What is considered a good typing speed in 2026?

Typing speed benchmarks fall into roughly four tiers. Beginners and hunt-and-peck typists hit 25 to 40 WPM. Average adult typists land in the 40 to 65 WPM range, which is enough for most office work and email-heavy roles. Proficient touch typists who use all ten fingers without looking achieve 65 to 85 WPM. Professional and power-user territory begins around 85 WPM and stretches up to 120 WPM for journalists, programmers, and transcriptionists. Stenographers using chord-based machines like the Stenotype exceed 200 WPM routinely, with the world record sitting at 360 WPM held by Mark Kislingbury (2004). The single most predictive factor for which tier you reach is whether you touch-type without looking at the keys - that alone separates the 40 WPM majority from the 80+ WPM minority.

Why is the keyboard still called QWERTY, and was it really designed to slow typists down?

The QWERTY layout was patented by Christopher Latham Sholes in 1873 for the Sholes & Glidden typewriter, later sold by Remington. The popular claim that QWERTY was deliberately engineered to slow typists down is half right. Early typewriters had type bars that physically swung up to strike the paper, and when adjacent type bars were struck in rapid succession they jammed. Sholes rearranged the layout to separate common letter pairs (like 'TH' and 'ER') so that fast typists would alternate between hands and opposite sides of the type basket, reducing jams. The goal was not slowness per se but to spread keystrokes across both hands and across the basket. The layout stuck because the Remington No. 2 (1878) sold widely, typing schools standardized on it, and by 1893 the 'Big Four' typewriter manufacturers all used QWERTY. Network effects locked in a layout whose original mechanical rationale evaporated when type bars went away.

Are Dvorak or Colemak worth the retraining time?

For most working typists the answer is no, and for a specific minority the answer is a clear yes. August Dvorak (1936) and later Shai Coleman (Colemak, 2006) designed their layouts around English letter frequency. The most common letters sit on the home row, common bigrams alternate between hands, and finger travel distance drops by 50 to 70 percent compared with QWERTY. The trade-off is a retraining curve of roughly 80 to 200 hours of deliberate practice to reach your prior QWERTY speed - during which your productivity craters at work. Independent studies (Cassingham 1986; Liebowitz & Margolis 1990) found peak Dvorak speeds only modestly higher than peak QWERTY speeds, on the order of 5 to 10 percent. The clear-yes population is typists experiencing early RSI symptoms (Dvorak's reduced finger travel materially helps) and hobbyists who enjoy the project. The clear-no population is anyone whose job requires pair-programming, support-desk work, or sharing terminals on QWERTY machines - context-switching layouts breaks muscle memory in both directions.

Does it make sense to optimize for speed at the cost of accuracy?

No. The standard WPM formula penalizes errors twice: incorrect characters do not count toward correct-character totals, and backspacing to fix them consumes wall-clock time. A typist hitting 90 WPM raw with 80 percent accuracy has an effective output roughly equal to a typist hitting 75 WPM with 98 percent accuracy, once you factor in correction overhead. Worse, practicing at the edge of your speed envelope reinforces the specific motor patterns that produce errors - bad habits compound. The accepted training method (Mavis Beacon, TypingClub, Keybr, Monkeytype's 'beginner' mode) holds you at a deliberate pace until accuracy stabilizes above 95 percent, then gradually raises the target speed. The cleanest progression curve runs accuracy first, speed second.

Is typing speed on a phone keyboard comparable to a physical keyboard?

They measure different skills and should not be directly compared. Physical-keyboard typing relies on ten-finger touch-typing - parallel finger motion, muscle memory in three rows, and minimal eye-to-keyboard glancing. Phone typing on a glass screen is essentially two-thumb sequential tapping plus heavy reliance on prediction, swipe-to-type (Gboard, SwiftKey), and autocorrect. World-record holders on glass keyboards (Marcel Fernandes Filho, 17.55 seconds for a 26-word test using swipe) reach effective speeds north of 90 WPM, but stripping out the predictive engine drops human-only thumb typing to the 35 to 50 WPM range. The skills do not transfer in either direction: a 110-WPM physical-keyboard typist may be a mediocre phone typist, and vice versa.

Does autocorrect or predictive typing affect WPM measurement on this test?

This tool disables autocorrect, autocapitalize, and spellcheck on its input field (the autocomplete='off', autocorrect='off', autocapitalize='off', spellcheck='false' attributes are set on the hidden input element). What you type is what is measured. However, OS-level or keyboard-app-level prediction can still intervene on mobile: Gboard and SwiftKey insert predicted words even when the page disables the prediction feature, and iOS keyboard auto-period after double-space is OS-controlled. If your goal is to measure your unaided typing skill, run the test on a physical keyboard with prediction disabled, or use a desktop browser on a laptop. The result is then a clean measurement of your motor skill and pattern recall, not your prediction engine's vocabulary.

How does typing speed compare with voice-to-text or dictation?

Voice-to-text engines (Apple Dictation, Google Voice, Whisper, Dragon NaturallySpeaking) consistently transcribe at 120 to 160 WPM of raw speech with 90 to 95 percent accuracy on clean audio. A 2016 Stanford study (Ruan et al.) found speech dictation roughly three times faster than touch-typing on smartphones for the same composition task. For continuous narrative content - blog drafts, novel writing, voice memos - dictation wins on raw throughput. The catch is editing overhead: correcting voice transcription errors requires returning to the document, locating the error, and re-typing or re-dictating. For code, technical writing with symbols and punctuation, or any content with precise structure (tables, lists, formal email), keyboard input is faster and far less error-prone because you are not fighting transcription guesses. Most professionals end up using both: voice for first drafts, keyboard for editing.

Can practicing typing actually help prevent RSI and carpal tunnel?

Practicing typing in itself does not prevent RSI; practicing good typing technique does. The high-risk patterns are: locking the wrists at a sharp angle (radial or ulnar deviation), pounding the keys harder than necessary, hunt-and-peck typing that forces the same fingers to span the whole keyboard, and typing for hours without microbreaks. The low-risk patterns are: floating wrists in a neutral straight line, light keystroke force (modern mechanical and scissor switches need 45 to 65 grams of force - tapping harder is wasted effort), ten-finger touch typing so each finger covers its own region, and breaks every 30 to 45 minutes. The Mayo Clinic guidance is also clear that ergonomic keyboard split, chair height, and screen position matter more than typing speed itself. RSI rates among very fast typists are not notably higher than among slow typists - the proven risk factor is total keyboard hours per day combined with poor wrist posture, not WPM.

Typing Speed Test

Measure your WPM and accuracy. Click the text below and start typing.

Last reviewed: April 2026

Reviewed by Shannon Patterson, software engineer · last updated April 2026

New to this tool? Click here for instructions

WPM

100%

Accuracy

Errors

Remaining

Click "Start" or click the text area and begin typing.

Measure your typing speed in words per minute (WPM), characters per minute (CPM), and accuracy percentage across 30-, 60-, and 120-second test windows. Every keystroke is processed locally in your browser - nothing you type is uploaded, stored, or logged anywhere outside your device.

What This Tool Does

This tool runs a timed typing test in your browser and reports three numbers: WPM (words per minute, where one "word" is defined as five correctly typed characters - the international convention dating back to the typewriter-era American Standard for typing tests), CPM (raw characters per minute, useful for comparing across languages with different average word lengths), and accuracy (the percentage of keystrokes that matched the target text on first attempt). You can pick a 30-second, 60-second, or 120-second test duration, or paste your own custom passage and type it through to the end at your own pace.

Test results are saved to your browser's localStorage under the key devtoolbox-typing-history, retaining your last 10 sessions so you can chart progress without creating an account. The history can be cleared at any time with a single click. No data ever leaves your device - this is a fully client-side measurement tool with zero network calls during the test itself.

How to Use It

The workflow is intentionally short. You can be running a real test within ten seconds of landing on this page.

1. Pick a Test Duration

Click 30 sec, 60 sec, or 120 sec at the top. Thirty seconds gives a quick warm-up reading but is heavily influenced by your first ten characters; sixty seconds is the standard reference duration used by Monkeytype, 10FastFingers, and most typing certifications; 120 seconds smooths out short-term fluctuations and gives the most stable WPM number. Choose Custom Text if you want to type a specific passage end-to-end at your own pace.

2. Start Typing

Click anywhere inside the green-bordered text area and begin typing. The timer does not start on click - it starts on your first keystroke, so there is no penalty for taking a moment to focus. Characters you type correctly turn green; mistakes turn red on a pink background and stay that way until you backspace and retype them. A blinking cursor shows your current position in the passage.

3. Watch the Live WPM

The four stat cards above the text area update in real time as you type. WPM and accuracy recalculate on every keystroke; the timer counts down in the Remaining card; the progress bar shrinks linearly from green-full to zero. If you want a slower-paced indicator, glance at the status bar below the text area - it summarizes "X WPM, Y% accuracy, Z seconds remaining" in plain English.

4. See Your Result

When the timer hits zero (or you finish a custom passage), the result banner appears showing your final WPM, accuracy percentage, error count, and total correct characters. The session is automatically saved to your history below. Click Try Again to retake the same passage, or New Passage to pull a different one from the rotation.

Worked Example: A Real 60-Second Test at 87 WPM and 96% Accuracy

Imagine you take a 60-second test on a passage of mixed prose. Over the full minute you type 435 characters total, of which 417 are correct and 18 are errors that you either backspaced out and corrected (12 of them) or left as final errors (6 of them). Here is exactly how those numbers turn into a result.

Duration: 60 seconds (1.0 minute)
Correct characters typed: 417
Total characters typed: 435 (correct + error keystrokes)
WPM formula: correct characters / 5 / minutes = 417 / 5 / 1.0 = 83 WPM
Accuracy formula: correct / total x 100 = 417 / 435 x 100 = 95.9% (rounds to 96%)

Note the difference between raw WPM (which counts all keystrokes regardless of correctness) and adjusted WPM (which counts only correct characters). This tool reports adjusted WPM - the more conservative and more commonly used measure. A typist hitting 90 raw WPM with 80% accuracy would land at 72 adjusted WPM after the penalty; a typist hitting 87 raw WPM with 96% accuracy lands at 83 adjusted WPM. Accuracy compounds; speed does not.

What does 83 WPM at 96% accuracy mean? It places you firmly in the proficient tier. Roughly 70% of typists land between 40 and 65 WPM (the "average" tier); about 20% reach 65 to 85 WPM (proficient); fewer than 10% break 85 WPM consistently across multiple test sessions. The bell curve below shows the distribution.

Approximate distribution of typing speeds across the adult population, divided into beginner (25-40 WPM), average (40-65 WPM), proficient (65-85 WPM), and professional (85+ WPM) bands. The example session at 83 WPM lands near the 87th percentile - faster than roughly 8 in 10 typists but well short of the top 1%.

Common Use Cases

The same WPM number means very different things depending on what you are trying to measure. Five common scenarios cover most of the population using this tool.

Job Application Benchmark

Customer-support, data-entry, and administrative roles commonly list a minimum typing speed in the listing - usually 40 to 50 WPM for general office roles, 60 to 70 WPM for medical transcription, 70 to 80 WPM for paralegal and legal-secretary positions, and 80+ WPM for court reporting and high-volume call centers. Run a 60-second test three or four times across different days and report your median WPM rather than your single best score - that median is what employers see when they administer their own test, and inflating your stated number tends to get caught quickly in the first week on the job.

Learning Dvorak, Colemak, or a New Keyboard Layout

Switching from QWERTY to Dvorak (1936, August Dvorak) or Colemak (2006, Shai Coleman) flattens your speed to roughly 5 to 10 WPM for the first week, climbing back to 20 WPM in two to three weeks of deliberate practice, and reaching your prior QWERTY baseline somewhere between 80 and 200 hours of focused training. This tool serves as the daily benchmark: take one 60-second test in the new layout every morning, log the WPM number, and watch the curve. The plateau is the signal that you are ready to commit to the new layout exclusively.

RSI Prevention Awareness

If you are at risk for repetitive strain injury (RSI) - extended keyboard time, prior wrist issues, or a recent intensification of typing load - this test can flag the early warning sign of speed degradation under fatigue. Take a 60-second test fresh in the morning, then again at end of day after a heavy typing session. A drop of more than 10% in your evening score - or a noticeable rise in error count - is the body telling you to take more breaks and check your wrist posture before symptoms escalate. The Mayo Clinic's ergonomic guidance recommends 30-second microbreaks every 20 to 30 minutes for sustained typing work; this tool gives you an objective way to verify those breaks are doing their job.

Gaming and Esports Benchmarking

Competitive online gaming - especially MMOs, MOBAs, and games with in-match team coordination over text chat - rewards fast typists. League of Legends, World of Warcraft, EVE Online, and Counter-Strike all reward players who can type a tactical callout in under a second without taking their eyes off the screen. A WPM target of 70+ with high accuracy is the practical floor for tournament-level text communication; below 50 WPM you are functionally locked out of mid-match coordination.

Programming Typist Self-Assessment

Programmers face a different distribution than prose typists. Code contains a much higher density of symbols, brackets, underscores, and capitalization than English text, and most editors offer autocomplete that materially reduces total keystrokes. Many fast prose typists (90+ WPM on this kind of test) measure 35 to 50 WPM on raw code. The standard prose WPM is still useful as a baseline - it tells you whether your motor skill is the limiting factor or your code-specific muscle memory is. If you hit 80+ WPM on prose but feel slow at code, the problem is keymap familiarity (brackets, escape sequences, your editor's keybindings), not motor speed.

Edge Cases and Limitations

A few practical caveats worth knowing before you draw conclusions from a single test result.

Mobile keyboards are not directly comparable. Two-thumb tapping on glass screens with prediction engines (Gboard, SwiftKey) is a fundamentally different motor skill than ten-finger touch typing on a physical keyboard. The world-record holder on a phone (Marcel Fernandes Filho, 17.55 seconds for a 26-word test) reached over 90 effective WPM, but unaided thumb-typing without autocorrect lands most users at 25 to 45 WPM. Run this tool on a physical keyboard if you want a clean motor-skill measurement.

Autocorrect and predictive typing can interfere. This tool disables autocomplete, autocorrect, autocapitalize, and spellcheck on the input field. Most OSes respect those flags, but iOS keyboard auto-period (insert period when you double-tap space) and Gboard predictive word suggestions can still slip through at the OS level. If you spot a word suddenly turning green that you did not finish typing, you are seeing prediction at work - the cleanest results come from a physical keyboard with prediction explicitly disabled in OS settings.

Dvorak and Colemak have a long retraining curve. Allow 80 to 200 hours of deliberate practice to return to your prior QWERTY speed on a new layout. The classic mistake is to switch cold turkey and try to do real work in the new layout from day one - productivity craters, you blame the layout, and you bounce back to QWERTY before reaching the breakeven point. The recommended path is dual practice: keep QWERTY for work, drill the new layout in 20-minute daily sessions on this kind of test, and only switch fully when your test scores match your QWERTY baseline.

Typing speed and handwriting recall are different cognitive operations. A 2014 study (Mueller and Oppenheimer, "The Pen Is Mightier Than the Keyboard") found that students who hand-wrote lecture notes outperformed laptop-typing students on conceptual recall tests, despite typing being faster. The mechanism appears to be that handwriting forces selective compression - you cannot keep up with the speaker, so your brain has to summarize - which improves encoding. Faster typing does not mean better notes for learning purposes; it means more verbatim transcription, which is different.

Modern prediction-keyboard numbers skew upward. When comparing your WPM to historical records or to numbers your parents quoted from their typing class, account for the prediction-engine assist on every modern phone and most modern keyboards. World-record claims after roughly 2015 increasingly require disclosure of whether prediction was enabled. If a published WPM record does not state this, treat it as inflated by 30 to 50% relative to unaided typing.

Behind the Scenes: History of the WPM Measurement

The QWERTY Keyboard, 1873

Christopher Latham Sholes patented the QWERTY layout in 1873 for the Sholes & Glidden typewriter, which Remington began selling commercially in 1874. The widely repeated claim that QWERTY was designed to slow typists down is a half-truth. Early typewriters used metal type bars that swung up to strike paper; when adjacent type bars were pressed in rapid succession, they jammed. Sholes rearranged the layout specifically to separate common letter pairs ("TH", "ER", "ON") across the type basket, forcing hand and finger alternation that reduced jams. The goal was not slow typing per se but distributed typing. By the time the type-bar bottleneck was solved (around 1900), QWERTY had network-effect entrenchment: every Remington-trained typist, every typing school, every typewriter manufacturer had standardized on the layout. It survived the transition to electric typewriters in the 1930s, to electronic keyboards in the 1970s, to modern computers - despite no longer having any mechanical rationale.

Dvorak, 1936

August Dvorak (a psychologist and educator at the University of Washington) and his brother-in-law William Dealey patented an alternative layout in 1936 based on motion economy studies. The Dvorak Simplified Keyboard places the most frequent English letters on the home row (AOEUIDHTNS) and arranges keys so that common bigrams alternate between hands. Studies in the 1940s through 1990s consistently showed Dvorak's finger travel distance is 50 to 70 percent lower than QWERTY's for English prose, but the peak speed advantage is more modest - roughly 5 to 10 percent in well-controlled experiments. The retraining cost prevented mass adoption.

The Great Typewriter Speed Contests, 1900s

From roughly 1904 to 1925, public typewriter speed contests in the United States were genuine spectator events. Remington, Underwood, Royal, and L.C. Smith sponsored competitive typists who toured the country setting records. The top of the era was Albert Tangora, who in 1923 typed 147 WPM for one hour using a Royal typewriter - a record that stood for 60 years. Stella Pajunas hit 216 WPM on an IBM electric typewriter for one minute in 1946. These contests served as marketing for the sponsoring manufacturer, and the staging (perfect lighting, ideal text passages, hand-picked athletes) inflated public expectations about typical office-worker speeds.

Modern WPM Records (200+)

The current Guinness-recognized peak for sustained typing on a standard keyboard is Barbara Blackburn (Dvorak layout), measured at 212 WPM for a minute and 150 WPM for 50 minutes in 1985 - still standing as of 2026. Stenographers using chord keyboards (Stenotype machines) routinely exceed 250 WPM; Mark Kislingbury holds the stenotype world record at 360 WPM, set in 2004. On standard keyboards, modern fast typists like Sean Wrona regularly clear 200+ WPM in short bursts on online typing platforms. The realistic ceiling for any sustained-prose typing on a standard physical keyboard is somewhere between 220 and 240 WPM - constrained ultimately by finger anatomy, not by keyboard design.

This Tool vs. Monkeytype, Typing.com, 10FastFingers, and TypeRacer

There is no single canonical typing test online - five sites dominate the market, and each measures something slightly different. Choosing the right benchmark depends on what you want to know about your typing.

Typing Test Comparison: What Each Site Measures and Optimizes For
Tool	Primary Focus	Test Length	Source Texts	Best For
This Tool	Quick benchmark + history (no signup)	30 / 60 / 120 sec + custom	Mixed prose, classic literature, famous quotes	One-off WPM check, custom-passage practice, simple history tracking
Monkeytype	Hardcore practice with rich analytics	15 / 30 / 60 / 120 sec + word-count modes	Common words, quotes, custom punctuation	Long-term improvement tracking, per-key accuracy heatmaps, leaderboards
Typing.com	Lesson-driven curriculum for learners	Variable (lesson-based)	Progressive lessons from home row up	Beginners learning touch typing from scratch, K-12 classroom use
10FastFingers	Competitive 1-minute tests with leaderboards	60 seconds (fixed)	200 most common English words	Comparing your speed against a global ranked leaderboard
TypeRacer	Real-time racing against other typists	One passage (~30-60 sec)	Quotes, song lyrics, book passages	Competitive multiplayer racing, head-to-head ranked play

Each site optimizes for a different use case. Monkeytype is the deepest for solo practice analytics; 10FastFingers and TypeRacer are the strongest competitive contexts; Typing.com is the right starting point for true beginners; this tool is the fastest no-friction benchmark.

One important caveat for cross-tool comparison: the source-text distribution matters more than most users realize. 10FastFingers uses the 200 most common English words, which inflates measured WPM relative to mixed-prose tests by roughly 10 to 15 percent because common words are easier to type on muscle memory. TypeRacer uses quotes and song lyrics with proper capitalization and punctuation, which depresses measured WPM by roughly 5 to 10 percent relative to lowercase-only word-list tests. This tool uses mixed prose (classic literature, famous quotes, technical writing) which lands roughly in the middle - meaning a number from this tool will match a 10FastFingers test minus about 8 WPM, or a TypeRacer test plus about 5 WPM. Cross-tool WPM comparisons without controlling for source-text are not meaningful below a 10-WPM margin.

Frequently Asked Questions

Beginners hit 25-40 WPM; average typists 40-65 WPM; proficient touch typists 65-85 WPM; professionals 85+ WPM. Stenographers using chord keyboards exceed 200 WPM. Touch-typing without looking is the single biggest factor separating the tiers.

QWERTY was patented by Christopher Sholes in 1873 for the Sholes & Glidden typewriter. The layout separated common letter pairs to reduce type-bar jams. Network effects locked it in even after the mechanical rationale disappeared.

For most working typists, no - the retraining curve is 80-200 hours and the peak-speed advantage is only 5-10%. For typists with early RSI symptoms (lower finger travel materially helps) or layout hobbyists, yes.

Accuracy first. Errors double-penalize WPM (incorrect chars don't count and backspacing costs time). Practice at a pace that holds accuracy above 95%, then raise speed gradually. Bad habits trained at high speed are hard to unlearn.

No. Two-thumb tapping on glass with prediction engines is a different skill from ten-finger touch typing. World records on phones use swipe-to-type and prediction; unaided thumb typing lands at 35-50 WPM regardless of physical-keyboard skill.

This tool disables autocorrect, autocapitalize, and spellcheck on its input field. OS-level prediction (iOS auto-period, Gboard predictions) may still intervene on mobile. For cleanest results, use a physical keyboard with prediction explicitly disabled.

Voice transcription is ~3x faster than mobile typing for raw composition (120-160 WPM speech). Keyboard typing wins for editing, code, and structured content where precision matters more than throughput. Most pros use both.

Practicing good technique can; practicing speed alone cannot. Floating wrists, light keystroke force, ten-finger touch typing, and microbreaks every 30-45 minutes are protective. WPM itself is not a risk factor - total hours and poor wrist posture are.