How the QWERTY Keyboard Was Designed to Slow You Down

How the QWERTY Keyboard Was Designed to Slow You Down

The keyboard layout you use every day was designed in 1873 to solve a mechanical problem — and it did so by intentionally making you type slower. 150 years later, we're still using it.

The Problem

Early typewriters (1860s-1870s):

• Christopher Latham Sholes invented the first practical typewriter (1868)
• Early keyboards used alphabetical layout (A-B-C-D-E...)
• Mechanical arms (typebars) would swing up to strike the paper
• Problem: Frequently used letter pairs (like S-T, A-N) had typebars positioned close together
• When typed quickly, the typebars would collide and jam
• Typists had to stop, unjam the machine, and start over
• Fast typing actually made the typewriter LESS useful

The Solution

Sholes rearranged the keyboard (1873):

• Separated frequently used letter pairs to different sides of the keyboard
• Moved common letters away from each other (T and H now far apart)
• Placed commonly used keys on the LEFT hand (designed for right-hand dominant users)
• The result: SLOWER typing speeds but fewer jams
• Remington Arms Company bought the design and manufactured the first QWERTY typewriter (1874)

Why It Persisted

The path dependency problem:

1. 1870s-1890s: Typists learned QWERTY (only game in town)
2. 1890s-1920s: Typing schools taught QWERTY (standardized training)
3. 1920s-1960s: Businesses bought QWERTY typewriters (standard equipment)
4. 1960s-1980s: Computer keyboards copied QWERTY (familiarity)
5. 1980s-present: Everyone learns QWERTY from childhood

Network effects:

• Once enough people know QWERTY, switching costs are enormous
• Every company would need to retrain every typist
• Every school would need new teaching materials
• Every keyboard manufacturer would need new products
• The cost of switching exceeds the benefit of a better layout

Better Alternatives That Failed

Dvorak Simplified Keyboard (1936):

• Designed by August Dvorak to be more efficient
• Home row contains all vowels plus most common consonants (A, O, E, U, I, D, H, T, N, S)
• 70% of typing on home row (vs 32% for QWERTY)
• Supposedly faster and reduces finger travel by 50%
• Studies disagree on actual speed improvement: Some show modest gains (5-10%), others show none
• Never gained mainstream adoption (switching cost too high)

Colemak (2006):

• Modern alternative layout
• Keeps ZXCV in place (common keyboard shortcuts)
• More ergonomic than QWERTY
• Tiny but dedicated community

The Truth About "Designed to Slow You Down"

Nuance: QWERTY wasn't designed to be slow for slowness's sake. It was designed to prevent jamming, which incidentally meant slightly slower peak speeds. But the tradeoff was worth it: a typewriter that works at moderate speed beats one that jams at high speed.

Modern evidence:

• Top QWERTY typists reach 150-200 WPM (well above any mechanical limitation)
• The jamming problem is irrelevant on digital keyboards
• Studies on Dvorak vs QWERTY show minimal real-world difference
• Muscle memory is the real lock-in: Most people type faster in QWERTY simply because they've practiced it for years

QWERTY Economics

• $10+ billion keyboard industry uses QWERTY as default
• 5 billion+ QWERTY keyboards in active use worldwide
• Switching cost: Estimated $100+ per worker (retraining, reduced productivity)
• Total global switching cost: Trillions of dollars
• This is the textbook example of path dependency in economics

Fun Facts

• The word "TYPEWRITER" can be typed using only the top row of QWERTY (intentional, for sales demos)
• Only 1 in 5 typists actually touch-type without looking
• The fastest QWERTY typist recorded: 216 WPM (Stella Pajunas, 1946, on IBM electric typewriter)
• Fastest on computer keyboard: 212 WPM (Barbara Blackburn, 2005, used Dvorak)
• 56% of the world uses QWERTY; other layouts (AZERTY France, QWERTZ Germany) are regional variants

The Takeaway

QWERTY is a 150-year-old solution to a problem that no longer exists. We use it not because it's optimal, but because the cost of changing exceeds the benefit. It's the ultimate example of path dependency — a decision made in 1873 that billions of people still live with today. The keyboard in your pocket or on your desk is a fossil of 19th-century mechanical engineering, preserved by the inertia of billions of typing fingers.