complex cubes.

Solving the 2×2 Rubik’s Cube can be a fun and rewarding experience. It helps improve cognitive skills such as critical thinking, problem-solving, and spatial reasoning. Learning to solve the 2×2 Rubik’s Cube can boost confidence and provide a sense of accomplishment. Mastering the 2×2 Rubik’s Cube can open doors to more advanced puzzle-solving challenges and even competitive speedcubing.

Understanding the Basics of 2×2 cube

Cube notation and terminology

Cube notation refers to a standardized system of symbols used to represent different moves on Rubik’s Cube. Each face of the cube is denoted by a letter: F (front), B (back), R (right), L (left), U (up), and D (down). To indicate a clockwise rotation of a face, the letter is used by itself, while an apostrophe (‘) denotes a counterclockwise rotation. A 180-degree turn of a face is denoted by adding the number 2 after the letter.

Examples: F (clockwise), F’ (counterclockwise), F2 (180-degree turn).

Notable features and characteristics of the 2×2 Rubik’s Cube

The 2×2 Rubik’s Cube is a smaller variant of the original 3×3 Rubik’s Cube. It consists of a 2x2x2 grid, each face comprising four smaller cubies. The cube has eight corner cubies and no edge cubies.

Unlike the 3×3 cube, the 2×2 cube does not have a fixed centre orientation, allowing for greater flexibility in solving. Due to its smaller size, the 2×2 cube can be manipulated with fewer moves and is generally easier to solve than larger cubes.

Solving strategies and approaches of 2×2 cube

  • Various solving strategies exist for the 2×2 Rubik’s Cube, including layer-by-layer methods and algorithms. Layer-by-layer methods involve solving one layer at a time, typically starting with the first layer and progressing to the last. Algorithms are sequences of moves that achieve specific patterns or transformations on the cube.
  • Some common solving approaches for the 2×2 cube include the Ortega method, CLL (Corners of the Last Layer), and EG (Equivariant Graphs) method.
  • Basic concepts of solving, such as solving the first layer, orienting and permuting corners, and solving the last layer edges are essential to understand.
  • Practising algorithms and solving techniques can help improve solving speed and efficiency.

How to Solve the 2×2 Rubik’s Cube

Step 1: Solving the First Layer

  • The first layer is the foundation of solving the 2×2 Rubik’s Cube.
  • The objective is to solve one face of the cube by arranging the four corner cubies in the correct positions and orientations.
  • Start by selecting a colour to solve as the first face. This will be your reference colour throughout the solving process.
  • Examine the cube and locate the corner cubie with your chosen colour. If it is still not in the desired position, move it to the bottom layer.
  • Rotate the bottom layer to position the corner cubie correctly.
  • Repeat this process for the remaining three corner cubies until the first face is completely solved.
  • Once the first face is solved, focus on solving the remaining layer pieces.

Observe the unsolved corners on the top layer. If a corner is in the correct position but not properly oriented, use the following algorithm:

  • R U R’ U’
  • Apply the algorithm repeatedly until all the corners are oriented correctly.
  • If there are corners in the wrong position, move them to the bottom layer and reposition them using appropriate rotations.
  • Continue rearranging and orienting the corners until the second layer is solved.

Step 2: Orienting the Last Layer Corners

  • In this step, the focus is on properly orienting the corners of the last layer.
  • The goal is to have all the corners facing the correct direction.
  • Identify any corners that are not correctly oriented.
  • Use algorithms specifically designed for corner orientation to adjust the corner orientations.
  • Apply the algorithms as necessary until all the corners are properly oriented.

Step 3: Permuting the Last Layer Corners

  • In this step, the objective is to rearrange the corners of the last layer into their correct positions.
  • Identify any corners that are in the wrong position.
  • Utilize corner permutation algorithms to swap the corners while preserving their orientations.
  • Execute the algorithms until all the corners are correctly positioned.

Step 4: Permuting the Last Layer Edges

  • The focus now shifts to rearranging the edges of the last layer into their proper locations.
  • Identify any edges that are in the wrong position.
  • Use edge permutation algorithms to swap the edges while maintaining their orientations.
  • Execute the algorithms as needed until all the edges are in their correct positions.

Step 5: Orienting the Last Layer Edges

  • In this final step, the aim is to have all the edges of the last layer facing the correct direction.
  • Identify any edges that are not properly oriented.
  • Apply edge orientation algorithms to adjust the orientations of the edges until all are facing the correct direction.

You can successfully solve the 2×2 Rubik’s Cube by following these instructions. Practice and familiarity with the algorithms will improve your solving speed and efficiency over time.

Tips and Tricks for Efficient Solving

  • Study and familiarize yourself with common patterns that occur during the solving process. Recognize repetitive sequences of moves and their effects on the cube.
  • You can anticipate and apply specific algorithms or techniques to solve particular situations more efficiently by identifying patterns.
  • Practice regularly to improve your finger dexterity and agility.
  • Work on executing moves quickly and smoothly, minimizing pauses between rotations.
  • Strengthen your muscle memory by repeatedly performing algorithms and solving sequences.
  • Memorize a set of algorithms commonly used to solve the 2×2 Rubik’s Cube.
  • Practice executing the algorithms until they become second nature to you.
  • Experiment with different solving techniques and find the best ones for you.
  • Solve the cube repeatedly to reinforce the algorithms and techniques in your memory.

By implementing these tips, you can enhance your efficiency in solving the 2×2 Rubik’s Cube. If you practice regularly, you will become adept at recognizing patterns, improving finger dexterity, and applying algorithms effectively, ultimately leading to faster solving times.

Advanced Techniques and Speedcubing

  • Advanced solving methods are sophisticated approaches used by experienced cubers to achieve faster solve times and more efficient algorithms.
  • CFOP (Cross, F2L, OLL, PLL) is a popular method that involves solving the cube in multiple steps, optimizing efficiency and reducing move counts.
  • Roux, ZZ, and Petrus are alternative methods that focus on different solving principles, such as block-building and advanced cross techniques.
  • Each method has its algorithms and solving strategies, requiring extensive practice and memorization.
  • Advanced speedcubers often employ advanced algorithms for specific cases, such as OLL (Orientation of the Last Layer) and PLL (Permutation of the Last Layer).
  • Concepts like lookahead, finger tricks, and efficient turning styles are also important in speedcubing, helping to minimize pauses and increase solve speed.

Remember that advanced techniques require significant dedication and practice. By exploring advanced solving methods, studying speedcubing algorithms and concepts, and implementing strategies to improve solving times, you can elevate your cubing skills to a higher level of proficiency and speed.


In conclusion, mastering the 2×2 Rubik’s Cube is a rewarding journey that offers mental stimulation and a sense of accomplishment. You can develop impressive solving skills by following the step-by-step guide, exploring advanced techniques, and embracing the challenges of speedcubing. Embrace the joy of solving, and remember that with dedication, practice, and persistence, you can conquer the 2×2 Rubik’s Cube and experience the satisfaction of unravelling its colourful puzzle.

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