Antique Copying Machines
Left: Victoria copying machine, Le Bureau Moderne, 1913.
Right: Minolta's update on copying machine advertising imagery.
Second image courtesy of the Museum of Business
History and Technology
Offices need more than
one copy of a document in a number of situations. Typically they need a copy of outgoing
correspondence for their records. Sometimes they want to circulate copies of documents
they create to several interested parties. They may need hundreds of copies of
circulars and form letters. During the
final quarter of the 19th century a host of competing technologies were
introduced to meet such needs. Indeed, one article at the time was entitled
“Still Another Letter-Copying Process.” (Manufacturer
and Builder, Feb. 1880.) The technologies that were most commonly
used in 1895 to make copies of outgoing letters and of circulars and form
letters are identifiedin an 1895 description of the New York Business College's course
program: "All important letters or documents are copied in a letter-book
or carbon copies[are] made, and instruction is also given in the use of the
mimeograph and other labor-saving office devices." (The
Stenographer, July 1895, p. 6) At
In the nineteenth century, correspondence was
principally by hand with pen and ink. Indeed, heavy reliance on calligraphy continued in
offices for decades after the first practical typewriter was marketed by Remington in
1874. Until the late 18th
century, if an office wanted to keep a copy of an outgoing letter, a clerk had to write
out the copy by hand. This technology continued to be important through most of the
nineteenth century. Offices employed copy clerks, also known as copyists,
scriveners, men who typically stood, or sat on high
stools, while working at tall slant-top desks. Charles Dickens immortalized one such
clerk, Bob Cratchit: “The door of Scrooge’s counting-house was open that he
might keep his eye upon his clerk, who in a dismal little cell beyond, a sort of tank, was
copying letters. Scrooge had a very small fire, but the clerk’s fire was so very much
smaller that it looked like one coal." (A Christmas, 1843.
Image of this scene to the right is from 1893.) Herman Melville's story Bartleby (1853)
concerns a lawyer in New York City who employed three male scriveners to copy
testimony and other documents. Yates reports that "the Du Pont Company
continued to use hand copy books through at least 1857." (JoAnne Yates,Control through Communications, 1989, p. 206.)
Copying Machines Used to Make One or a Few Copies of
Mainly Outgoing Letters
Letter Copying Presses
A few alternatives to hand copying were
invented between the mid-17th century and the late 18th century, but
none had a significant impact in offices. In 1780, steam engine inventor James Watt
obtained a British patent for letter copying presses, which James Watt &
Co. produced beginning in that year. The
patent illustrations include a press with two opposing rollers, like the wringer on an old
washing machine, and a second model with a screw mechanism (Plate 1).
addition to such stationary presses, James Watt & Co. and
competitors produced portable devices contained in wood boxes similar in size and appearance to the late
19th century Edison Mimeographs shown below in Plates 22 and 23.
Letter copying presses were used by the early 1780s by the likes of Benjamin
Franklin, George Washington, and Thomas Jefferson. In 1785, Jefferson was
using both stationary and portable presses made by James Watt & Co. (Silvio
A. Bedini, Thomas Jefferson and His Copying Machines, 1984.) In Bureaucracy (c.1830), a story set in Paris in 1823, Balzac wrote of
a government office worker who carried a handwritten memorandum "to
an autographic printing house, where he obtained two pressed copies,"
and of another office worker who was "considering whether these
autographic presses could not be made to do the work of copying
clerks." The image to the left shows a copying press patented
in 1828 in the UK by Mr. Ritchie of Edinburgh. The text under k
"Squeezed Out," Gov. Tilden's Message to the Legislature,
Albany, NY, Mar. 19, 1875, Frank Leslie's Illustrated Newspaper,
James Watt copying press, 1780 patent diagram
Dolphin Arch Copying Press.
A number of US manufacturers, including E.W. Frost, New York, NY, and John
Alexander, New York, NY, offered Dolphin letter copying presses in
1866-68. Prices at that time were $6.50 for 9"x12" to $105 for
John H. Gage, Nashua
show letter copying presses that were displayed at the 1851 Industrial Exhibition in London. Along with typewriters,
letter copying presses are the most common machines found in photographs of late 19th
century and very early 20th century offices. Yates (Ch. 4-5) reports that the Illinois Central Railroad used copying
presses to make copies of outgoing letters in press books at least from the
late 1850s to 1896, that the Repauno Chemical Co. stopped using press books
in 1901 (p. 226), that the Scoville Manufacturing Co. was still using
copy presses and press books for outgoing letters in 1913 (p. 181), and that
the Hagley Museum and Library has press books that were used in the 1930s
(p. 283). The last U.S. President whose official correspondence was copied
on a copying press was Calvin Coolidge (1923-29). (David Owen,
"Making Copies," Smithsonian, Aug. 2004, p. 92) Screw model letter copying presses were still marketed
in 1950, and Proudfoot reports that an organization in London, England, was
still using press books in the late 1950s. (W. B. Proudfoot, The Origin of
Stencil Duplicating, 1972, p. 32) Because of the size and weight of letter copying presses,
numerous portable methods for pressing loose copies and copy books were
also marketed during the 19th century.
In a review of office equipment at the 1851 Industrial Exhibition, Granville Sharp
recommended that when an office was selecting a press like those in Plates
1-3, it should make
sure that the handle was heavily weighted at the ends to insure proper spinning.
“This is essential to a screw copy press; for unless one pull will serve to raise or
to depress the plate, much time is lost.” In addition to the press, offices needed to
buy copying books that contained up to a thousand pages of tough tissue paper, copying
ink, copying paper dampers, oiled paper, and blotting paper.
that before using the new press, the office had to decide how to organize its letters.
Production of copies was easiest if the user copied its letters into a single letter book
in chronological order. In that case, the user needed to make an index so that letters of
interest could later be retrieved. Alternatively, the office could organize its
correspondence by client, which avoided indexing but made it necessary to use numerous
copying books on a given day.
could be made up to twenty-four hours after a letter was written, copies made within a few
hours were best. A copying clerk would begin by counting the number of letters to be
written during the next few hours and by preparing the copying book. Suppose the clerk
wanted to copy 20 one-page letters. In that case, he (copying clerks were men) would
insert a sheet of oiled paper into the copying book in front of the first tissue on which
he wanted to make a copy of a letter. He would then turn 20 sheets of tissue paper and
insert a second oiled paper. Sharp advised that “Success in copying letters depends
almost entirely upon the damping of the paper. The paper should be saturated and damp, not
wet.” To dampen the tissue paper, the clerk used a brush or copying paper damper. The
damper had a reservoir for water that wet a cloth, and the clerk wiped the cloth over the
tissues on which copies were to be made. (See Plate 5A) As an
alternative method of dampening the tissue paper, in 1860
Cutter, Tower & Co., Boston, advertised Lynch's patent paper moistener (Plate
5B) with the claim that "it does away with the use of the brush,
wet cloths and dipping bowls, and dampens the paper sufficiently by a single
roll of the machine."
Next, letters were
written with special copying ink, which was not blotted. The copying clerk arranged the
portion of the letter book to be used in the following sequence starting from the front: a
sheet of oiled paper, then a sheet of letter book tissue, then a letter placed face up
against the back of the tissue on which the copy was to be made, then another oiled paper,et cetera, “oiled paper being in all cases
placed next the damp paper, to prevent the ink forcing beyond the paper intended to
“Close the book, put it into the press, and screw tightly down, letting it remain a
minute or two under pressure, when the copy will be properly taken, and may be dried with
blotting paper, or held near the fire.” Based on experience, the clerk could adjust
the press time. If he made a copy soon after a letter was written, only a second or two
was needed to make a good impression. When the letter book was pressed, some of the ink
transferred from the letters to the moist tissues in the book. Because the ink penetrated
the tissues, copies could be read from the front sides of the tissues.
to the introduction of inks made with aniline dyes, the quality of copies made on letter
copying presses was limited by the properties of the available copying inks. The
first aniline dye was invented in 1856, and numerous aniline dyes were
invented in the following two decades. Bedini (p. 193) reports that "The growth of the aniline dye and ink
manufacturing industries in Germany, which coincided with the earliest
importation in 1868 of thin papers manufactured in Japan, brought a new
popularity to the bound letter book."
documents that were to be copied with copying presses were written with copying
pencils rather than copying ink. The cores of copying pencils,
which appear to have been introduced in the 1870s, were made from a mixture
of graphite, clay, and aniline dye.
Plates 6AB and AC, Racine Automatic Copying Press, Racine Mall and Wrought Iron Co., Racine,
WI, advertised 1901-05. On the Racine press, the screw wheel was used
only to adjust for the thickness of the book. Pressure was applied
with the lever.
Plate 6B, Wells Fargo & Co. Copying Press. Wells Fargo
Museum, San Francisco, CA.
Plate 4, Coalbrookdale Press 1851
Plate 5, Imperial Press 1851
Plate 5A, Shriver's Copying Brush with Reservoir Handle "holding
water enough to dampen one hundred leaves of letter paper," T. Shriver
& Co., New York, NY, patented
1867, advertised 1868-86
Plate 5B, Lynch's Patent Paper Moistener, Cutter,
Tower & Co., Boston, 1860
Plate 6, Barrett Co. Press 1851
Plate 6A, Lightning Copying Press, R E Kidder, Worcester, MA,
patented Nov 4,1884, advertised 1887
Plate 6AA, Very Large Copying Press,
Standard Oil of Ohio, c. 1900.
|Copying Pad Baths
By the late 1870s, an improved method for moistening pages in
copying books had been invented, and by the late 1880s it had been widely adopted. Rather than using a brush or damper to wet the tissues,
the clerk inserted a thin moist cloth or pad between each oil paper and the following
tissue. A supply of moist pads was prepared in advance using a copying bath,
such as Hill's Blotter Bath, patented in 1879 (Plate 6B), or Tatum's Ideal Copying Pad Bath, patented in 1887 (Plate 7). Tatum also produced larger
copying tanks that included wringers to remove excess water from copying
pads. The Globe Roller Copying Bath (Plate
was marketed by Globe-Wernicke Co. in the early 1900s, is an example of a
copying tank. To
prepare a supply of moist pads using the Ideal bath, the clerk removed the tray from the
bath, poured water into the pan, and replaced the tray. Also, the clerk sprinkled a set of
pads, let them stand overnight, and then placed them in the tray. “The evaporation
from the water underneath will generally be sufficient to keep pads damp enough for
ordinary work.” Plate 8A shows an 1886 Bailey's Letter Copying
Machine with a Moistening Attachment on top.
Plate 8A, Bailey's Letter Copying Machine with Moistening Attachment, 1886 ad
Plate 8B, Office with Copying Pad Bath in front of Letter Copying
Plate 8C, Office with Large Letter Copying Press and Sink with Wringer
for Preparing Moist Pads
Plate 6B, Hill's Blotter Bath, B.B.Hill, Springfield, MA, patented
See U.S. Patent No. 216,738.
Plate 7, Ideal Copying Bath and Instructions, Samuel C. Tatum & Co., patented
and advertised in 1887
Plate 7A, Williams Copying Bath, Williams Typewriter Co.,
patented 1891, advertisement with instructions. Courtesy of the Museum of Business
History and Technology
Plate 8, Globe Copying Bath 1909 ad
Plate 9 shows a letter copying book
with copies of typed letters from 1905.
Plate 9, Letter Copying
|Portable Copying Presses
Plate 10 shows an 1881 advertisement for an Atmospheric Letter
Copying Press. The copying book was inserted into a slot on the side
of a narrow wooden case. Pressure was then applied to the book by manual
inflation of a flat balloon inside the case. Plate 10AA shows an
1889 advertisement for the Jewel Copying Press, which was similar in
concept, but pressure was applied by moving a lever.
At the 1885 Novelties Exhibition in Philadelphia, Alvah Bushnell
exhibited his Perfect Letter Copying Book, which did not use a press.Plate 10A shows an 1895 advertisement for Bushnell's Perfect Letter
Copying Books; Plate 10A2 shows the cover of one of these books and
instructions. A letter to be copied was
placed in the flexible book, which was then rolled up around a wooden rod
attached to its spine. "The principle of
copying is the same as with a copying press. The covers of our books are
flexible, and sufficient pressure is easily given by rolling them up in
the hands." "Two thin, tough manila sheets of paper are
supplied with each book, to take the place of the stiff oil sheet used
with the copying press, and one piece of thin muslin the same size as the
leaves of the book is furnished, which, when properly dampened, is used to
moisten the leaf when making the copy." In the 1890s,
Bushnell's device was $1.00 to $1.60, depending on size. The device as
still advertised in 1908. At the same 1885 exhibition,
Sagar Chadwick exhibited the Chadwick Copying Book. He claimed that
with it one "copies written matter made with ordinary ink by simply
laying such matter on a page of the book and rubbing with the hand,
dispensing with the use of a press, brush, and bowl." Unlike
Bushnell's book, we have found no subsequent mention of Chadwick's.
Plate 10B shows a portable Cylindrical
Copying Press and cabinet that were marketed by the Portable Copying Press
and Stationery Co. in 1888-89. To use the press, one placed a sheet of damp
copying paper against an original letter and rolled these around a cylinder.
One then inserted this cylinder inside a cylindrical press and applied
pressure by turning crank.
Another type of portable copying press is shown in Plate 10C, which
is from a c. 1920s advertisement in Germany.
Plate 10D, Eclipse Coping Press, Reg No. 38902. Courtesy of Kev
Plates 10E and 10F, Anchor Copying Press, J. W.
& Co., London, Patented 1891.
Plate 10, Atmospheric Letter Copying Press, 1881
Plate 10AA, Jewel Copying
Plate 10A, Bushnell's Perfect Letter Copying Books, 1895 ad
Plate 10A2, Bushnell's Perfect Letter Copying Book, copyright
1885, cover and instructions. Courtesy of the Museum of Business
History and Technology
Plate 10B, Cylindrical Copying Press, 1888
Plate 10C, Patent Simplex Copying Press,
John Morris Co., Chicago, IL
[Freytag p. 172]
Plate 10G, Book Copying Press, advertised c. 1920s, Germany
In the late 1880s, adoption of improvements in office
systems for filing unbound documents increased the demand for copying
machines that made unbound copies of letters, as opposed to copies in
bound books. In 1886, Schlicht & Field, Rochester, NY,
introduced the Rapid Roller Damp-Leaf Copier, which used pressure
supplied by rollers to copy letters onto a roll of dampened paper. After
copies were pressed onto the paper, the paper entered the cabinet under
the copier, where it dried on a large roller. An attachment was used to
cut dried copies off the roll. This machine, including a black
walnut base, was $50. In 1888, Schlicht & Field was reorganized as the
Office Specialty Manufacturing Co.
Numerous companies produced roller copiers
over a period of three decades. For example, Plate 11B shows a Rapid Duplicator
that was advertised in 1887. In 1903, the Yawman & Erbe (successor
to Office Specialty Mfg. Co.) Rapid Roller Copier was $33.
Copies could be made more quickly with a
roller copier than with a letter copying press. It was claimed that nearly
100 papers could be copied in two minutes with a roller copier. Roller copiers also
competed with carbon paper. It was claimed that a roller copier could make a half dozen copies
of a typewritten letter if the letter was run through the copier several
times. It could make a dozen copies if the letter was written with a
pen and good copying ink. Referring to roller copiers, Chas. A. Sweetland,Anti-Confusion Business Methods, 1905, p. 62, stated that
"Instead of the old-style letter book, correspondence is now copied
by means of a 'rapid-fire' endless roll copying machine."
Plate 11B2. Rapid Roller Copier
Plate 11B3. Rapid Roller Copier, Yawman & Erbe Co., 1906
Plate 11B3 is courtesy of the Museum
of Business History and Technology
Plate 11A, Rapid Roller Damp-Leaf Copier, Office Specialty
Manufacturing Co., Rochester, NY, c. 1889 ad.
Plate 11B, Rapid Duplicator, Rapid Duplicating & Copying Machine
Co., NY., NY, 1887 ad
The Process Letter Machine Co., Muncie, IN, offered the New Rotary
Copying Press, a loose-leaf copier,
in 1902. This machine was similar to roller copiers but copied onto
loose-leaf paper. The Cylinder Letter Press
Co., Chicago, IL, and The Easy Machine Co., Marion, IN,
offered different loose-leaf copier, the Cylinder Letter Press and the Quick Easy Copying Press,
respectively, in 1903 and 1905, respectively.
Plate 11E, Cylinder Letter Press, Cylinder Letter Press, Co.,
Chicago, IL, 1903 ad
Plate 11C, The New Rotary Copying Press,
Plate 11D, Quick Easy Copying Press,
A polygraph is a mechanical
device that moves
a second pen parallel to one held by a writer, enabling the writer to make a duplicate of a document
as it is written. Although polygraphs in
the 17th century, polygraphs did not became popular until 1800. Hawkins
& Peale patented a polygraph in the US in 1803, and beginning in 1804
Thomas Jefferson collaborated with them in working on improvements in the
machine. Jefferson used a polygraph for the rest of his life. However, polygraphs were not practical for most office purposes and were never widely used
in businesses. Hawkins & Peale lost money producing polygraphs. One
problem was their "inherent instability, and constant need for repair
and adjustment." (Bedini, p. 187) Plates 12-12A show polygraphs owned by Jefferson.
For additional photographs of Jefferson's polygraphs, click on the
following two links to the Library of Congress (1,2).
Plate 12, Polygraph 1803
Plate 12A, Polygraph 1803, National Museum of American History,
Smithsonian Institution, Washington, DC, on loan from the Franklin
Carbon Paper, Manifold Books and Typewriters
A crude form of carbon paper was patented by Ralph Wedgwood in 1806. The R. Wedgwood Patent
Manifold Writer and similar systems that were sold from 1806 until around
the end of the 19th century enabled users to retain a copy of outgoing letters made with this
carbon paper. The original
Wedgwood system used manifolds consisting of a sheet of transparent paper followed by a sheet of ordinary writing
paper. To write a letter and make a carbon copy simultaneously, the user
would insert a sheet of double-sided carbon paper between the
transparent sheet and the writing paper. When the user wrote with an
ivory, steel, or agate-tipped stylus like that in Plate
13 on the transparent paper, he would
produce an outgoing letter on the ordinary paper under the carbon. He would also produce a
copy in reverse on the back of the transparent sheet. Because the sheet was transparent,
the copy could be read from the front. Plate 13A shows a stylus lying
on a manifold copying book with detachable letter pages. This is an 1879
Lightning Copying Book and Lightning Pen manufactured by the Triumph Mfg.
Co. W. Davison, Alnwick, England, advertised "letter
writers," which may have been manifold writers, c. 1814-26? (John
Johnson Collection Exhibition 2001, Bodleian Library, University of
Oxford) Improved Manifold Letter Writers and ivory, steel, and agate
styli were advertised by Waterlow and Sons, London, in its 1855 catalog. Manifold Writers made by Francis & Loutrel are reported to
have been used by military leaders during the Civil War. Mark Twain wrote
some of his stories on Manifold Writers in the early 1870s. McDonald & Johnson's Stylograph, which was similar, was
advertised in 1881-83.
During the 1850s, advertisements for
Wedgwood Patent Manifold Writers claimed that they could be used to make
up to ten copies, but most of the manifold books were designed to make one
copy that could be sent and one that would be retained. The c. 1858
catalog of John W. Clothier, Philadelphia, PA, advertised "carbon
paper for copying" (Hagley Museum and Library).
Nevertheless, use of carbon paper was modest until the 1870s. Early carbon paper was messy,
carbon paper did not make a satisfactory copy when the original was written with a pen,
there was concern that carbon copies could be altered or forged, and carbon copies were
not admissible in court.
Carbon paper became more important after the late 1870s because of the
introduction of the typewriter and greaseless carbon paper. Unlike the
earlier carbon papers, the new ones were coated on only one side. Typewriters were able to produce up to ten carbon copies along with an
original. Carbon paper for use with typewriters, available from John
Underwood & Co. among others, was advertised in 1886 (A.C. Farley
& Co., The Purchaser, Philadelphia, PA, Feb. 1886. Hagley
Museum and Library).
Yates reports that in 1912 a government report stated that "by the
almost universal practice of business concerns, the carbon copy has
supplanted the press copy as a record of outgoing
correspondence." According to Yates (p. 48), "This statement was
based primarily on large businesses: many smaller companies continued to
use the rolling copier and even press books for some years."
Plate 13, Agate-Tipped Stylus
Plate 13A, Lightning Copying Book and Lightning Pen, 1879.
Plate 13B, Stylograph or Rapid Letter Copying Book, 1883 ad.
Machines Used to Make Many Duplicates
Neither letter copying presses nor carbon paper could
be used to make numerous copies of a document. Until the mid-1870s, offices had two
options for making many copies. They could go to a commercial printer, or
they could buy a small
In the 19th
century, commercial printers used platen presses for job work such as
business cards, envelopes, billheads, and circulars. (Harold E. Sterne, Catalogue
of Nineteenth Century Printing Presses, 1978, p. 217) Yates (Ch. 4) indicates that until 1876
the Illinois Central Railroad used commercial printers when it needed
large numbers of copies of items such as circulars, and that it continued
to use commercial printers after 1876 when it needed multiple copies of
documents to be distributed to the public rather than for internal use.The online Briar Press reports that
small table top printing presses were made in the US as early as the
In the 19th century,
commercial printers used lithographic presses to print such things as
labels, stock certificates, bank notes, maps, insurance policies, and
business stationery. Sterne (p. 203) reports that "The fine detail and unusual calligraphy
needed in this work was beautifully reproduced through the lithographic
lithography, an image is created on or transferred to a
flat polished stone, which serves as a printing plate. The image is
created on the stone using a greasy crayon, or alternatively is created on
a sheet of paper using greasy lithographic ink and then transferred to the
stone. Next, printers ink is applied to the stone. This ink adheres only
to the crayon or lithographic ink. The stone is then covered with a sheet
of paper, and the stone and paper are run through a press to make a
In England, small lithographic
presses were marketed to offices in the 1850s. One example that was
exhibited in 1851 is the S. Mordan & Co. Combined Lithographic and Copying Press (Plate
14). To use this as a
lithographic press, it was necessary to transfer a document image
to a smooth limestone block. A second example that was exhibited in
1855 and described as suitable "for
the Counting House, Office, or Library" was exhibited by Waterlow and
Son of London in 1855 (Plate 14AAA). Waterlow's advertisement
stated: "Nearly One Thousand of these Presses have now been sold, and
are being successfully used in all Her Majesty's Government Offices,
Public and Private Schools, Railway Companies, Assurance Offices, and also
by the most influential Bankers, Merchants, Clergymen, &c., in the
United Kingdom." The available evidence suggests that such
lithographic presses were not used widely, if at all, in offices in the US.
Samuel W. Lowe of Philadelphia patented a small printing press with a
conical roller in 1856; a Lowe press dating from 1865 is pictured at the
William Tuttle and Benjamin O. Woods produced small lever presses in
Boston, MA, by 1857. A lever press is a table-top hand-operated version of the
larger foot-operated platen press used by commercial printers. Woods
advertised small Novelty printing presses in 1870 and exhibited them at
the Centennial Exhibition in
1876. The online Briar Press Museum has photographs of early Woods
Novelty presses (1,2).
A. Kelsey & Co. began to market small lever presses in 1872 and
continued to sell them for over a century. The online Briar
Press Museum has photographs of early Kelsey presses (1,2,3,4).
the left is an illustration of a Kelsey Excelsior
printing press from a broadside distributed at the Centennial
Exhibition in 1876. Plate
14A shows a later Excelsior.
Small lever presses were sold in a wide range of sizes by
numerous companies. Lever presses that printed items measuring 1.5" x
2.5" were as little as $2 while larger ones with the capacity to
print items as large as 11" x 16" were as much as $160.
Plate 14B shows a lever press intended for use in printing small items such as
business cards. R.H. Smith Mfg. Co., Springfield, MA, offered the
similar Smith's Patent Lever Self-inker No. 3 for use in printing
addresses on envelopes, postal cards, and shipping tags. (Scientific
American, May 4, 1889)
Plate 14, Mordan Co. Press, 1851
Plate 14AAA, Patent Improved Autographic Press
or Portable Printing Machine, Waterlow and Sons, London, 1855
Plate 14AA, Dunkerly Self-Inking Press, Providence, R.I.,1876 ad.
Plate 14A, Kelsey & Co. Excelsior Printing Press, model patented 1893
Plate 14B, Patent Lever Self-Inker Press No. 2, 1889 ad
14B2, Printing Press, Press Museum, Istanbul, Turkey
Stencil Duplicating Machines
Electro-Chemical Stencil Duplicating Press
Late 19th century
inventors developed numerous duplicating technologies in addition to the commercially
successful ones that are described below. An 1872 report describes a technology developed by
Eugeio de Zuccato, an Italian in London. To the bed and upper plate of an ordinary copying-press were
attached wires leading from a small battery. “An iron plate resting upon the bed of
the press is coated with varnish, and upon the surface is written with a steel point any
communication it is desired to copy. The letters having thus been formed in bare metal, a
few sheets of copying paper are impregnated with an acid solution of prussiate of potash,
and placed upon the scratched plate, which is then subjected to pressure in the
copying-press. An electric current passes wherever the metal has been left bare (where the
writing is, therefore), and the prussiate solution acting upon the iron, there is found
prussiate of iron or Prussian blue characters corresponding to those scratched upon the
plate. The number of copies that may be produced by this electro-chemical action is almost
unlimited, and the formation of the Prussian blue lines is, of course,
instantaneous.” (Harper’s New Monthly
Magazine, July 1872, p. 305.)
|Add image from
Scientific American May 25, 1872.|
In 1874, Zuccato obtained a US patent for the first commercially successful stencil copying process for use in offices.
His Papyrograph process began with a sheet of lacquer-coated stencil paper that could not be
penetrated by liquid. By writing on this stencil with corrosive ink, a clerk made the
affected parts of the stencil porous so that liquid would pass through. An
improved version of the Papyrograph system that was patented in 1876 and
marketed by 1877 by the Papyrograph Co. of Norwich, CT, used a
horizontal sliding frame that was twice the width of the printing surface
of a letter copying press. The operator placed this sliding frame so that
half covered the printing surface of a letter copying press and the other
half was next to the press. The operator then placed an inked pad on the
half of the sliding frame that was next to the press, placed a prepared stencil
face down on the inked pad, and covered the stencil with a sheet of paper.
The operator then slid this "sandwich" inside the copying press
and lowered the press to make a copy. The
manufacturer claimed that "By this process from 300 to 1000 facsimile
impressions can be taken upon Dry and Unprepared Paper, direct from the
original writing, in an ordinary Letter-Copying Press." The
supplier claimed that 5,000 Papyrographs were in use in the US in June
advertisements claimed an operator could make 400-500 copies per hour, the method was slow and messy.
Also, the stencils could not be prepared with a typewriter. Nevertheless, the Papyrograph
was advertised as late as 1885, with the claim that "Thousands are
now in use in the United States and foreign countries." In 1878, a complete Papyrograph system, including press and supplies, was
$23 to $75.
Plate 14C, Zuccato's Papyrograph, The
Papyrograph Co., Norwich, CT, 1878 a
|Edison Electric Pen
In 1875, Thomas Edison and Charles Batchelor
developed a stencil system for copying handwritten documents, Edison’s
Autographic Press and Electric Pen. The operator would hold a special pen
(Plate 15) in a vertical
position and write or draw on a stencil resting on a sheet of blotting paper.
The pen was 5 ¾” tall and top-heavy. The top portion was a small uncovered
electric motor attached by flexible wires to a nearby two-cup wet battery
containing water and sulfuric acid (Plate 16). Each time the motor’s horizontal shaft rotated, a
cam attached to the shaft caused a needle inside the pen to make three vertical
strokes, each one cutting a minute hole in the stencil. The pen made
approximately 135 perforations a second.
Plate 15, Edison Electric Pen & Stand
Plate 16, Battery for Edison Electric Pen
1876 patent explains that to print copies one placed the stencil over the paper
on which an impression was to be made. A felt-covered roller was used to press
ink through the perforations in the stencil to the surface of the sheet below.
The patent describes a simple hand press consisting of a flat bed with a hinged
frame to which the stencil was attached. Presses are shown in Plates 17-18. To view the 1876 patent,
click here. A
contemporary account stated that copies could be produced at the rate of 4 to 5
per minute, and that a stencil could be used to produce 1000 copies. Faster
printing presses were patented by others. According to an 1881 account, "Henry
S. Norse has patented an improved duplicating press. The object of this
invention is to furnish a foot or power press for use in printing from stencil
plates, particularly stencils prepared with the Edison electric pen, so that the
labor and time heretofore required in such work shall be reduced."
(Scientific American, May 14, 1881)
1876, Edison’s copying system, which was produced by the Edison Electric Pen and
Duplicating Press Co., was a commercial success. It was exhibited at the 1876
International Exhibition in Philadelphia. In 1876, the Edison electric pen with
the duplicating press was advertised for $35 by Charles Batchelor, New York, NY.
(Publishers' Weekly, Vol. 10, 1876, p. 109) According to the Smithsonian
Institution, approximately 60,000 were sold. However, sales were constrained by
the fact that many office clerks did not have the skill or motivation to
maintain the complicated battery. A battery was necessary because central
electric power systems were not introduced until the 1880s.
1876, Edison licensed his copying system to the Western Electric Co., which
manufactured it for several years. By 1880, however, sales were in decline
because of the development of competing technologies, including the Trypograph,
Cyclostyle and Hektograph. There were, however, some people who preferred the
Edison system. According to an 1885 testimonial, "It may be of interest for one
who has used the papyrograph and the hektograph, but with no great satisfaction,
to state that every other system always drives me back to Edison's electric pen
as the neatest, readiest, and in every way the most satisfactory copying
system. An experience of eight years with it has always been very
satisfactory." (Christian Union, June 4, 1885)
of other companies marketed similar systems, including some with pneumatic
perforating pens driver by foot-powered bellows. According to one contemporary
account, "a pulsating pen, driven by the foot like a sewing machine, rivals the
Edison electric pen. It is certainly lighter to write with, and requires no
battery, with its acids, to spoil clothing. This is on show by Ward &
Drummond." (Christian Union, Oct. 29, 1879)
Yates (p. 122)
reports that "in 1876, the very year in which it was patented, the Edison
Electric Pen found its way into the [Illinois Central] railroad offices. In
spite of the primitive nature of this early stencil device, which produced
messy-looking handwritten documents that contrasted strikingly with printed
ones, the Superintendent's Office used it frequently through the end of the
decade. Although it was not used for those circulars or notices to be posted in
public view, the company did use it during the first year or two after its
appearance for those to be seen only by employees. After that period, it
acquired a more specialized use: filling in parts of printed forms. Notices of
the appointment of new agents, undoubtedly the most commonly issued form of
notice, were printed up in large quantities with blanks left for the name of the
station, the effective date, and the names of the old and new agents. Then the
Edison Electric Pen was used to make a stencil master, which was in turn used to
fill in the blanks on an adequate number of copies for each
Plate 17, Edison Duplicating Press
Plate 18, Edison Press & Electric Pen
In 1877, Zuccato
introduced the Trypograph, which used an alternative method for producing
stencils. A wax-covered stencil was placed on a metal plate with a file-like
surface with thousands of perforating points. When a metal stylus was used to
write on the stencil, the stencil was perforated from below by the file. A
similar method is illustrated in an 1880 patent awarded to Edison (Plate 19A).
Trypographs were still sold at the end of the 19th
Plate 19, Trypograph marketed by Zuccato & Wolff,
Plate 19A, Edison Stencil Perforation 1880
In 1881, David
Gestetner patented the Cyclostyle wheel pen, which was superior to Edison’s
electric pen because the wheel pen did not require a battery and produced better
stencils. On the tip of the Cyclostyle pen was a minute steel wheel with a
toothed edge. An improved version was named the Neo-Cyclostyle or Neostyle (Plate 20). As the
pen was moved over a wax-covered stencil, the teeth perforated the stencil.
Cyclostyle, Neo-Cyclostyle and Neostyle copying systems were sold during the
1880s and 1890s and apparently well into the 20th century in boxes similar to
the Edison Mimeograph (see Plates 22 and 23), as well as with a flat manual
metal press (Plate 21). In
1887, boxed Cyclostyles were $12.50 to $22.50, depending on size.
Plate 20, Neostyle Wheel Pen 1888
Plate 21, Cyclostyle Presses 1887. The press on the left
was also advertised in 1886.
The Stygmograph (Plate 21A) was advertised in 1884 as a copying
pen for writing by hand on duplicating stencils.
Plate 21A, Stygmograph, 1884
Albert Blake Dick invented
the Mimeograph stencil in 1884. The A. B. Dick Co., Chicago, acquired Edison’s
copying system patents and, with Edison’s support, began manufacturing and
marketing Edison Mimeograph systems in 1887. Models were sold in rectangular
wooden boxes (Plates 21B-23). The
boxes contained a hand printing frame that consisted of a flat bed or printing
board and a hinged frame that held the stencil. The boxes also contained an ink
roller, an inking slate, ink, varnish and a brush for making corrections, waxed
stencil paper, blotters, a writing stylus, and a writing plate with a file-like
surface (see Plate 19) that was 1.5" to 3" top-to-bottom and as wide as the
To prepare a handwritten stencil, "A sheet of Mimeograph stencil paper is
placed over the finely grooved steel plate and written upon with a smooth
pointed steel stylus, and in the line of the writing so made, the stencil paper
will be perforated from the under side with minute holes, in such close
proximity to each other that the dividing fibers of paper are scarcely
perceptible." After the operator has written a few lines, the operator moves
the stencil upward over the writing plate so that a new portion of the stencil
is on top of the writing plate. "After the stencil is completed it is placed in
the printing frame, by which the stencil is firmly held taut and in a position
for rapid printing. After inking the roller on the slate furnished for that
purpose, pass it over the stencil sheet and a correct reproduction of the matter
stenciled will appear on the paper which has been previously placed
Ads claimed that these Mimeographs could make over 1,500 copies from a
stencil. A. B. Dick claimed to have sold over 80,000 Edison Mimeographs by 1892
and over 200,000 by 1899. In 1889, Mimeographs were $12-$29.50, depending on
size and whether they included the items needed for handwritten, typewritten, or
both types of stencils. Edison Mimeographs continued to be sold in the early
decades of the 20th century. The model numbers denote different sizes and
features. In 1889, the models used for handwritten stencils were identified as
No. 0 to No. 5; the model for typewritten stencils only was No. 12; the models
for both types of stencils were No. 20 to No. 25.
Plate 21B, Edison Mimeograph, A.B. Dick Co., Chicago, IL,
Plate 22, Mimeograph No. 12
Plate 23, Mimeograph No. 12
late-1880s, stencils were written by hand. The types of stencils that had been
developed could not be prepared by typewriters. Typewriter stencils were
introduced in the late-1880s and underwent significant improvements during the
following years. To cut a stencil with a typewriter, one covered the stencil
with a fine "perforating silk" cloth and typed without a ribbon. In 1894, the A.
B. Dick Company marketed the Edison Mimeograph Typewriter shown in Plate
24 (with the carriage raised); for additional photographs, click here. For a discussion of the
Edison Mimeograph Typewriter, go to the Museum's exhibit on Antique Office Typewriters.
24, Edison Mimeograph Typewriter 189
In the early 1890s, Gestetner introduced the
first “automatic,” or self-inking, stencil duplicating press, which was sold as
the Automatic Cyclostyle until approximately 1910 (Plate 25). In addition to the
printing frame sold in the wooden box (Plate 19), in the 1890s A. B. Dick sold
metal Mimeograph presses (Plate 26). In
1896, the Neostyle Co. marketed the Automatic Neostyle with the claim that "The
machine is automatic in the full meaning of the word--the printing is automatic,
the frame is opened and closed automatically, the pressure of roller is
automatic, the distribution of ink is automatic, the copies are discharged as
fast as printed automatically, the number of copies printed is automatically
recorded, the ink is supplied automatically." These automatic presses speeded
the duplicating process.
Plate 26, Mimeograph Presses 1896
In 1895, Stackhouse & Krumbhaar, Philadelphia, PA, advertised the
Diagraph Stencil Printing Machine, which was described as "The only perfected,
automatic and rapid stencil printing machine." According to an 1898 ad, "Prints
from 500 to 3,000. Copies from one original at the rate of 20 to 40 copies per
minute. It is a simple, economical, practical device for duplicating circulars,
letters, pricelists, etc., in perfect imitation of hand- or
Rapid Duplicator, Rapid Duplicating and Copying Machine Co., NY, NY, 1887
Plate 25, Automatic Cyclostyle
Plate 25A, Diagraph Stencil Printing Machine, 1895 ad
The Neostyle Co. marketed the first rotary stencil
duplicator in 1898, further increasing the speed of duplication. In 1899 the
Rotary Neostyle was advertised with a choice of hand crank, foot treadle, or
electric motor. (Plate 27)
Plate 28, Rotary Neostyle
Model 8-F 1909
Plate 29, Office with Rotary Neostyle
Plate 27A, Rotary Neostyle, Neostyle Co., NY, NY, 1898
Plate 27, Rotary Neostyle, electric model, 1899
|A. B. Dick
Co. began to sell Edison Rotary Mimeograph systems in 1900. In 1909, A. B. Dick
claimed that the Edison Rotary Mimeograph No. 75 (Plate 30)
could produce 2,000 perfect copies from a stencil at a rate of 45 to 50 copies a
minute. For printing, the prepared stencil was attached to exterior of the
perforated hollow metal drum. As the drum was turned, ink was extruded through
the stencil to sheets of paper fed under the drum. In 1914 Rotary Mimeographs
were $30 to $160, depending on features. A. B. Dick was selling Models 75, 76,
77, 78, the last both manual and electric, in 1930. A. B. Dick continued to use
the Edison name on such systems until 1940.
Plate 30A2. Underwood Revolving Duplicator,
1911 ad. Courtesy of the Museum of Business
History and Technology.
30, Edison Rotary Mimeograph No. 75, 1904
Plate 30A. Edison Mimeograph No. 78 with
automatic feed, 1929 ad.
Courtesy of the Museum of Business History and Technology
Plate 30A1, Roneo Rotary Copying Machine, 1913
|In 1906 the Roneo Co. introduced the Roneo Copier
(Plate 30B), a "dry" copying machine that made copies on a paper roll
impregnated with a glycerin solution that kept the paper uniformly moist for
several months. Copies were made on the roll, which was then cut and dried to
yield individual copies. The 1914 advertisement from Norway shows this same
Roneo Copier (Plate 30B2). The Soennecken copying machine (Plate
30C), which was made in Germany and sold in France as of 1913, appears to
have been similar to the Roneo.
Plate 30B, Roneo Copier, 1906
Plate 30B2, Office with Roneo Copier, Norway, 1914.
Courtesy of Harald Bohne
Plate 30C, Soennecken Copying Machine,
stencil duplicating machines (Plate 31) had two drums instead of the
usual one drum. The stencil was attached to a band around the two
31, Gestetner Rotary
Cyclostyle No. 6
In 1914-16, the A.
B. Dick Co. patented the mimeoscope (Plate 32). A mimeoscope, which is
basically a light table, had an electrically-illuminated glass top on which the
operator traced drawings onto mimeograph stencils. The stencil took the place of
tracing paper. The electric light was needed because the stencils were heavier
and less transparent than tracing paper.
Plate 32, Mimeoscope,
patented 1914-16, advertised
|Hektograph and Spirit Duplicators
The stencil copying systems described above
involved pressing or extruding ink through stencils onto sheets of paper. In the
hektograph (also spelled "hectograph") process, which was introduced in 1876 or
shortly before, a master was written or typed with a special aniline ink. The
master was then placed face down on a tray containing gelatin and pressed gently
for a minute or two, with the result that most of the ink transferred to the
surface of the gelatin. Gelatin was used because its moisture kept the ink from
drying. Copies were made by using a roller to press blank papers onto the
gelatin. Each time a copy was made, some ink was removed from the gelatin, and
consequently successive copies were progressively lighter. In practice, up to
fifty copies could be made from one master. Plate 33 is an 1876 ad for J.
R. Holcomb & Co.'s Transfer Tablet hektograph. Plate 33B shows
another hektograph, Lawton & Co.’s Simplex Printer, which was introduced by
a predecessor company, General Copying Apparatus Co., by 1889. The Simplex was
$3 to $29.50, depending on size. Yates (p. 122) reports that "By 1885 the
[Illinois Central Railroad] Freight Office's need for a neat alternative to
printing had led it to adopt...the hectograph....Using a hectograph in the
Freight Office, rather than sending the rate circulars to be printed, was faster
as well as cheaper. And although the hectograph duplicating process itself was
messy, the final products were neater and more readable than those produced with
the Edison Electric Pen." An 1887 ad stated that a hektograph could be used to
make 15 to 40 good copies of a letter typed on a Hall index typewriter.
Hektograph copiers were still marketed by the Heyer Hektograph Co. (founded
1903) in the 1950s.
- In 2009, Dale Paul provided the following memory about
his use of a hectograph in the late 1940s: "When I was a small boy (about 60
years ago) it was my job to "run off" the Sunday morning bulletins for my
father, who was a pastor. The bulletin was written by using special colored
pencils to make a master. The master was then laid face down on a gelatin
substance that absorbed the ink from the original. The gelatin was in a pan
about 9x12 inches and about 1 inch deep. After removing the original, I would
lay plain paper on the gelatin, and the ink would bleed off the gelatin onto the
paper, making a copy. When the gelatin got too saturated with ink, dad would
liquidize it by heating it and re-pour it into the pan."
- Les Newcomer reports that "the Heyer Hectograph Co. sold a Hectograph kit as
late as 1974 (tray, gelatin, a few sheets of purple inked paper, and that thick
cover. The tray was only 1/4" deep). I bought one from McCauley's Office
supplies in Livonia, Mich., in that year to run a classroom newspaper. It was a
whopping one column, one page. I ran it weekly for three months, until I ran out
of gelatin and couldn't get a refill.
a different hektograph duplicating process was introduced in the U.S. (W. H.
Leffingwell, The Office Appliance Manual, 1926, p. 378.) Rather than
using a gelatin pad, this process, which was invented in Germany in 1880 and
marketed as the Schapirograph, used a roll of paper coated with gelatin, glue,
and glycerin. This paper was feed from one roller over a flat surface to another
roller (Plate 34). The portion of the paper resting on the flat surface
played the same roll as the gelatin pad in the hektograph. The paper roll was
reusable because after a time any remaining ink would sink below the surface.
These were advertised as late as 1922. The Commercial Duplicator, which was
advertised in 1917, appears to have used a similar technology to produce copies
of documents written in duplicator ink.
Beginning in 1910, Ditto,
Inc., sold gelatin duplicators that were essentially large mechanical versions
of the Daus Tip-Top Duplicator pictured to the right. The Ditto process could be
used for up to 100 copies. Plate 34A is a 1925 Ditto machine. "When
preparing the original, hard bond paper and a special kind of ink [containing
aniline dyes] are used. This may be in the form of a duplicating typewriter
ribbon, a duplicating ink, or even an indelible pencil. The original is placed
face down on the copying surface and smoothed with the palm of the hand or a
roller. It is then lifted off, having left its impression on the gelatin. The
blank sheets are placed one at a time on the gelatin surface and allowed to
remain a few seconds until the imprint is made." The Ditto machine in Plate 34A
was $200. In 1925, other models were $117 to $395.
The spirit duplicator,
which was introduced in 1923 and which was marketed for several decades, evolved
from the hektograph and Ditto machines described above. The best-known spirit
duplicator company was Ditto, Inc. The Ditto process involved the creation of
masters and the transfer of ink from masters to copies. A Ditto carbon consisted
of a sheet of slick, impermeable paper (the master) attached to the front of a
second sheet that had on its face a coating of paste-like ink. When one typed or
drew on the front of the master, a reverse image in heavy ink was transferred to
the back side of the master. The master was then detached from the second sheet
and attached to the drum of a rotary press with the inked surface outward. When
the drum was rotated, the inked surface of the master was wiped with a solvent
such as spirit ether to wet the ink, and until the ink was exhausted impressions
were made on papers that were fed under the drum.
Ditto machines, 1954 and 1965, respectively.
Plate 33, J. R. Holcomb & Co. Transfer
Plate 33B, Lawton Simplex Printer, 1895 ad. The
illustration shows three gelatin trays.
Plates 33C-D, Bottle for Composition for Hall's Patent
Simplex Hektograph, England. Photo below shows instructions on back of
Plate 34, Daus Tip-Top Duplicator, advertised
[Picture coming. H]
Plate 34A, Ditto Standard No. 2, as
of 1925 Ditto Inc.'s most popular model.
Plate 34AA, Model E-41, Ditto Division of Bell &
Howell, c. 1950s
The Cylinder Duplicator Co., Philadelphia,
PA, offered a cylinder duplicator in 1905. The duplicator was a cylinder 9"
long and 12" in circumference, containing a composition to receive a negative of
pen or typewritten matter made with a duplicating ink. Duplicate copies were
mae by running the roller over blank papers. The maker claimed that the device
would make 50 to 75 copies of letters written with a typewriter and 100 to 125
copies of letters written with a pen.
Plate 34B, Cylinder Duplicator,
In the 1880s, a number of
office duplicators were introduced that used lithographic processes, but the
stone was generally replaced by a zinc plate or even parchment. According to an
1880 description, the process of using Anderson's New Auto-Lithograph "consists
in writing the original document with chemical writing fluid with any pen on
ordinary writing paper, and when dry this original is placed ink-side downward
upon [a sensitive plate], and left for two or three minutes. It is then removed
and a negative impression, in perfect and beautiful relief, will be found on the
plate. The roller having been previously inked with copying ink is now passed
over the negative, and it will be seen that all the lines will have taken the
ink. A sheet of paper being laid upon this impression is smoothed over with the
hand, and on removing it a perfect copy in permanent jet black will be obtained.
This may be repeated for a number of copies, and when they become faint the
impression may be re-inked with the roller and the copies will be as at first.
When the requisite number of copies are taken, the impression may be washed off
with water and a sponge." (Geyer's Stationer, Oct. 7, 1880, p.
The Wonder Lithograph Co., which was run by F. D. Holbrook, Alvah
Bushnell, and J. G. Gosselling, advertised its Wonder Lithograph in 1887. The
operating instructions were: "Write or draw the original with our ink on the
lithographic stone [the rectangle to the left in the illustration] in the same
way and as rapidly as on paper. Cover the stone with our special liquid, which
is washed off after one minute, and put the printing ink on with a roller. The
color will adhere only to the writing on the stone. Press elastic plate [the
rectangle to the right in the illustration] with second roller lightly upon the
stone and the perfect negative of the original will appear upon elastic plate,
from which the copies are taken. One inking of the stone is sufficient for 10
to 12 copies, and by reinking it any number of copies can be taken." The Wonder
Lithograph was $15 to $36, depending on size.
(Plate 35), which was introduced by 1887, used parchment secured in a
printing frame. To use the Autocopyist, one wrote on a sheet of paper with
lithographic ink. This paper was then laid face down on the dampened parchment,
and pressure was applied to the back of the paper, causing the lithographic ink
to transfer to the parchment. Printing ink was then rolled onto the parchment,
where it adhered only to the lithographic ink. Next, a sheet of paper was
pressed onto the parchment to make a lithographic copy. Ca. 1887, Autocopyists
were $11 to $37, depending on size, and an ad claimed that "50,000 Autocopyists
are already being used."
Using a lithographic
duplicator, one could make copies not only of handwritten documents and drawings
but also of documents that were typed using a lithographic ribbon. Nevertheless,
the market for these lithographic duplicators was limited because stencil
duplicators and hektographs were superior for most office applications, the
exception being in reproduction of drawings. An 1887 review of the Columbia No.
2 index typewriter indicates the variety of duplicating processes that were
available: "In writing [with the Columbia typewriter] on prepared paper the
writing can be transferred to a lithograph-stone, from which any quantity of
copies may be secured. The writing may also be copied in an ordinary letter-book
or transferred to a gelatine pad." (The Office, July 1887, p.
In 1932, the
Addressograph-Multigraph Corp. introduced the Multilith printing process (1932
Annual Report), "a simple, revolutionary process of lithography which brings, to
large and small users alike, the advantages of office lithographic
reproduction." The sale of Multilith machines began in 1933. (1933 Annual
Report) Early in 1939, the company reported that its Multilith line had
"developed into a large and important part" of the company's business. (1938
Plate 34C, The Wonder Lithograph, The Wonder Lithograph
Co., Corning, NY, 1887 ad.
Plate 35, Black
The Autocopyist Co., NY, NY,
Multigraph Printing Duplicators
Form letters were more likely to be read if they were individually addressed
and were, or appeared to be, typewritten, rather than produced using a stencil
duplicator or conventional printing press. The first commercially successful
machine to produce form letters that appeared to be typewritten was the Gammeter
Multigraph, which was introduced by American Multigraph Co. in 1902. The next
machine that produced such form letters with a distinct technology was the
Hooven Automatic Typewriter, which is discussed in this Museum's exhibit on Special-Purpose Office Typewriters. A
third technology that was used to produce such form letters was embodied in the
Addressing Multigraph and the Addressograph Dupligraph.
Multigraph made use of a drum with parallel horizontal slots into which were set
pieces of printers type that matched the font on a typewriter. See specimen to
left. A form letter was composed on the drum either by hand or using a
typesetter machine (Plate 36A). When the typesetting was complete, the
drum was transferred to a printing machine (Plate 36), where form letters
were printed using a large inked ribbon as the drum was rotated. After form
letters were printed on a Multigraph, names and addresses could be added using a
conventional typewriter, and the letters could be signed with pen and
Multigraph also sold combination typesetting/printing machines. By
changing attachments, one could use Multigraph machines with printers ink to
print billheads, circulars, forms, and price lists.
Plate 37, Office with Multigraph Machines,
1905 (Minnesota Historical Society, Neg. No. 7636)
In 1907, ads claimed that Multigraphs could produce 3,000 to 6,000 letters
per hour, depending on the skill of the operator. A Multigraph used by students
is pictured in the 1911 catalog of Hesser Business College, Manchester, NH. In
1917, Multigraph printers were $190 to $765. In 1924, Multigraph systems,
including a typesetting machine and a printer, were $150 to $500.
Roneotype, which was introduced in the U.K. by the Roneo Co. in 1908/09, was
similar to the Multigraph, and there appears to have been technical
collaboration between the Roneo and Multigraph companies. According to J. S.
Dorlay (pp. 34-35), "The cylinder of the [Roneotype] machine carried a
detachable curved brass 'segment', grooved laterally over its entire surface to
take type-faces cast with a key or shank to fit the grooves. The types were
stored in the grooves of inclined gravity founts from the bottom of which they
were collected in required order onto a composing fork and transferred to the
segment. After use they were restored to the top of the fount. The types printed
through a broad inking ribbon which covered the entire segment. Matching
typewriter ribbons were supplied so that customers could fill in names and
addresses, and a signature printing attachment using ink of a different colour
completed the illusion of an individually typewritten letter." The Flexotype
was another machine similar to the Multigraph.
Plate 37A, Roneo Distributing Fount, 1921 ad
Plate 36, Multigraph
Printer No. 40, American Multigraph Co.
Plate 36A, Multigraph Typesetter No. 59
Plate 36B, Multigraph Printer (left) and Typesetter,
Plate 36C, Woman with Multigraph Typesetter
(left) and Printer, Duplication Dept., Denver Public Library, Denver CO, c.
1930s. Denver Public Library, Western History Collection, X-27483
Plate 36D, Multigraph,
36E, Multigraph System, 1930 ad
Plate 36F, Multigraph Set-O-Type Model 99, 1932 ad
|The Printograph, which was introduced in 1907/08 and
still advertised in 1913, was similar but used a flat bed rather than a drum.
Other brands with flat beds that were sold during 1908-14 include the
Writerpress, the Planotype, the Niagara Multiple Typewriter, and the Universal
Polygraph. The Planotype was $100. The Niagara was available in models priced
at $90 and $145. The Universal was $100 but the price was eventually reduced to
$50. These machines used typewriter type that was arranged by hand in a holder.
They printed through a ribbon.
Plate 38, Printograph, 1909
Plate 38B, Writerpress, Writerpress Co., Buffalo, NY,
1908 ad. Image shows one woman operating the press and two others composing form
letters by manually arranging type in a holder.
In 1924, the American Manicopy Typewriter Co. attempted to raise capital to
produce the Manicopy Machine. The machine was based on US patents No. 1,301,146
and No 1,452,945 awarded to Chester A. Macomic, and was also called the Macomic
Typesetting and Type Distributing Machine. A photograph of one of these machines
is immediately to the left. "Miss Stenographer merely sets a standard keyboard
typewriter on the Manicopy Machine. She places a piece of paper in the
typewriter and starts to write. Plungers underneath the typewriter keys are
depressed every time a key on the typewriter is struck, thus setting the type on
the Manicopy. When she has completed writing the letter or circular, she turns
a lever and the type which has been set on the line bars are conveyed
automatically to the printing surface where the desired number of copies is
printed automatically. After the job is completed, these line bars are returned
to their original positions automatically by turning a lever, and by turning
another lever the type is instantly and automatically returned to its proper
position without the type being touched by hand." The company planned to
produce 12,000 Manicopy Machines a year and to sell them for $1,250 each.. We
have found no evidence that the company raised the capital necessary to go into
In 1924, American Multigraph introduced the Multigraph Keyboard Compotype, a
complicated machine that enabled the operator to set Multigraph type by working
at a typewriter-style keyboard. The Compotype composed the body of the form
letter by stamping characters on strip aluminum and automatically assembling the
strips of type--a line at a time--on a flexible sheet metal blanket. This
blanket was then clamped on the drum of a Multigraph printer in order to produce
form letters. The Compotype also produced address plates.
Plate 38C, Maanicopy
In 1927, American Multigraph introduced the Addressing Multigraph, which
"typewrites a letter, signs a signature, fills in the address and typewrites the
envelope, all at a single revolution of the drum." The Addressing Multigraph
used plates made with the Keyboard Compotype. Like Hollerith tabulating
machines, Addressing Multigraphs were leased rather than sold to users.
The Addressograph Co.'s Dupligraph was similar in purpose to the Addressing
Multigraph. In 1907, the body of a form letter to be printed on a Dupligraph was
set using loose type. The Dupligraph simultaneously printed the body of the
letter, a name and address (using an Addressograph plate), a choice of
salutation (Dear Sir or Gentlemen), and a signature (in a different color ink).
The Dupligraph produced 800 to 1,200 completed letters an hour. It was $300. In
1927, the body of the form letter to be printed on a Dupligraph was no longer
set with loose type but rather was embossed on zinc plates using a Graphotype
machine. Each of the plates used for the body of the letter had a capacity of 8
lines of type. "Electric models produce 2,000 completed letters an
hour--complete with name, address, salutation, date, body of letter and personal
signature in actual signature ink." (Office Equipment Catalogue
In 1930, the Addressograph International Corp., as it was by
then named, acquired the American Multigraph Co. In 1931 the name of the merged
firm was changed to the Addressograph-Multigraph Corp.
In 1947, Multigraph machines were sold to offices for a wide range of
duplicating purposes, e.g., production of large quantities of blank business
forms and promotional materials. (Addressograph-Multigraph, 1947 Annual
In 1979, the company name was changed to AM International Inc.
AM International was still operating in 1985.
38D, Multigraph System, 1930 ad
Plate 38E, Multigraph Set-O-Type Model 99, 1932 ad
Photocopying Machines Used to Copy Existing
described above could not copy documents that had been created in the past or
that were received by an office. Efforts to copy such documents began in the
1840s with the development of photosensitive paper.
result of the difficulty of copying incoming documents is that offices
maintained central files. Everett Alldredge of the National Archives in
Washington, DC, stated: "Before the Xerox era [which began in 1960], every
government agency had one central filing system. When anybody needed
information he went to that central file. But today, with the copying of
documents made so easy, many a government executive prefers to maintain files in
his own office." (John H. Dessauer, My Years with Xerox, 1971, p.
number of technologies that used photosensitive paper to copy documents were
invented beginning in 1842, the first of these technologies that was
commercially important was the "blue process." While the blue process was well
established in Europe by the early 1870s, it was not introduced in the US until
1877. The blue process was used principally to make "blue prints" from
architectural and similar drawings. The catalog of the Fourteenth Exhibition
of the Massachusetts Charitable Mechanical Association, Boston, 1881, p.
218, states that an exhibitor was marketing a process for making "Sun or 'Blue'
Prints, on Ferro-Prussiate Paper, from original drawings," and further states
that the process was then "in common use by engineers and architects to
duplicate plans and drawings." Bedini (p. 195) reports that "Blueprinting for
the copying of architectural or engineering drawings became generally available
in 1881....It was a slow process at best."
process was a contact printing technology: photosensitive paper was placed in
contact with the document that was being copied. A clerk began by using paper
and chemicals (potassium ferrocyanide and ferric citrate) to prepare
photosensitive paper. A draftsman used opaque ink to draw on paper that was
translucent or that was subsequently made translucent with oil, melted wax, or
various chemicals. Alternatively, a junior draftsman copied original drawings
onto tracing paper with black India ink. The clerk then put a sheet of
photosensitive paper in the tray of a blue printing frame, covered this with the
translucent original or India ink tracing, and covered this with a heavy glass
plate that pressed the papers together. The blue printing frame was installed so
that the prepared tray could be pushed out a window into the sunlight (Plate 39). The clerk exposed the
tray for anywhere from several minutes to an hour, depending on the brightness
of the day, and used chemicals to fix the print. The result, a blue print, had a
blue background where the photosensitive paper had been exposed to light and
white lines where the paper had not been exposed. The blue process was time
consuming and impractical for duplication of typical office documents, however,
even though by 1881 commercially prepared photosensitive paper for use in the
blue process was available.
for use in exposing blue prints to the sun were still advertised in 1913.
However, after the development of electric illumination and installation of
electrical distribution systems, blueprint machines were developed that operated
indoors with carbon arc lamps. On these machines, the frames that held the
photosensitive paper and the original were in a vertical rather than horizontal
plane. For an early photograph of one of these machines, click on the link to B. L. Makepeace,
Inc., scroll down, and then click on the link to first blueprinting
machines in New England. See also Plate 39A to the right.
late 19th century and early 20th century, a number of contact printing processes
similar to the blue process but employing different chemicals were used to
produce prints that differed in appearance, e.g., colored lines on white
Blue Print Frame,
39A, Electric Blue Printing Machine, Vertical Type, 1913
Rectigraph Co. introduced camera-based photocopying machines in 1906 or 1907,
and the Photostat Corp. (an affiliate of Eastman Kodak) did so at some point
during 1907-11. Rectigraph and Photostat machines (Plates 40-42) combined
a large camera and a developing machine and used sensitized paper furnished in
350-foot rolls. "The prints are made direct on sensitized paper, no negative,
plate or film intervening. The usual exposure is ten seconds. After the exposure
has been made the paper is cut off and carried underneath the exposure chamber
to the developing bath, where it remains for 35 seconds, and is then drawn into
a fixing bath. While one print is being developed or fixed, another exposure can
be made. When the copies are removed from the fixing bath, they are allowed to
dry by exposure to the air, or may be run through a drying machine. The first
print taken from the original is a 'black' print; the whites in the original are
black and the blacks, white. (Plate 43) A white 'positive' print of the
original is made by rephotographing the black print. As many positives as
required may be made by continuing to photograph the black print." (The
American Digest of Business Machines, 1924.) Du Pont Co. files include black
prints of graphs dating from 1909, and the company acquired a Photostat machine
in 1912. (Yates, p. 248, n. 81)
A 1914 Rectigraph ad stated that the U.S.
government had been using Rectigraphs for four years and stated that the
machines were being used by insurance companies and abstract and title
companies. (Image coming S-3-14) The Rectigraph Co. was acquired by the Haloid
Co. in 1935. Haloid still sold Rectigraph machines in the early
a Photostat machine was $500. (Yates, p. 54.) In 1924, Photostat machines were
$650 to $1,050, depending on maximum print size and attachments. The cost of
materials per print was $.06 for an 11.5" x 14" print. Similar Rectigraph
machines were $500 to $850.
Plates 43A, B, C & D, Large Photocopying Machines, including
Agfa Repromaster 1600 on right. Press Museum, Istanbul,
Plate 40, Photostat Machine, 1918
Plate 40A, Photostat Machine,
[Leffingwell 1926, p. 401]
Plate 40C, Photocopying Machine at Acacia
Mutual Life Insurance Co.
Photograph by Theodor Horydczak (c.
ID: thc 5a39875,
Repro. No: LC-H814-T-1578-067.
Congress, Prints and Photographs Division, Washington, D.C.
Plate 41, Photostat
Courtesy of Good Old Things
42, Rectigraph with Copy Board, Rectigraph Co., Rochester, NY
Plate 43, Photostat black print
of Congress, American Memory,
An American Time Capsule
Reflex Copying Machines
invented in 1896, reflex copying technologies became significant during the
1920s and 1930s. Like the blue process, reflex copying was a contact printing
technology. In reflex copying, a sheet of photosensitive paper was placed face
down on an original, and the back of the photosensitive paper was exposed to
light. Light reflected from the original exposed the emulsion on the front of
the photosensitive paper. In the 1930s, Remington Rand sold Dexigraph reflex
1950s, several companies, including Apeco, 3M, and Kodak sold desktop reflex
copying machines. Typically, an original to be copied was placed face-up. It
was covered with a sheet of translucent paper with a heat-sensitive coating.
This is the sheet on which the copy would appear. Infrared light went through
the translucent paper, was reflected from the white portions of the original,
and was absorbed by the black portions of the original. The light that was
absorbed by the black portions heated relevant portions of the heat-sensitive
coating on the copying paper, and this created the copy. This technology had
numerous problems, according to Owen. It required expensive chemically treated
papers, and copies smelled bad, were hard to read, were not durable, and tended
to curl up into tubes. (David Owen, "Making Copies," Smithsonian, Aug.
2004, pp. 91-97.)For a history of Apeco and the photocopying industry of which it was a part, see the Harvard Business School discussion.
Plate 44, Apeco Auto-Stat, 1954
Plate 44A, 3M Thermo-Fax, 1956 aa
Plate 44B, Kodak Verifax, 1958
Electrostatic Photocopying Machines: Xerography
first experimental electrostatic photocopy was made by Chester F. Carlson in
1938. Carlson patented the xerography process, which was further developed by
the Battelle Memorial Institute and the Haloid Co. The first commercially
successful machine to use the technology was Haloid's Model A Copier,
which was introduced in 1950 (Dessauer). The Model A was not a plain paper
copying machine. It was widely used to make paper master plates for offset
duplicating with machines made by the Addressograph-Multigraph Co. and others.
The Haloid Co. was renamed Haloid-Xerox Inc. in 1958. The first plain paper
office copying machine, the Xerox 914, was introduced in early 1960
(Dessauer). The Xerox 914 produced 400 copies an hour. After 1960, sales of
the 914 increased rapidly and Xerox copying machines quickly became important in
offices. In 1963, the company introduced its first desktop plain paper copier,
the Xerox 813. In 1965, the company introduced the Xerox 2400, a
large machine that produced 2400 copies an hour. (For a history, see Dessauer
1971 and Owen 2004.)
45D, Xerox 914 Copier, 1961 ad
Plates 45 through 45C: Courtesy of Xerox
Plate 45, Haloid Model A Copier.
operated commercial xerography printer.
45A, Xerox 914.
First automatic office copier to
make copies on plain
45B, Xerox 813.
First desktop copier to make
copies on plain
Plate 45C, Xerox 2400.
First Xerox high volume
(1) Granville Sharp’s advice comes from The Gilbart Prize Essay on the Adaptation of
Recent Discoveries and Inventions in Science and Art to the Purposes of
Practical Banking, Groombridge and Sons, London, 1854, including
(2) The Edison electric pen in
Plate 15 is on display in the Information Age exhibit at the Smithsonian
Institution’s National Museum of American History in Washington, DC. The Henry
Ford Museum in Dearborn, Michigan, also has an electric pen. The Science Museum
in London has a number of early copying machines, including a Watt portable
copying press, a Trypograph, and a Cyclostyle.
(3) W. B. Proudfoot, The Origin of
Stencil Duplicating, Hutchinson, London, 1972, and B. Rhodes & W. W.
Streeter, Before Photocopying: The Art and History of Mechanical Copying,
1780-1938, Oak Knoll Press, 1999, are excellent illustrated histories of
early copying technologies. J. S. Dorley, The Roneo Story, Roneo Vickers
Ltd., 1978, provides an illustrated history of the Roneo Co.
(4) T. A. Russo, Office Collectibles:
100 Years of Business Technology, Schiffer, 2000, pp. 93-98, has a copy of
Watt’s patent and photographs of a Watt portable copying machine and other early