What Is Cubing? Speedcubing Basics, Gear, and How to Start

Updated

Cubing is the hobby of solving twisty puzzles—most often the 3x3 Rubik's Cube—and speedcubing is the competitive branch of it: solving those puzzles as fast as possible, usually under a timer and with a method you've deliberately practiced. If you already know how to solve a cube casually and want to get faster, or you're starting from zero and want to begin the "right" way, this covers what the events are, what gear you actually need, and a realistic beginner path. The main condition to keep in mind: speedcubing rewards consistency and deliberate practice far more than raw puzzle knowledge, so the order in which you learn things matters.

Cubing vs. speedcubing

Casual solving means getting the cube solved by any means—often by memorizing a single beginner method or even by taking it apart. Speedcubing means solving with a fixed, efficient method, timed, with the goal of lowering your average. The distinction isn't the puzzle; it's the intent and the measurement.

Casual solving Speedcubing
Goal Solve it Solve it fast, repeatedly
Method Whatever works A structured method (e.g. layer-by-layer, CFOP, Roux)
Measurement Untimed Timed, usually averaged over 5 or 12 solves
Gear Any cube A speedcube, a timer, algorithm references
Progression One-time Continuous, tracked

The main events

Speedcubing isn't just the 3x3. Official-style competition covers a range of puzzles, and each has its own methods and records. The Speed Cube Database, a free online speedcubing algorithm and reconstruction database, covers algorithms for 2x2 through 6x6 as well as Square-1, Pyraminx, and Megaminx.

  • 2x2 — solved largely with the same ideas as the 3x3 last layer; fast and beginner-friendly.
  • 3x3 — the flagship event and where most people start.
  • 4x4, 5x5, 6x6 — "big cubes," solved by reducing them to a 3x3-like state.
  • Square-1 — a shape-shifting puzzle with its own notation and method.
  • Pyraminx — a tetrahedral puzzle, quick to learn.
  • Megaminx — a dodecahedral puzzle solved like a layered 3x3 with extra steps.

How solves are timed

A solve is timed from the moment you start the timer to the moment the cube is solved and you stop it. In practice, cubers use a stackmat-style timer (hands on pads) or a keyboard/spacebar timer in software. Results are usually reported as an average of 5 (the middle three of five solves, dropping best and worst) or an average of 12, because a single lucky solve isn't a fair measure of skill. Inspection time—looking at the cube before starting—is typically limited, so part of the skill is planning your first moves during that window.

Essential gear

You need very little to start, but the right few items make practice measurable.

  • A speedcube. A cube designed to turn fast and corner-cut, rather than a stiff display cube. This is the one purchase that matters most early on.
  • A timer. Either a physical stackmat timer or free timer software/apps. The point is consistent, recorded times.
  • Algorithm references. A database of algorithms (often called "algs") and, ideally, reconstructions—breakdowns of how fast solvers actually executed a solve—so you can see method in action rather than just memorizing sequences.

The Speed Cube Database is one such free resource: it hosts algorithms and reconstructions across the puzzles listed above, which makes it useful both for looking up a specific case and for studying how faster solvers handle a scramble.

A beginner path

The order below front-loads the things that pay off longest. Skipping straight to advanced methods usually backfires because you lack the notation fluency and finger speed to use them.

  1. Learn cube notation. Letters like R, U, F (and their primes and doubles) describe turns. Every algorithm and tutorial assumes you can read this, so it's the true first step.
  2. Learn a basic method. A layer-by-layer beginner method gets you solving reliably. The goal here is completion, not speed.
  3. Practice fingertricks. These are the finger movements that let you turn faces without regripping the whole cube. They're the difference between "knowing" an algorithm and executing it quickly.
  4. Look up algorithms for the cases you keep hitting. This is where an algorithm database earns its place—you find the specific case, learn the alg, and drill it.
  5. Study reconstructions. Watching how a fast solve breaks down shows you where time is actually lost (usually the cross and the transition into the first pair, not the last layer).
  6. Track your averages. Time yourself in sets and record the average, not the single best. Progress in speedcubing shows up in averages first.

Common sticking points

  • Memorizing algs without fingertricks. You'll plateau fast; the alg is only half the skill.
  • Chasing a new method too early. A beginner method solved smoothly often beats an advanced method solved clumsily.
  • Measuring by best single. It's noisy. Averages of 5 or 12 tell you whether you're actually improving.
  • Ignoring inspection. Planning your first steps during inspection is free time you're otherwise wasting.

Where to go next

Once you can solve reliably and read notation, the productive loop is: identify the cases slowing you down, look up the algorithm, drill it with proper fingertricks, then check reconstructions to see how faster solvers chain their steps together. Free databases that cover algorithms and reconstructions for 2x2 through 6x6, Square-1, Pyraminx, and Megaminx give you a single place to do most of that lookup work, which keeps your practice focused on solving rather than searching.