September 29, 2023
Learn how to solve a Rubik's cube with this step-by-step guide, including tips for faster solving and even making your own cube from scratch!

## Introduction

If you’re like many people, you’ve probably spent hours trying to solve a Rubik’s cube, only to end up frustrated with a jumbled mess of colors. But fear not! With a little guidance, anyone can learn how to solve this iconic puzzle. In this comprehensive guide, we’ll break down the process step-by-step, and offer some tips for faster solving and even making your own cube from scratch. Learning how to solve a Rubik’s cube is not only a fun and challenging hobby, but it can also improve your problem-solving skills and help you think more creatively. So let’s get started!

## A Step-by-Step Guide to Solving a Rubik’s Cube

Before we dive into the steps for solving a Rubik’s cube, it’s important to understand the structure of the cube and the notation used to describe its movements. A Rubik’s cube has six faces: front, back, left, right, up, and down. Each face is made up of nine smaller squares of the same color. The cube can be rotated around an axis in three directions: clockwise, counterclockwise, and by 180 degrees. Notation is used to describe these movements, with letters representing each face and symbols indicating the direction of rotation. For example, F (front) means to rotate the front face clockwise, while F’ means to rotate it counterclockwise, and F2 means to rotate it 180 degrees.

Now, let’s move on to the steps for solving the cube.

### Step 1: Solving the first layer

The goal of this step is to solve the first layer of the cube, which consists of the center square and four corner squares of each face. To start, choose one face to solve first. Let’s say we choose the white face. Look for a white corner piece (a square with white on two adjacent sides) and place it in the bottom layer of the cube, directly below where it belongs in the white face. If the corner piece is not in the bottom layer, move it there using the F, B, R, or L moves. Once the white corner is in the correct position, rotate the cube so that the corner is in the bottom-right corner of the white face, with the white side facing up. Now look for the edge piece (a square with two colors on opposite sides) that belongs in the same row as the white corner. Move the edge piece to the bottom layer, directly below where it belongs in the white face. Then, rotate the cube so that the edge piece is in the front-bottom position, with the white side facing up. Using the F move, rotate the front face until the edge piece matches the color of the center square on the same row. Finally, rotate the bottom layer until the white corner and edge pieces are in the correct position relative to each other, and repeat this process for the remaining three corners of the white face.

### Step 2: Solving the middle layer

The goal of this step is to solve the middle layer, which consists of the four edge pieces between the first and top layers. To start, rotate the cube so that the middle layer edge pieces that need to be solved are in the front and right positions of the bottom layer. Then, using the F move, rotate the front face until one of the unsolved edges is directly above its proper location on the middle layer. Next, rotate the top layer until the color on top of the edge piece matches the color of the center square on the same row. Then, use the following algorithm to move the unsolved edge piece to its proper location:

U R U’ R’ U’ F’ U F

This algorithm moves the edge piece from the top layer to the middle layer while keeping the first layer intact. Repeat this process for the remaining three edge pieces in the middle layer.

### Step 3: Solving the top layer

The final step is to solve the top layer of the cube. There are three possible scenarios for the top layer: all the top pieces are already in the correct position, two adjacent edge pieces are in the correct position but in the wrong orientation, or all the pieces are in the wrong position.

If all the top pieces are in the correct position, skip to the next step. If two adjacent edge pieces are in the correct position but in the wrong orientation, hold the cube so that the two pieces are on the left face, then use one of the following algorithms to swap the pieces:

R U R’ U R U2 R’

F R U R’ U’ F’

If all the pieces are in the wrong position, hold the cube so that one of the corner pieces is in the top-left position and use one of the following algorithms:

R U R’ U R U2 R’ F’ U’ F U R U’ R’

R’ U’ R U’ R’ U2 R F U F’ U’ R U’ R’

After following one of the algorithms, you should have a completed Rubik’s cube!

## Visualizing the Rubik’s Cube to Solve It

One thing that can be helpful in solving a Rubik’s cube is visualizing the cube in your mind and identifying patterns and visual cues. This can help you anticipate which moves to make next and can speed up your solving time.

One visualization technique is to mentally break the cube down into smaller parts and focus on solving each part individually. For example, you might focus on solving one face at a time or one corner piece at a time. Another technique is to look for repeating patterns on the cube and use algorithms to solve them. For example, the algorithm R U R’ U’ can be used to flip two adjacent edge pieces on the top layer.

It’s important to note that visualization takes practice, so don’t be discouraged if it doesn’t come easily at first. Keep solving the cube, and eventually, you’ll start to see the patterns more clearly.

## Using Algorithms to Solve a Rubik’s Cube

Algorithms are pre-determined sequences of moves that can be used to solve specific patterns on the cube. Using algorithms can be a more efficient way to solve the cube than trying to figure out each move on the fly. There are many algorithms available for solving different parts of the cube, from simple two-move sequences to more complex eight-move sequences.

One useful algorithm is the one we used earlier to move an edge piece from the top layer to the middle layer: U R U’ R’ U’ F’ U F. Another useful algorithm is the T-perm, which swaps two pairs of adjacent corners:

R U R’ U’ R’ F R2 U’ R’ U’ R U R’ F’

It’s important to practice algorithms until you can execute them quickly and accurately. This will help you solve the cube more efficiently.

## Solving a Rubik’s Cube Blindfolded

Yes, it’s possible to solve a Rubik’s cube blindfolded! While this is certainly a more advanced skill, it’s a fun challenge to work towards if you’re interested in taking your Rubik’s cube solving to the next level.

The key to solving a Rubik’s cube blindfolded is to memorize the position and orientation of each piece before starting to solve the cube. There are several methods for memorizing the cube structure, but one common method is to assign letters to each of the 54 squares on the cube and then create a story or image to associate with each piece.

Another important technique is to use muscle memory to execute the algorithms rather than relying on sight. This involves practicing the algorithms until they become automatic and second-nature.

Finally, it’s important to eliminate distractions when solving a Rubik’s cube blindfolded. Find a quiet, calm environment where you can focus solely on the cube and your memorization.

## Tips and Tricks for Solving a Rubik’s Cube Faster

If you’re already comfortable with the basics of solving a Rubik’s cube, here are some tips and tricks that can help you solve it faster:

• Warm up your hands before solving: This will help prevent cramping and make your movements smoother.
• Adjust the cube tension: Looser or tighter cube tension can affect how smoothly the cube turns, so experiment to find the tension that works best for you.
• Learn finger tricks: Using specific finger movements to execute algorithms can be faster and more efficient than using your entire hand.
• Look ahead: Try to anticipate the next move while you’re executing the current move. This will save you time and prevent pauses between moves.
• Time yourself: This can help you track your progress and identify areas where you can improve.

## Solving a Rubik’s Cube in Record Time

For some Rubik’s cube enthusiasts, solving the cube in under a minute is not enough of a challenge. Enter speedcubing, a competitive sport where participants race to solve the cube as quickly as possible. The current world record for solving a Rubik’s cube is held by Yusheng Du, who solved the cube in an incredible 3.47 seconds!

So what does it take to become a speedcuber? One important factor is practice, practice, practice. Many speedcubers practice for hours each day to hone their solving skills. They also use specialized cubes with specific tensions and lubricants that allow for faster solving.

But it’s not just speed that makes a great speedcuber. It’s also important to have a solid mental strategy, the ability to anticipate moves and patterns, and a mindset that allows you to stay calm and focused even under pressure.

## Making Your Own Rubik’s Cube

Finally, if you’re feeling really adventurous, you can even make your own Rubik’s cube from scratch! While the process is certainly more involved than solving a store-bought cube, it can be a fun and rewarding DIY project.

One way to make your own cube is to purchase a DIY cube kit, which typically includes all the pieces you’ll need to assemble the cube, as well as stickers or tiles for coloring the squares. Follow the instructions carefully to assemble the cube, and then get to work solving it!

Another option is to create your own cube pieces out of materials like paper, foam, or plastic. There are many tutorials available online for making your own Rubik’s cube pieces, so find one that works for you and get started on your custom cube creation!

## Conclusion

Solving a Rubik’s cube is a fun and challenging hobby that can help improve your problem-solving skills and boost your creativity. Whether you’re a beginner or a seasoned cuber, there’s always something new to learn and discover about this iconic puzzle. From mastering the basic steps to speedcubing and even making your own cube, the possibilities are endless.