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typewriter

 
Dictionary: type·writ·er   (tīp''tər) pronunciation
n.
  1. A writing machine that produces characters similar to typeset print by means of a manually operated keyboard that actuates a set of raised types, which strike the paper through an inked ribbon.
  2. Printing. A typestyle like that of typewritten copy.

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Machine for writing characters similar to those made by printers' types, especially a machine in which the characters are produced by steel types striking the paper through an inked ribbon, the types being activated by corresponding keys on a keyboard and the paper being held by a roller (the platen) that is automatically moved along with a carriage when a key is struck. The first practical typewriter was patented in 1868 by Christopher L. Sholes; commercial production began at the Remington firearms company in 1874. By the end of the century the typewriter had come to dominate the American office. The first electric typewriter for office use was introduced in 1920. From the 1970s typewriters began to be replaced by personal computers and their associated printers.

For more information on typewriter, visit Britannica.com.

How Products are Made: How is a typewriter made?
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Background

Typewriters fall into five classifications. The standard typewriter was the first kind manufactured. It was too heavy (15-25 lb or 5.6-9.3 kg) to move often, so it was kept on a desk or typing table. The standard typewriter had a wider platen (a rubber-covered, steel cylinder for absorbing typing impact) in the carriage (the part that moved the paper into place) that could hold oversized forms. The portable manual typewriter was smaller in size, lighter in weight, and equipped with a carrying case for easier movement and storage. Portable typewriters were popular for home and school use.

Electric typewriters were heavier than standard machines because of their motors and electrical parts. Electric machines made typing easier because less effort was needed to strike the keys. Electric portables were smaller and lighter than desktop machines, and they had carrying cases with storage for the power cord.

The most recent kind of typewriter to be produced—the electronic typewriter—eliminated many of the disadvantages of both standard and electric machines. Circuit boards made the electronic typewriter much lighter (about 10 lb or 3.7 kg) than other models. Personal word processors (PWPs) were closely related to computers.

History

Writing machines were built as early as the fourteenth century. The first patented writing machine was made in England in 1714 but never built. The first manufactured typewriter appeared in 1870 and was the invention of Malling Hansen. It was called the Hansen Writing Ball and used part of a sphere studded with keys mounted over a piece of paper on the body of the machine.

Christopher L. Sholes and Carlos Glidden developed a machine with a keyboard, a platen made of vulcanized rubber, and a wooden space bar. E. Remington & Sons purchased the rights and manufacture began in 1874. To avoid jamming typebars with adjacent and commonly used pairs of letters, Sholes and Glidden arranged the keyboard with these first six letters on the left of the top row and other letters distributed based on frequency of use. Their "QWERTY" system is still the standard for arranging letters.

The first Remington typewriter only printed capital letters, but a model made in 1878 used a shift key to raise and lower typebars. The shift key and double-character typeface produced twice as many characters without changing the number of typebars. By 1901, John Underwood was producing a machine that had a backspace, tab, and ribbon selector for raising and lowering the ribbon.

George Blickensderfer produced the first electric typewriter in 1902, but practical electric typewriters were not manufactured until about 1925. In 1961, International Business Machines (IBM) introduced the Selectric electric typewriter. From about 1960 to 1980, the standard typewriter industry in the United States withered away. The IBM Selectric II debuted in 1984, but IBM stopped making electric models in favor of the electronic Wheelwriter in the early 1990s. By this time personal computers were becoming more popular.

By the late 1990s, most of the manual typewriters supplied to the United States came from three firms. Olympia in Germany makes standard portables, Olivetti in Italy makes a standard office typewriter and two portable models, and the Indian firm Godrej & Boyce Manufacturing Company is the largest producer of manual typewriters.

Raw Materials

Carrying cases can be made of wood, steel, or plastic. Steel is the material used for most of the parts in standard models. Typewriters use hundreds to thousands of moving parts, and cold-rolled steel is one of the most reliable materials.

The platen is a steel tube covered with a rubber sleeve. The rubber sleeves are made of a special form of rubber from the "buna-N" family. Glue is used to adhere the rubber sleeve to the platen tube.

The keys were molded of plastic in a two-shot, injection-molding process that made white characters with the surrounding key tops in other colors. From the 1970s forward, a pad printing process has been used to apply the characters in ink and coat the keys with a durable "clearcoat" finish.

Mylar (plastic) ribbons with ink on one side are used to transfer the typeface. These ribbons are contained in plastic cartridges that could be thrown away.

Miscellaneous materials are also used. These include glue, paint, chemical solvents and other fluids, zinc and chromium for plating some components, and acetic acid for building protective coatings on some parts.

Design

Typewriters have several parts that allow them to produce typed papers; the keyboard being the most obvious. Each key is connected to a typebar that lifted a typeface to strike the paper. Each typeface has upper and lower case forms of a letter or numbers and symbols. The assemblage of typebars and typefaces is called the typebasket.

Mylar (a plastic produced in very thin ribbons and coated with ink on the platen side) typewriter ribbon uses ink to transfer images on the typeface to the paper. Its alignment parallels the platen and the paper, and ribbon guides raise the ribbon to print and then lowers it.

The platen stops the typeface but allows enough force to the paper for the image to print. The carriage is a box-like container in the upper, rear part of the typewriter that carries the platen, the lever for carriage returns and line spacing, guides to help direct and grip the paper, and the paper itself. The paper is inserted in a feed rack (paper support) in the back of the carriage, supported and curved up toward the typing surface in a paper table or paper trough, and held against the underside of the platen by two feed rollers.

An escapement (a device that allows motion in only one direction and in precise steps) controls the motion of the carriage to the left after each character was typed. A mainspring in the escapement transmits energy to move the carriage on ball bearings.

To move the paper up after a line of typing is complete, a line-spacing lever rotates the platen toward the rear of the typewriter. The lever is also the carriage-return that disengages the escapement and pushes the carriage back to the right for the new line. Knobs on the ends of the platen are turned so the paper can be removed.

The Manufacturing
Process

  • Metal (primarily pre-tempered steel) for typewriter parts arrives as round stock. Round stock is supplied in 10-12-ft-long (3-3.75-m-long) rods of steel, brass, or other metals and in a range of diameters for making screws, bolts, and rivets.
  • Rods of round stock are distributed to machines where fabricators mark and cut them to length for rivets, bolts, or screws. Screw machines (lathe-like devices) turn round stock into screws by cutting the threads, points, and heads. Hobs (another type of cutting tool) are often used to cut other fasteners to length and shape.
  • The parts are taken to plating or finishing stations where they are treated for protection from wear and rust. Zinc or chromium plating is applied by treating the metal parts in baths of non-metallic solutions that conduct electricity. The parts are subjected to slight electrical charges that cause atoms from small pieces of zinc or chromium to be attracted to them when the baths are given opposite charges. Electrically bonded coatings made up of thin layers of atoms of zinc or chromium protect all surfaces of the metal parts.
  • Parts of the typewriter on the inside of each machine are treated in a series of baths of acetic acid to color the metal black. This process of creating the black layer (called black oxide) is something like dyeing clothing; the general term for the process is bluing. After the acetic baths, the metal parts are bathed again in a dip tank containing a type of light oil. The hot oil dries and leaves a protective coating over the black oxide. These treatments protect the parts against rust.
  • At finishing stations, exterior parts are polished. Operators apply buffing compounds to buffing wheels on machines and hold the typewriter parts against them. The rotating wheels coat the parts with the compounds and shine the typewriter components. Workers polish very small parts by hand, also using polishing compounds and hand-held buffers.
  • Pieces are then riveted or brazed to form complete parts for assembly. Brazing is similar to a soldering process that uses alloys with lower melting temperatures than the metal pieces being joined to avoid melting or warping those pieces. Both brazing and riveting create rigid joins, although rivets are also used when parts have to be free to move. Screws, bolts, and other fasteners also make moveable connections.
  • The platen is a specialized subassembly because it requires precision grinding with heavy machinery and the process produces rubber dust. The internal steel tube (sometimes called the axle or shaft) is cut from hollow round stock. It is finished on the outside for easier addition of the rubber and on the ends for smoothness. Similarly, the internal metal rod is also cut from round steel stock. The centers are stamped from steel in sheet form.
  • A rubber sleeve is then heated slightly to fit over the platen, and an air press pushes the sleeve over the tube coated with glue. A rod and the two platen centers are added to the steel tube, and fittings are added to hold the rod and centers tightly.
  • To make the typefaces, blank pieces of metal called "type slugs" are formed in the machines by vibrating the slugs into die sets bearing the letters and other characters. As the slugs are worked into the dies and hardened, the typefaces are spit out of the machine. Then transferred to the subassembly section where they are soldered on the typebars.
  • The rail system uses ball bearings to glide the carriage from left to right. Subassembly of the carriage consists of mounting the rail to the base of the carriage, installing the ball bearings, and attaching the spring and linkages.
  • The carriage-return lever extends over the top of the typewriter. Although the it is attached to the carriage to move it, it also has several linkages to the platen, paper handling system, and escapement. The lever and one set of the ends of its linkages are connected to the carriage. The parts of the metal feed rack (also called a paper support) that hold the paper as it is put in the typewriter are assembled, and the rack is attached to the back of the carriage.
  • The paper-handling system is another subassembly. It includes the paper trough (also called a paper table), two feed rollers (like miniature platens) that holds the paper against the underside of the platen, the paper-release lever, and a paper-alignment scale (paper bail). The paper-handling system allows the paper to be inserted in the typewriter, held firmly during typing, and rolled out when the page is complete. The paper trough is a U-shaped piece of steel stamped out of sheet stock, curved, and plated.
  • The escapement's subassembly is a system of gears, small gears called pinions, springs, chains, pawls, and fasteners. A pawl is a small bar with a tooth at each end that drops into the teeth of a gear, ratchet, or pinion. The pawls move the gear system forward, and the gears advance the escapement rack that pulls the carriage of the typewriter to each space needed for a new typed image. The escapement is assembled in a fitted, tray-like frame that will be set into the inner face of the strong underside of the typewriter jacket. This heavy underside and the arrangement of portions of other subassemblies that would be attached over the escapement protects the sensitive works.
  • The subassembly for the typebasket contains many of the 3,200-3,500 parts in the typewriter. The typebasket subassembly holds the typebars with typefaces on their ends as well as the spring system that connects the typebars to the keys. Each typeface is soldered to the end of its typebar. Each typebar has a unique angular bend so its typeface will strike flat against the platen. Like those in the carriage, sets of ball bearings are added to help move the typebars from upper to lower case and back. The assembler inserts the typebars in their positions in the typebasket and attaches the ends at the bottom of the basket to the appropriate springs. The springs will be connected to the keys when the keyboard and typebasket subassemblies are linked to each other during main assembly.
  • To begin the keyboard subassembly, the cap of each key is soldered to the correct key lever. The key levers are connected to springs that allow the keys to be depressed. The levers are put in appropriate slots in an internal keyboard frame. The spring system is also mounted to the keyboard frame to be connected with the springs for the typebasket subassembly during main assembly.

Main assembly

  • The five key subassemblies of the standard typewriter (the carriage, paper handling system, escapement, typebasket, and keyboard) are put on trucks and moved to the main assembly line where they are added to the typewriter frame.
  • Inside the body, the tray-like frame of the escapement is bolted into the inner face of the underside jacket of the typewriter.
  • The rail on the underside of the carriage is fixed to its matching half on the upper part of the body frame. The platen is set into place in openings in the carriage frame. A knob is added to the extruding end of the center rod on the right side of the platen; on the left end, a fitting holding the carriage-return and line-spacing lever is fitted on the rod, and is finished with another knob.
  • The keyboard and typebasket are inserted, their frames bolted to the body frame. A steel, V-notched typeguide is attached across the half-moon of the typebasket facing the platen; the V-notch provides an opening for the typefaces to strike the platen. The springs for each key and its typebar are linked together.
  • The typebars are also connected to the escapement and carriage linkages. To align typebars with the opening in the typeguide and strike the platen at the correct angles, the workers use three-pronged pliers to bend each typebar gently.
  • When the jacket of the typewriter is made from steel, it is attached to the main frame. The strong underside of the jacket had been installed on the main frame earlier because it also serves as a support for the escapement subassembly. Two pieces of steel forming lower sides of the jacket around the carriage are attached to the carriage frame. Two upper sides are also mounted on the carriage frame. These match the lower sides to provide round openings for the inner ends of the platen knobs so they can be used to turn the platen. The back and top L-shaped sections of the carriage jacket are attached to the body frame. The sides and top jacket of the keyboard are fastened in place over the keyboard. All of the sidepieces of the jacket are attached to the underside to strengthen the frame and jacket; the firm fit also seals the underside to limit the amount of dust that could enter the interior of the typewriter.

Quality Control

When raw materials are delivered to the typewriter fabrication plant, the receivers log in the materials and compare them to blueprints and specifications provided by design and manufacturing engineers. The quality control engineers also use a number of instruments for determining that parts and materials are acceptable such as verniers (short sliding rulers), micrometers (also called micrometer calipers) that are vice-like gauges for measuring thickness precisely, and height gauges to confirm dimensions.

When the typewriters are complete, a final quality control check is done by actually using each machine to test its performance. Each typewriter is checked for binding keys, print quality, advance of the ribbon, and movement of the carriage, among many other performance characteristics. Its appearance is careful examined for any flaws that might lead to rusting.

Byproducts/Waste

Most of the waste is generated during fabrication. Steel wastes such as the "skeletons" left after stamping or punch pressing and turnings and bushings (fragments) from screw-machine production of rivets and other parts are sold to salvage dealers, or melted and reused.

Plastic parts are used increasingly, plastic runners and rejected parts are also recycled. In the fabrication plant, they are reground, and these plastics were added to new batches of plastic. The percentage of reground plastic in a batch varied depends on the criticality of the part and the decision of the manufacturing engineers.

A large volume of rubber dust was produced when platens were ground round. The dust was carefully controlled and placed in collection boxes. The cooled dust was taken in the collection boxes to landfills. Machine exhaust was hooded to the outside. Minor quantities of other materials were disposed or recycled. Inked ribbons and cassettes containing Mylar ribbons were sometimes rejected and were also disposed in landfills.

The Future

Typewriters have a minor future in the Western World because computers have replaced them almost completely. Some businesses still need typewriters for limited uses, and many people find typewriters more convenient for single or small tasks.

Standard, electric, and electronic typewriters do have some future remaining in developing countries, and manufacturers in Asia and Europe supply this market. Brother makes typewriters in Japan, China has two or three factories, and Godrej & Boyce Manufacturing Company in India is the largest typewriter producer in the world. The Hermes, Olivetti, Olympia, and Royal brands are made in one or two factories in Europe. At the peak of standard typewriter manufacture, Smith Corona dominated production with a 54% market share; the company no longer makes its own typewriters, but, as a small supplier, it purchases them from a factory in Korea.

Rare use of typewriters today and their distinction as truly magnificent machines has made them popular and given them a respected future as collectibles. Antique dealers and other specialists buy and sell rare models on the Internet, and collectors exchange information using newsletters and web sites.

Where to Learn More

Books

Bryant, Carl. All About Typewriters and Adding Machines. New York: Hawthorn Books, Inc., 1973.

Davies, Margery. Woman's Place is at the Typewriter: Office Work and Office Workers 1870-1930. Philadelphia: Temple University Press, 1982.

Linoff, Victor M., ed. The Typewriter: An Illustrated History. Dover Publications, 2000.

Periodicals

Frazier, Ian. "Typewriter Man." The Atlantic Monthly Vol. 280, no. 5 (November 1997): 81-92.

Groer, Annie. "True to Type." The Washington Post (3 May 2001): HOI.

Other

"Typewriter History at a Glance." MyTypewritter.com Web Page. December 2001. <http://www.mytypewriter.com>.

[Article by: Gillian S. Holmes]


Sci-Tech Encyclopedia: Typewriter
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A machine that produces printed copy, character by character, as it is operated. Its essential parts are a keyboard, a set of raised characters or a thermal print head, an inked ribbon, a platen for holding paper, and a mechanism for advancing the position at which successive characters are printed. The QWERTY keyboard (named for the sequence of letters of the top row of the alphabet worked by the left hand) was designed in the 1870s. It contains a complete alphabet, along with numbers and the symbols commonly used in various languages and technical disciplines. The manual typewriter was introduced in 1874, followed by the electrically powered typewriter in 1934. By the late 1970s, electronic typewriters offered memory capability, additional automatic functions, and greater convenience. Further advances in electronic technology led to additional capabilities, including plug-in memory and function diskettes and cartridges, visual displays, nonimpact printing, and communications adapters. Although many typewriters are still in use, computers and word processing software largely have supplanted them. See also Word processing.


A mechanical or electromechanical device that is used to print text on a paper document. Although there were various typewriter-like devices created throughout the 1800s, the first typewriters with a carriage that moved the paper to the next character location began to emerge in the 1870s. The first commercially successful machine was the "Sholes & Glidden Type Writer" made by the Remington Arms company in Ilion, NY from 1874 to 1878. The QWERTY keyboard was created in that same time frame.

Electric and Selectric

Greatly reducing the effort it took to produce a typewritten page, electric typewriters were introduced by Remington and IBM in the 1920s and 1930s, still using the horizontal moving carriage. In 1961, IBM revolutionized the typewriter world with the introduction of its golf ball-like Selectric type wheel. Allowing the machine to reside in less desk space, the platen only moved the paper to the next line, while the type ball was moved across the page. Balls came with different typefaces and could be easily switched to change fonts. For more information about old typewriters, visit www.typewritermuseum.org.

High Tech in the 1890s!
Considered the first portable typewriter, George Blickensderfer created this beauty in 1893. (Equipment courtesy of Dorothy Hearn.)

The Selectric "Golf" Ball
Selectric typewriters were office workhorses for decades. This type element sits in a 26-year old Selectric II that was still going strong in 2006, probably because the machine was professionally cleaned every five years.

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Business Dictionary: Typewriter
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1. Manual or electric device with no memory storage, used to print on paper, one character at a time.

2. Word processing keyboard (typing) equipment designed for composing, repeating, and revising or editing work and having memory storage; for example, automatic typewriter, electronic typewriter, and memory typewriter.

3. Dedicated word processing machine, used for word processing only, not for games or keeping accounting records; also called text-editing machine.

US History Encyclopedia: Typewriter
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The idea of the typewriter emerged long before the technology existed for its practical or economical production. A patent was issued in England in 1714 to Henry Mill, "engineer to the New River Water Company," for "an Artificial Machine or Method for the Impressing or Transcribing of Letters Singly or Progressively one after another, as in Writing, whereby all Writings whatsoever may be Engrossed in Paper or Parchment so Neat and Exact as not to be distinguished from Print." No drawing or other description has survived, and it is not known if a machine was actually made.

Subsequently, inventors in many countries planned and produced writing machines. The most notable were Friedrich von Knauss in Germany and Pierre Jacquet-Droz of Switzerland in the late eighteenth century and Pietro Conti in early-nineteenth-century Italy.

William A. Burt of Detroit, Michigan, received the first U.S. patent for a writing machine in 1829 for his typographer. This was an indicator type machine using printer's type arranged on a swinging sector. It was slow but surprisingly effective. The tempo of such inventions increased as the century advanced, many of them made to aid blind persons, some to record telegraph messages. Giuseppe Ravazza in Italy in 1855, William Francis in the United States in 1857, and Peter Mitterofer in Austria in 1866 used individual keys for each character, and type bars pivoted around an arc so that all printed at the common center.

The first really successful machine used the same general arrangement of bars pivoted around an arc. The inventor was Christopher Latham Sholes of Milwaukee, Wisconsin, who had already pioneered new methods for addressing newspapers and numbering pages. Sholes acquired two patents in 1868, and James Densmore, a longtime friend of Sholes's, had fifteen machines made in Chicago. These machines were failures, but under Densmore's dominating personality Sholes was induced to continue tests and improvements. By 1872 what essentially became the modern key arrangement had been developed to permit speed without the interference of one letter with another. Production began again in that year at Milwaukee but was not profitable. In 1873 Densmore convinced E. Remington and Sons, arms manufacturers of Ilion, New York, to build and sell the machine. Their first act was to redesign the component parts, adapting them to more economical manufacture. The first examples, completed in 1874 and priced at $125, typed only capital letters. Not until 1878, with the introduction of a smaller machine with a shift key, could both uppercase and lower-case characters be typed. The American inventor Luciean S. Crandall perfected the means for shifting the cylinder, or platen; another American, Byron A. Brooks, developed multicharacter type bars. These features added so much to the versatility of typing that all subsequent machines had to offer similar writing ability.

In order to avoid the specifics of preexisting patents, inventors had to be clever in finding other means to a similar end. Out of this effort came the large class of type-wheel machines, of which the Hammond and the Blickensderfer were the most widely accepted. Both this class of machine and the type bar machines often used a double-shift design, in which there were separate shift keys—one for capitals and another for characters and numbers. This double shift reduced the number of parts and thus the cost, and in the case of type-wheel machines reduced the mass of moving parts, thus increasing speed and lessening wear. Another approach, popular for a time, used a double keyboard with a separate key for each character, typified by such once-popular machines as the Caligraph and the Smith-Premier. During the formative years there were many other varieties of keyboard as well, some with the keys disposed on circular arcs instead of in straight rows, and others with such accessories as the space bar in different locations. Through all of this period the basic arrangement, used since 1874 on Remington machines, remained popular and eventually became standard with the Underwood typewriter, which appeared about 1895. It was not until 1908 that Remington adopted a fast visible-writing machine, in which the carriage did not have to be lifted up in order to read the written line.

Meanwhile, typewriting had become so extensively accepted by the public that a host of slow, primitive machines, such as the Odell, found a wide market. These machines required the use of one hand to select the letter or character to be printed and the other hand to make the impression. Their only justification was a very low selling price; they appealed to those whose need for typewritten copy was only occasional and who did not require speed. Although often mistaken for pioneer machines, these primitive typewriters did not appear until practical machines had created a market for them.

The early years of the twentieth century saw the universal acceptance of visible writing, a uniform keyboard, and the scaling down of size to create portable machines. Several electric machines were introduced; the most successful was made by Blickensderfer in Stamford, Connectinut, prior to 1909. Beginning in 1930, with the introduction of a motor-driven variety by Electromatic Typewriters, Inc., of Rochester, New York, electric typewriters gradually replaced manual typewriters. The electric typewriter introduced in 1961 by International Business Machines Corporation (IBM) eliminated the heavy sliding carriage and the basket of type bars. Instead, the type was on a swiveling ball-shaped shuttle on a light carriage that traveled inside the framework of the machine. Printing was by means of a wide carbon ribbon in a readily changeable cartridge. Errors were corrected by striking over with a correction ribbon.

IBM's "memory" typewriter, introduced in 1974, reflected the company's role in the development of the personal computer. Seven years later IBM introduced its IBM PC, using integrated chips from its memory typewriters. Thereafter, personal computers with powerful word-processing programs, hooked up to fast dot matrix—and, later, laser—printers, replaced the electric typewriter for the favored spot on the desks of clerical workers. The role of typewriters quickly waned.

Bibliography

Bliven, Bruce. The Wonderful Writing Machine. New York: Random House, 1954.

Current, Richard N. The Typewriter and the Men Who Made It. 2d ed. Arcadia, Calif.: Post-Era Books, 1988.

Weller, Charles E. The Early History of the Typewriter. La Porte, Ind.: Chase and Shepard, 1918.

Spotlight: typewriter
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From our Archives: Today's Highlights, February 14, 2006

Remember the typewriter? It was a machine that contained keys for every letter and number which, when pressed, would print the character on a piece of paper. Before the word processor, every college student had a typewriter, as did every journalist and most authors of books. In 1868, Christopher Sholes (born on this date in 1819), Carlos Glidden and Samuel W. Soule received a patent for the first practical typewriter – enabling one to type documents faster than he could write them.
 
Columbia Encyclopedia: typewriter
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typewriter, instrument for producing by manual operation characters similar to those of printing. Corresponding to each key on the instrument's keyboard is a steel type. Activated through a series of levers or an electronic impulse when its key is pressed, the type strikes the paper in the machine through an inked ribbon; the carriage holding the paper then automatically moves, providing space for the next character. The first recorded patent for a typewriter was taken out in England by Henry Mill in 1714. In the United States the typographer of William Austin Burt, patented in 1829, was the first practical writing machine. An improved French machine appeared in 1833. The early models were chiefly for the blind and produced embossed writing. A practical commercial machine invented in the United States in 1867 by Christopher Latham Sholes and his associates, Carlos Glidden and Samuel Soulé, was manufactured by Philo Remington and placed on the market in 1874. This early model had only capital letters. A shift-key model, permitting change of case, appeared in 1878. The electric typewriter, which allowed greater speed with less effort than a manual machine, came into use c.1935. The Selectric, introduced by International Business Machines (IBM) in 1961, replaced the usual type bars with a metal globe that moved across the surface of a stationary paper holder, replacing the moving carriage of the traditional typewriter; interchangeable globes provided a variety of typefaces and special symbols, allowing a single typewriter to be utilized for scientific writing, foreign languages, or other uses. The globe was later replaced by the daisy wheel, which spins the proper type into position. These innovations have allowed typewriters to become versatile printing instruments, capable of storing entire documents before printing, identifying and correcting errors as they arise, and connecting to computers. Nonetheless, the typewriter was almost completely superseded by personal computers using word-processing software and printers by the mid-1990s; the machines are still used for specialized printing functions. Other forms of typewriters included the stock ticker, which recorded its message on a narrow strip of paper, and the teletypewriter, which transmitted typing over an electric circuit such as the telephone or telegraph.


Word Tutor: typewriter
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pronunciation

IN BRIEF: Hand-operated character printer for printing written messages one character at a time.

pronunciation There is nothing to writing. All you do is sit down at a typewriter and bleed. — Ernest Hemingway (1899-1961)

Wikipedia: Typewriter
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Mechanical desktop typewriters, such as this Underwood Five, were long-time standards of government agencies, newsrooms, and offices. They were largely replaced in these roles during the later 20th century, first in the 1960s by electric typewriters, then in the 1970s by the new-design IBM Selectrics which featured interchangeable "type-balls" instead of long-handled typebars which tended to get jammed if a typist picked up speed, and finally in the 1980s by personal computers. Though slower than electric models, the advantage of manual typewriters was that since no electrical power was required, they would work anywhere.
Old style Hermes typewriter with jammed typebars

A typewriter is a mechanical or electromechanical device with a set of "keys" that, when pressed, cause characters to be printed on a medium, usually paper. From their invention before 1870 through much of the 20th century, typewriters were indispensable tools for many professional writers and in business offices. By the end of the 1980s, word processor applications on personal computers had largely replaced the tasks previously accomplished with typewriters. Typewriters, however, remain popular in the developing world and among some niche markets, and for some office tasks.

Notable typewriter manufacturer companies have included E. Remington and Sons, IBM, Imperial Typewriters, Oliver Typewriter Company, Olivetti, Royal Typewriter Company, Smith Corona, and Underwood Typewriter Company.

Contents

History

Early innovations

No single person invented the typewriter. As with the automobile, telephone, and telegraph, a number of people contributed insights and inventions that eventually resulted in commercially successful instruments. In fact, historians have estimated that some form of typewriter was invented 52 times as tinkerers tried to come up with a workable design.[1]

In 1714, Henry Mill obtained a patent in Britain for a machine that, from the patent, appears to have been similar to a typewriter, but nothing further is known. Other early developers of typewriting machines include Pellegrino Turri, who also invented carbon paper. Many of these early machines, including Turri's, were developed to enable the blind to write.

In 1829, William Austin Burt patented a machine called the "Typowriter" which, in common with many other early machines, is listed as the "first typewriter". The Science Museum (London) describes it merely as "the first writing mechanism whose invention was documented," but even that claim may be excessive, since Turri's invention pre-dates it.[2] Even in the hands of its inventor, this machine was slower than handwriting. Burt and his promoter John D. Sheldon never found a buyer for the patent, and it was never commercially produced. Because the typographer used a dial, rather than keys, to select each character, it was called an "index typewriter" rather than a "keyboard typewriter," although it is debatable whether it should be considered a typewriter at all.

By the mid-1800s, the increasing pace of business communication had created a need for mechanization of the writing process. Stenographers and telegraphers could take down information at rates up to 130 words per minute, whereas a writer with a pen was limited to a maximum of 30 words per minute (the 1853 speed record).[citation needed]

From 1829 to 1870, many printing or typing machines were patented by inventors in Europe and America, but none went into commercial production.

Charles Thurber developed multiple patents, of which his first in 1843, was developed as an aid to the blind, such as the 1845 Chirographer. In 1855, the Italian Giuseppe Ravizza created a prototype typewriter called Cembalo scrivano o macchina da scrivere a tasti ("Scribe harpsichord, or machine for writing with keys"). It was an advanced machine that let the user see the writing as it was typed. In 1861, Father Francisco João de Azevedo, a Brazilian priest, made his own typewriter with basic materials and tools, such as wood and knives. In that same year the Brazilian emperor D. Pedro I, presented a gold medal to Father Azevedo for this invention. Many Brazilian people as well as the Brazilian federal government recognize Fr. Azevedo as the real inventor of the typewriter, a claim that has been the subject of some controversy. In 1865, American John Pratt built a machine called the Pterotype which appeared in an 1867 Scientific American article and inspired other inventors. Between 1864 and 1867 Peter Mitterhofer, a carpenter from South Tyrol (then part of Austria) developed several models and a fully functioning prototype typewriter in 1867.

In 1865, Rev. Rasmus Malling-Hansen of Denmark invented the Hansen Writing Ball, which went into commercial production in 1870 and was the first commercially sold typewriter. It was a success in Europe and was reported as being used in offices in London as late as 1909.[citation needed] Malling-Hansen used a solenoid escapement to return the carriage on some of his models which makes him a candidate for the title of inventor of the first "electric" typewriter. According to the book Hvem er Skrivekuglens Op finder? (English: Who are Writing Up takes?), written by Malling-Hansen's daughter, Johanne Agerskov, in 1865, Malling-Hansen made a porcelain model of the keyboard of his writing ball and experimented with different placements of the letters to achieve the fastest writing speed. Malling-Hansen placed the letters on short pistons that went directly through the ball and down to the paper. This, together with the placement of the letters so that the fastest writing fingers struck the most frequently used letters, made the Hansen Writing Ball the first typewriter to produce text substantially faster than a person could write by hand.

Malling-Hansen developed his typewriter further through the 1870s and 1880s and made many improvements, but the writing head remained the same. On the first model of the writing ball from 1870, the paper was attached to a cylinder inside a wooden box. In 1874, the cylinder was replaced by a carriage, moving beneath the writing head. Then, in 1875, the well-known "tall model" was patented, which was the first of the writing balls that worked without electricity. Malling-Hansen attended the world exhibitions in Vienna in 1873 and Paris in 1878 and he received the first-prize for his invention at both exhibitions.[3][4][5]

The first typewriter to be commercially successful was invented in 1867 by C. Latham Sholes,Carlos Glidden and Samuel W. Soule in Milwaukee, Wisconsin, although Sholes soon disowned the machine and refused to use, or even to recommend it.The patent (US 79,265) was sold for $12,000 to Densmore and Yost, who made an agreement with E. Remington and Sons (then famous as a manufacturer of sewing machines) to commercialize the machine as the Sholes and Glidden Type-Writer. This was the origin of the term typewriter. Remington began production of its first typewriter on March 1, 1873, in Ilion, New York. It had a QWERTY keyboard layout, which because of the machine's success, was slowly adopted by other typewriter manufacturers.

Because the type bars of this typewriter strike upwards, the typist in this French postcard, c. 1910, could not have seen characters as they were typed. The ability to view what is typed, as it is typed, is taken for granted today. This was not the case in most early keyboard typewriters, however, as the type bars struck upward against the bottom of the platen and what was typed was not visible until a carriage return caused it to scroll into view. The difficulty with any other arrangement was ensuring that the type bars fell back into place reliably when the key was released. This was eventually achieved with various ingenious mechanical designs and so-called "visible typewriters", such as the Oliver typewriter, were introduced in 1895. Surprisingly, the older style continued in production to as late as 1915.[citation needed]

Standardization

Typebars which became entangled when the six keys operating the typebars were pressed simultaneously

By about 1910, the "manual" or "mechanical" typewriter had reached a somewhat standardized design. There were minor variations from one manufacturer to another, but most typewriters followed the concept that each key was attached to a typebar that had the corresponding letter molded, in reverse, into its striking head. To have letters typed in exact location, the typebar was guided all its way till the ribbon by segment. When a key was struck briskly and firmly, the typebar hit a ribbon (usually made of inked fabric) stretched in front of a cylindrical platen that moved back and forth. The paper was rolled around by the typewriter's platen, which was then rotated by the "carriage return" lever (at the far left) into position for each new line of text.

A significant innovation was the Shift key. This key physically "shifted" either the basket of typebars, in which case the typewriter is described as "basket shift", or the whole carriage, in which case the typewriter is described as "carriage shift". This means that a different portion of the bar would come in contact with the ribbon/platen. The result is that each typebar could type two different characters, cutting the number of keys and typebars in half (and simplifying the internal mechanisms considerably). The obvious use for this was to allow letter keys to type both upper and lower case, but normally the number keys were also duplexed, allowing access to special symbols such as percent (%) and ampersand (&). With the Shift key, manufacturing costs (and therefore purchase price) were greatly reduced, and typist operation was simplified; both factors contributed greatly to mass adoption of the technology. Certain models, such as the Barlet, had a double shift so that each key performed three functions. These little three row machines were very portable and could be used by journalists, etc.

However, because the Shift key required more force to push (its mechanism was moving a much larger mass than other keys), and was operated by the "pinky" finger (normally the weakest finger on the hand), it was difficult to hold the Shift down for more than two or three consecutive strokes. The "Shift Lock" key (the precursor to the modern Caps Lock) allowed the shift operation to be maintained indefinitely. Unlike the today's Caps Lock, however, the Shift Lock was a two-key operation: Shift would be held down, and the Shift Lock (normally directly above) would be pressed simultaneously, triggering a simple lock mechanism. To unlock, Shift was tapped again, releasing both keys and unshifting the basket.

Some ribbons were inked in black and red stripes, each being half the width and the entire length of the ribbon. A lever on most machines allowed switching between colors, which was useful for bookkeeping entries where negative amounts had to be in red.

In the early part of the 20th century, a typewriter was marketed under the name "Noiseless" and advertised as "silent". It was developed by Wellington Parker Kidder and the first model was marketed by the Noiseless Typewriter Company in 1917. An agreement with Remington in 1924 saw production transferred to Remington, and a further agreement in 1929 allowed Underwood to produce it as well.[6] It failed, leading some observers to the conclusion that the clickety-clack of the typical typewriter was a consumer preference.[7] A more likely reason is that the claims of silent operation were simply untrue.

In a conventional typewriter the type bars are decelerated at the end of their travel simply by impacting upon the ribbon and paper. So-called "noiseless" typewriters have a complex lever mechanism that decelerates the typebar mechanically and then presses it against the ribbon and paper[6] in an attempt to render the process less noisy. It was not particularly successful; it certainly reduced the high-frequency content of the sound, rendering it more of a "clunk" than a "clack" and arguably less intrusive, but the grandiose claims of the advertising - such as "a machine that can be operated a few feet away from your desk - And not be heard" - were entirely without foundation.

Electric designs

Although electric typewriters would not achieve widespread popularity until nearly a century later, the basic groundwork for the electric typewriter was laid by the Universal Stock Ticker, invented by Thomas Edison in 1870. This device remotely printed letters and numbers on a stream of paper tape from input generated by a specially designed typewriter at the other end of a telegraph line.

The first electric typewriter was produced by the Blickensderfer Manufacturing Company, of Stamford, Connecticut, in 1902. Like the manual Blickensderfer typewriters it used a cylindrical typewheel rather than individual typebars. It was not a commercial success, which may have been due to the fact that at the time electricity had not been standardized and current differed from city to city. The next step in the development of the electric typewriter came in 1909, when Charles and Howard Krum filed a patent for the first practical teletype machine. The Krums' machine also used a typewheel rather than individual typebars. While innovative, neither of these machines reached business or personal consumers.

James Fields Smathers of Kansas City invented what is considered the first practical power-operated typewriter in 1914. In 1920, after returning from Army service, he produced a successful model and in 1923 turned it over to the Northeast Electric Company of Rochester for development. Northeast was interested in finding new markets for their electric motors and developed Smathers's design so that it could be marketed to typewriter manufacturers, and from 1925 Remington Electric typewriters were produced powered by Northeast's motors.

After some 2,500 electric typewriters had been produced, Northeast asked Remington for a firm contract for the next batch. However, Remington was engaged in merger talks which would eventually result in the creation of Remington Rand and no executives were willing to commit to a firm order. Northeast instead decided to enter the typewriter business for itself, and in 1929 produced the first Electromatic Typewriter.

In 1928, Delco, a division of General Motors, purchased Northeast Electric, and the typewriter business was spun off as the Electromatic Typewriters, Inc. In 1933, Electromatic was acquired by IBM, which then spent $1 million on a redesign of the Electromatic Typewriter, launching the IBM Electric Typewriter Model 01 in 1935. By 1958 IBM was deriving 8% of its revenue from the sale of electric typewriters.

Electrical typewriter designs removed the direct mechanical connection between the keys and the element that struck the paper. Not to be confused with later electronic typewriters, electric typewriters contained only a single electrical component: the motor. Where the keystroke had previously moved a typebar directly, now it engaged mechanical linkages that directed mechanical power from the motor into the typebar.

IBM and Remington Rand electric typewriters were the leading models until IBM introduced the IBM Selectric typewriter in 1961, which replaced the typebars with a spherical element (or typeball) slightly larger than a golf ball, with reverse-image letters molded into its surface. The Selectric used a system of latches, metal tapes, and pulleys driven by an electric motor to rotate the ball into the correct position and then strike it against the ribbon and platen. The typeball moved laterally in front of the paper instead of the former platen-carrying carriage moving the paper across a stationary print position.

IBM Selectric II (dual Latin/Hebrew typeball and keyboard)
Selectric II dual Latin/Hebrew Hadar typeball
Replaceable IBM typeballs with clip, 2 Euro coin for scale

The typeball design had many advantages, especially the elimination of "jams" (when more than one key was struck at once and the typebars became entangled) and in the ability to change the typeball, allowing multiple fonts to be used in a single document. Selectric mechanisms were widely incorporated into computer terminals in the 1960s, as they possessed obvious advantages:

  • The mechanism was reasonably fast and jam-free
  • It could produce high quality output compared to competitors such as Teletype machines
  • It could be initiated by a short, low-force mechanical action
  • It did not require the movement of a heavy "type basket" to shift between lower- and upper-case
  • It did not require the platen roller assembly to move from side to side (a problem with continuous-feed paper)

The IBM 2741 terminal was a popular example of a Selectric-based computer terminal, and similar mechanisms were employed as the console devices for many IBM System/360 computers. These mechanisms used "ruggedized" designs compared to those in standard commercial typewriters.

IBM also gained an advantage by marketing more heavily to schools than did Remington, with the idea that students who learned to type on an IBM Electric would later choose IBM typewriters over the competition in the workplace as businesses replaced their old manual models.[citation needed]

Later models of IBM Executives and Selectrics replaced inked fabric ribbons with "carbon film" ribbons that had a dry black or colored powder on a clear plastic tape. These could be used only once, but later models used a cartridge that was simple to replace. A side effect of this technology was that the text typed on the machine could be easily read from the used ribbon, raising issues where the machines were used for preparing classified documents (ribbons had to be accounted for to ensure that typists didn't carry them from the facility).[8]

Composer output showing Roman, Bold and Italic fonts available by changing the type ball

A variation known as "Correcting Selectrics" introduced a correction feature, where a sticky tape in front of the carbon film ribbon could remove the black-powdered image of a typed character, eliminating the need for little bottles of white dab-on correction fluid and for hard erasers that could tear the paper. These machines also introduced selectable "pitch" so that the typewriter could be switched between pica type(10 characters per inch) and elite type (12 per inch), even within one document. Even so, all Selectrics were monospaced—each character and letterspace was allotted the same width on the page, from a capital "W" to a period. Although IBM had produced a successful typebar-based machine with three levels of proportional spacing, called the IBM Executive, no proportionally spaced Selectric office typewriter was ever introduced. There were, however, two other machines with fully proportional spacing: the expensive Selectric Composer, which was capable of right-margin justification and was considered a typesetting machine rather than a typewriter, and the more reasonably-priced IBM Electronic Typewriter 50, which was capable of proportional spacing but not right-justifying. By 1970, as offset printing began to replace letterpress printing, the Composer would be adapted as the output unit for a typesetting system. The system included a computer-driven input station to capture the key strokes on magnetic tape and insert the operator's format commands, and a Composer unit to read the tape and produce the formatted text for photo reproduction.

Some of IBM's advances were later adopted in less expensive machines from competitors. For example, Smith-Corona electric typewriters of the 1970s used interchangeable ribbon cartridges, including fabric, film, erasing, and two-color versions. At about the same time, the advent of photocopying meant that carbon copies and erasers were less and less necessary; only the original was typed, and copies were then made from it.

Electronic typewriter - the final stage in typewriter development. A 1989 Canon Typestar 110

The final major development of the typewriter was the "electronic" typewriter. Most of these replaced the typeball with a metal or plastic daisy wheel mechanism (a disk with the letters molded on the outside edge of the "petals"). A plastic daisy-wheel was much simpler and cheaper than the metal typeball, but it also wore out more easily. Some electronic typewriters were in essence dedicated word processors with internal memory and cartridge, magnetic card or diskette external memory-storage devices. Unlike the Selectrics and earlier models, these really were "electronic" and relied on integrated circuits and multiple electromechanical components. These typewriters were sometimes called display typewriters (cf. US patent 4,620,808) or word-processing typewriters, though the latter term was also frequently applied to less sophisticated machines that featured only a tiny, sometimes just single-row display.

Due to falling sales, IBM sold its typewriter division in 1990 to Lexmark.

In short, as far as typewriters and word processors are concerned, the 1970s and early 1980s were a time of transition. In a given year, most small-business offices would be completely old-style, while large corporations and government departments would already be all new-style; other offices would have a mixture. It was common for clerical staff to have to learn several new systems, one after the other, in just a few years, the pace of change was so rapid. While such rapid change is commonplace today, and is taken for granted, this was not always so; in fact, typewriting technology changed very little in its first 80 or 90 years.

Typewriter/printer hybrids

Towards the end of the commercial popularity of typewriters in the 1980s, a number of hybrid designs combining features of printers were introduced.

These often incorporated keyboards from existing models of typewriters and printing mechanisms of dot-matrix printers. The generation of teletypes with impact pin-based printing engines was not adequate for the demanding quality required for typed output and alternative thermal transfer technologies used in thermal label printers had become technically feasible for typewriters.

IBM produced a series of typewriters called Thermotronic with letter-quality output and correcting tape along with printers tagged Quietwriter. Brother extended the life of their typewriter product line with similar products. DEC meanwhile had the DECwriter.

The development of these proprietary printing engines provided the vendors with exclusive markets in consumable ribbons and the ability to use standardised printing engines with varying degrees of electronic and software sophistication to develop product lines.

Although these changes reduced prices - and greatly increased the convenience - of typewriters, the technological disruption posed by word processors left these improvements with only a short-term low-end market. To extend the life of these products, many examples were provided with communication ports to connect them to computers as printers.

The increasing dominance of personal computers, desktop publishing, the introduction of low-cost, truly high-quality, laser and inkjet printer technologies, and the pervasive use of web publishing, email and other electronic communication techniques have largely replaced typewriters.

As of 2009, typewriters still were used by some government agencies. E.g., it was reported that in 2008 New York City purchased a few thousands typewriters, mostly for use by New York Police Department, at the total cost of $982,269; another $99,570 were spent in 2009 for the maintenance of the existing typewriters. New York police officers use the machines to type property and evidence vouchers on carbon paper forms.[9]

Legacy

Keyboard layouts: "QWERTY" and others

The "QWERTY" layout of typewriter keys became a de facto standard and continues to be used long after the reasons for its adoption (including reduction of key/lever entanglements) have ceased to apply.

The 1874 Sholes & Glidden typewriters established the "QWERTY" layout for the letter keys. During the period in which Sholes and his colleagues were experimenting with this invention, other keyboard arrangements were apparently tried, but these are poorly documented.[10] The near-alphabetical sequence on the "home row" of the QWERTY layout (a-s-d-f-g-h-j-k-l) demonstrates that a straightforward alphabetical arrangement was the original starting point.[11] The QWERTY layout of keys has become the de facto standard for English-language typewriter and computer keyboards. Other languages written in the Latin alphabet sometimes use variants of the QWERTY layouts, such as the French AZERTY, the Italian QZERTY, the Portuguese HCESAR and the German QWERTZ layouts.

The QWERTY layout is not the most efficient layout possible, since it requires a touch-typist to move his or her fingers between rows to type the most common letters. A popular story suggests that it was designed and used for early typewriters exactly because it was so inefficient; it slowed a typist down so as to reduce the frequency of the typewriter's typebars wedging together and jamming the machine. Another story is that the QWERTY layout allowed early typewriter salesmen to impress their customers by being able to easily type out the example word "typewriter" without having learnt the full keyboard layout, because "typewriter" can be spelled purely on the top row of the keyboard. The most likely explanation is that the QWERTY arrangement was designed to reduce the likelihood of internal clashing by placing commonly used combinations of letters farther from each other inside the machine.[11][12] This allowed the user to type faster without jamming. Unfortunately, no definitive explanation for the QWERTY keyboard has been found, and typewriter aficionados continue to debate the issue.

A number of radically different layouts such as Dvorak have been proposed to reduce the perceived inefficiencies of QWERTY, but none have been able to displace the QWERTY layout; their proponents claim considerable advantages, but so far none has been widely used. The Blickensderfer typewriter with its DHIATENSOR layout may have possibly been the first attempt at optimizing the keyboard layout for efficiency advantages.

Many old typewriters do not contain a separate key for the numeral 1 or the exclamation point, and some even older ones also lack the numeral zero. Typists who learned on these machines learned the habit of using the lowercase letter l for the digit 1, and the uppercase O for the zero. The exclamation point was a three-stroke combination of an apostrophe, a backspace, and a period. These characters were omitted to simplify design and reduce manufacturing and maintenance costs; they were chosen specifically because they were "redundant" and could be recreated using other keys. On modern keyboards, the exclamation point is the shifted character on the 1 key, a direct result of the heritage that these were the last characters to become "standard" on keyboards. Holding the spacebar pressed down usually suspended the carriage advance mechanism, allowing to type multiple symbols on a single location. The ¢ symbol (meaning cents) was located above the number 6 on old typewriters. Modern keyboards now use ^ above the 6.

A Chinese typewriter produced by Shuangge, with 2,450 keys.
Japanese typewriter SH-280, a small machine with 2,268 keys.

Many non-Latin alphabets have keyboard layouts that have nothing to do with QWERTY. The Russian layout, for instance, puts the common trigrams ыва, про, and ить on adjacent keys so that they can be typed by rolling the fingers. The Greek layout, on the other hand, is a variant of QWERTY.

Typewriters were also made for East Asian languages with thousands of characters, such as Chinese or Japanese. They were not easy to operate, but professional typists used them for a long time until the development of electronic word processors in the 1980s.

Computer jargon

Several words of the typewriter age have survived into the personal computer era. Examples include:

  • backspace – a keystroke that moved the cursor backwards one position (on a physical platen, this is the exact opposite of the space key), for the purpose of overtyping a character. This could be for combining characters (e.g. an apostrophe, backspace, and period make an exclamation point - a character missing on some early typewriters), or for correction such as with the correcting tape that developed later.
  • carbon copy – now in its abbreviated form "CC" designating copies of email messages (with no carbon paper involved).
  • carriage return (CR) – indicating an end of line and return to the first column of text.
  • cursor – a marker used to indicate where the next character will be printed.
  • cut and paste – taking text, a table, or an image and pasting it into a document. The term originated when such compound documents were created using manual paste up techniques: actual brushes and paste were very early on replaced by hot-wax machines equipped with cylinders that applied melted wax to developed prints of "typeset" copy. This copy was then cut with knives and rulers and slid into position on layout sheets on slanting tables. After the "copy" had been correctly positioned and squared up using a T-square and set square, it was pressed down with a brayer, or roller. The whole point of the exercise was to create so-called "camera-ready copy" which existed only to be photographed and then printed, usually by offset lithography.
  • line feed (LF), aka "newline" – standing for moving the cursor to the next on-screen line of text in a word processor document.
  • Shift – a modifier key used to type capital letters and other alternate "upper" characters, would previously shift a typewriter's print carriage to allow a different stamp (such as 'D' instead of 'd') to press into the ribbon and print on a page.
  • tty, short for teletypewriter, is used in Unix-like operating systems to designate a given "terminal".

Effect on culture

"Get out! Can't you see I'm busy." Early 20th century humorous postcard; boss man puts his arm around female typist.

When Remington first started marketing typewriters, the company assumed the machine would not be used for composing but for transcribing dictation, and that the person typing would be a woman. Flowers were printed on the casing of early models to make the machine seem more comfortable for women to use. In the United States, women often started in the professional workforce as typists (called "typewriters" then); in fact, according to the 1910 U.S. census, 81 percent of typists were female. With more women coming out of the home and into offices, there was some concern about the effects this would have on the morals of society. The "typewriter girl" became part of the iconography of the early-twentieth-century office. The "Tijuana bibles"—adult comic books produced in Mexico for the American market, starting in the 1930s—often featured women typists. In one panel, a businessman in a three-piece suit, ogling his secretary’s thigh, says, "Miss Higby, are you ready for—ahem!—er—dictation?"[7]

The famous quote by Marcus Glenn, "Live by the typewriter, die by the typewriter!" also dates from this period.

Correction methods

An old typewriter on display at the Historic Archive and Museum of Mining in Pachuca, Mexico

According to the standards taught in secretarial schools in the mid-1900s, a business letter was supposed to have no mistakes and no visible corrections. Accuracy was prized as much as speed. Indeed, typing speeds, as scored in proficiency tests and typewriting speed competitions, included a deduction of ten words for every mistake. Corrections were, of course, necessary, and several methods were used.

The traditional erasing method involved the use of a special typewriter eraser made of hard rubber that contained an abrasive material. Some were thin, flat disks, pink or gray, approximately 2 in (50 mm) in diameter by 1/8 in (3 mm) thick, with a brush attached from the center, while others looked like pink pencils, with a sharpenable eraser at the "lead" end and a stiff nylon brush at the other end. Either way, these tools made possible erasure of individual typed letters. Business letters were typed on heavyweight, high-rag-content bond paper, not merely to provide a luxurious appearance, but also to stand up to erasure. Typewriter eraser brushes were necessary for clearing eraser crumbs and paper dust, and using the brush properly was an important element of typewriting skill; if erasure detritus fell into the typewriter, a small buildup could cause the typebars to jam in their narrow supporting grooves.

Erasing a set of carbon copies was particularly difficult, and called for the use of a device called an eraser shield (a stainless steel rectangle about 2" x 3" with several tiny holes in it) to prevent the pressure of erasing on the upper copies from producing carbon smudges on the lower copies. To correct each copy, the typist had to go from carbon copy to carbon copy, trying not to get their fingers dirty as they leafed through the carbon papers, and moving and repositioning the eraser shield and eraser for each copy.

Paper companies produced a special form of typewriter paper called erasable bond (for example, Eaton's Corrasable Bond). This incorporated a thin layer of material that prevented ink from penetrating and was relatively soft and easy to remove from the page. An ordinary soft pencil eraser could quickly produce perfect erasures on this kind of paper. However, the same characteristics that made the paper erasable made the characters subject to smudging due to ordinary friction and deliberate alteration after the fact, making it unacceptable for business correspondence, contracts, or any archival use.

In the 1950s and 1960s, correction fluid made its appearance, under brand names such as Liquid Paper, Wite-Out and Tipp-Ex; it was invented by a woman typist who was also an artist. Correction fluid was a kind of opaque, white, fast-drying paint that produced a fresh white surface onto which, when dry, a correction could be retyped. However, when held to the light, the covered-up characters were visible, as was the patch of dry correction fluid (which was never perfectly flat, and never a perfect match for the color, texture, and luster of the surrounding paper). The standard trick for solving this problem was photocopying the corrected page, but this was possible only with high quality photocopiers. Not surprisingly, given the demand, photocopier quality improved quickly.

In actual practice, more than one correction method was often used. For example, if six extra copies of a letter were needed, the fluid-corrected original would be photocopied, but only for the two recipients getting "c.c."s; the other four copies, the less-important file copies that stayed in various departments at the office, would be cheaper, hand-erased, less-distinct bond paper copies or even "flimsies" of different colors (tissue papers interleaved with black carbon paper) that were all typed as a "carbon pack" at the same time as the original.

Dry correction products (such as correction paper) under brand names such as "Ko-Rec-Type" were introduced in the 1970s and functioned like white carbon paper. A strip of the product was placed over the letters needing correction, and the incorrect letters were retyped, causing the black character to be overstruck with a white overcoat. Similar material was soon incorporated in carbon-film electric typewriter ribbons; like the traditional two-color black-and-red inked ribbon common on manual typewriters, a black and white correcting ribbon became commonplace on electric typewriters. But this black or white powder could be partly rubbed off with handling, and so such corrections were generally not acceptable in legal documents.

The pinnacle of this kind of technology was the IBM Electronic Typewriter series. These machines, and similar products from other manufacturers, used a separate correction ribbon and a character memory. With a single keystroke, the typewriter was capable of automatically reversing and overstriking the previous characters with minimal marring of the paper. White cover-up or plastic lift-off correction ribbons are used with fabric ink or carbon film typing ribbons, respectively.

Authors and writers who had unusual relationships with typewriters

William Faulkner's Underwood Universal Portable sits in his office at Rowan Oak, which is now maintained by the University of Mississippi in Oxford as a museum.

Early adopters

The philosopher Friedrich Nietzsche used a typewriter in an attempt to stem his migraine headaches and his incipient blindness.

Mark Twain claimed in his autobiography that he was the first important writer to present a publisher with a typewritten manuscript, for The Adventures of Tom Sawyer (1876). Typewriter collector and historian Darryl Rehr challenges his claim by stating that Twain's memory was faulty and that the first novel submitted in typed form was Life on the Mississippi (1883).[13]

Henry James dictated to a typist.[7]

Others

E. E. Cummings may have been the first poet to deliberately use a typewriter for poetic effect. His grasshopper poem is perhaps the most famous example.

William S. Burroughs wrote in some of his novels—and possibly believed—that "a machine he called the 'Soft Typewriter' was writing our lives, and our books, into existence," according to a book review in The New Yorker. And, in the film adaptation of his novel, "Naked Lunch," his typewriter is a living, insect-like entity (voiced by Canadian actor Peter Boretski) and actually dictates the book to him.

Writer Zack Helm and director Mark Forster explored the potential mechanics of the 'Soft Typewriter' philosophy in the movie "Stranger than Fiction" ... in which the very act of typing up her handwritten notes gives a fiction writer the power to kill or otherwise manipulate her main character in real life.

Ernest Hemingway used to write his books standing up in front of a Royal typewriter suitably placed on a tall bookshelf. This typewriter, still on its bookshelf, is kept in Finca Vigia, Hemingway's Havana house (now a museum) where he lived until 1960—the year before his death.

Jack Kerouac, a fast typist at 100 words per minute, typed On the Road on a roll of paper so he wouldn't be interrupted by having to change the paper. Within two weeks of starting to write On the Road, Kerouac had one single-spaced paragraph, 120 feet long. Some scholars say the scroll was shelf paper; others contend it was a Thermo-fax roll; another theory is that the roll consisted of sheets of architect’s paper taped together.[7] Another fast typist of the Beat period was Richard Brautigan, who said that he thought out the plots of his books in detail beforehand, then typed them out at speeds approaching 90 to 100 words a minute.[14]

Tom Robbins waxes philosophical about the Remington SL3, a typewriter that he bought to write Still Life with Woodpecker, and eventually does away with it because it is too complicated and inhuman of a machine for the writing of poetry.

After completing the novel Beautiful Losers, Leonard Cohen is said to have flung his typewriter into the Aegean Sea.

Late users

Andy Rooney and William F. Buckley Jr. (1982) were among many writers who were very reluctant to switch from typewriters to computers. David Sedaris used a typewriter to write his essay collections through Me Talk Pretty One Day at least. Hunter S. Thompson kept a typewriter in his kitchen and is believed to have written his "Hey, Rube!" column for ESPN.com on a typewriter. He used a typewriter until his suicide in 2005. William Gibson used a Hermes 2000 model manual typewriter to write Neuromancer and half of Count Zero before a mechanical failure and lack of replacement parts forced him to upgrade to an Apple IIc computer.[3] Theodore Kaczynski, the Unabomber, wrote his manifesto as well as his letters on a manual typewriter.

Typewriters in popular culture

In music

  • The composer Leroy Anderson wrote a short piece of music for orchestra and typewriter, which has since been used as the theme for numerous radio programs.
  • The Dolly Parton song "9 to 5" features typewriter noises as percussion.
  • The Pulitzer Prize–winning musical comedy How to Succeed in Business Without Really Trying (music and lyrics by Frank Loesser) is a satire set in the world of big business and features typewriter sound effects in the song A Secretary is Not a Toy.
  • The Guess Who used typewriter keys on the track "One Way Road to Hell" on their 1974 album Road Food.
  • The Tom Tom Club used the clacking keys of a typewriter to open its 1981 single Wordy Rappinghood.
  • The Winnipeg band Poor Tree incorporates typewriters into its music. Two to three members would type a poem while reading them at the same time, interlocking the lines, words and sounds.
  • On the album Taking Tiger Mountain By Strategy, Brian Eno takes a typewriter solo in the song China My China.
  • Multi-instrumentalist and composer Yann Tiersen has used the typewriter as a percussion instrument in a number of his compositions, notably "Pas si simple" on his 1996 album Rue des Cascades.
  • On the hidden track 'Writer's Block' from 2000's Binaural Pearl Jam's Eddie Vedder can be heard mashing his typewriter keys over and over.
  • Pearl Jam's 2009 album Backspacer is a reference to the backspace key on typewriters.
  • A suite of songs entitled "Green Typewriters" is on The Olivia Tremor Control's album Dusk At Cubist Castle, and the sounds of typewriters can be heard in a few of the sections.
  • Estonian prog-rock band In Spe features typewriter as a rhythmic instruments in their album Typewriter Concerto in D.
  • Thomas Dolby used typewriter sounds (keys and bell) in the track Dissidents from his second album The Flat Earth.

In film

  • Typewriters in songs and ambient typewriter sounds are present throughout the 1985 movie Brazil.
  • A Royal Typewriter was used in the 1990 film Misery.
  • The 1970s movie All the President's Men features Robert Redford and Dustin Hoffman in a newsroom full of typewriters being used noisily.
  • Typewriters are foundational in the soundtrack and the plot for the 2007 film Atonement.
  • In the 1982 movie Tron, when the Master Control Program's defenses are destroyed, he reverts to his core form of an old man. The sound of typewriters is heard, associating him with obsolete technology.

Typewriters transform into monsters in David Cronenberg's 1991 film based on the novel by William S. Burroughs, Naked Lunch.

The Internet

  • Typewriters are used to write typecast blogs in which text is typed on a manual typewriter and then scanned for posting on blogs, a practice called typecasting.

Television

  • In the closing logo for his production company, Stephen J. Cannell is seen typing at his desk. The moment he finishes, Cannell pulls the paper from his typewriter and tosses it. The paper toss segues into a black-and-white animation of a sheet of paper becoming his company's logo.
  • In the very popular television show Murder, She Wrote, Jessica Fletcher, played by Angela Lansbury is seen in the opening credits and in a few scenes throughout several episodes in different seasons using a typewriter to type her murder mystery novels.
  • On the show NCIS, McGee Types his books on a typewriter. Two people are killed because one of "Thom's" fans digs through McGee's trash and finds his typewriter ribbons that has all of his "free writing" ideas, and almost gets Abby killed.
  • In Phineas and Ferb's Musical Cliptastic Countdown, one of Major's agents, Agent M (a monkey) is typing cue cards using a typewriter. Doofenshmirtz criticizes the use of such a machine, commenting that most of the kids watching right now have not even seen a typewriter.

Forensic identification

Identifying the make and model of typewriters is part of questioned document examination. Because of the tolerances of the mechanical parts, slight variation in the alignment of the letters and their uneven wear, each typewriter has its individual "signature" or "fingerprint", allowing a typewritten document to be tracked back to the typewriter it was produced on. The ribbon ink can also be analyzed.

Typewriter analysis was used in the Leopold and Loeb and Alger Hiss cases. In the Eastern Bloc, typewriters (together with printing presses, copy machines, and later computer printers) were a controlled technology, with secret police in charge of maintaining files of the typewriters and their owners. (In the Soviet Union, the organization in charge of typewriters was the First Department of the KGB.) This posed a significant risk for dissidents and samizdat authors.

Gallery

See also

Printers and Fonts

Alphanumeric keyboards

Corporations and typewriters

Use as Computer peripherals

Non-Latin typewriters

References

  1. ^ Acocella, Joan, title=The Typing Life: How writers used to write. The New Yorkerdate=April 9, 2007. 
  2. ^ William Austin Burt's Typographer. Science Museum. 1829. 
  3. ^ Otto Burghagen (1898). Die Schreibmaschine. Illustrierte Beschreibung aller gangbaren Schreibmaschinen nebst gründlicher Anleitung zum Arbeiten auf sämtlichen Systemen. 
  4. ^ Dieter Eberwein,. Nietzsches Schreibkugel. Ein Blick auf Nietzsches Schreibmaschinenzeit durch die Restauration der Schreibkugel. Eberwein-Typoskriptverlag. Schauenburg 2005.. 
  5. ^ Johanne Agerskov (1925). Hvem er Skrivekuglens Opfinder?. 
  6. ^ a b [1]Reproduction of advertisement for Noiseless typewriters, with list of models and diagram of typebar mechanism
  7. ^ a b c d [2] Acocella, Joan, "The Typing Life: How writers used to write", The New Yorker, April 9, 2007, a review of The Iron Whim: A Fragmented History of Typewriting (Cornell) 2007, by Darren Wershler-Henry
  8. ^ Ellen, David (2005). Scientific Examination of Documents. CRC Press. pp. 106–107. ISBN 0849339251. 
  9. ^ TYPEWRITE & WRONG: NYPD 'WASTES' $1M ON RELICS, By JEREMY OLSHAN, New York Post, July 13, 2009
  10. ^ Liebowitz, S. J.; Stephen E. Margolis (1990). "The Fable of the Keys". Journal of Law & Economics (The University of Chicago) XXXIII (April 1990). http://wwwpub.utdallas.edu/~liebowit/keys1.html. Retrieved 2008-06-18. "This article examines the history, economics, and ergonomics of the typewriter keyboard. We show that David's version of the history of the market's rejection of Dvorak does not report the true history, and we present evidence that the continued use of Qwerty is efficient given the current understanding of keyboard design.". 
  11. ^ a b David, P.A. (1986): Understanding the Economics of QWERTY: the Necessity of History. In: Parker, William N.: Economic History and the Modern Economist. Basil Blackwell, New York and Oxford.
  12. ^ "Consider QWERTY". http://home.earthlink.net/~dcrehr/whyqwert.html. Retrieved 2008-06-18. "QWERTY's effect, by reducing those annoying clashes, was to speed up typing rather than slow it down." 
  13. ^ "The First Typewriter". Rehr, Darryl. http://home.earthlink.net/~dcrehr/firsttw.html. Retrieved 2009-02-16. 
  14. ^ Foster, Edward H., Richard Brautigan, Twayne 1983.

Patents

  • US79265 -- Type Writer Machine
  • US349026 -- typewriter ribbon, by George K. Anderson of Memphis, Tennessee.

External links


Translations: Typewriter
Top

Dansk (Danish)
n. - skrivemaskine

Nederlands (Dutch)
schrijfmachine

Français (French)
n. - machine à écrire

Deutsch (German)
n. - Schreibmaschine

Ελληνική (Greek)
n. - γραφομηχανή

Italiano (Italian)
macchina da scrivere

Português (Portuguese)
n. - máquina de escrever (f), datilógrafo (m)

Русский (Russian)
пишущая машина

Español (Spanish)
n. - máquina de escribir

Svenska (Swedish)
n. - skrivmaskin

中文(简体)(Chinese (Simplified))
打字机

中文(繁體)(Chinese (Traditional))
n. - 打字機

한국어 (Korean)
n. - 타자기

日本語 (Japanese)
n. - タイプライター

العربيه (Arabic)
‏(الاسم) ألطابع على ألاله ألكاتبه, ألاله ألكاتبه‏

עברית (Hebrew)
n. - ‮מכונת-כתיבה‬


 
 

 

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