# The Invention of Printing/Chapter 3

III
The Key to the Invention of Typography
Conflicting Theories about the Invention of Typography…Was it an Invention or a Combination? Errors of Superficial Observers…Merit of the Invention is not in Impression…Not altogether in Types or Composition…Types of no value unless they are Accurate…Hand-made Types Impracticable…Merit of Invention is in the Method of Making Types…Is but One Method. Description…Counter-Punch…Punch…Matrix…Mould…Illustrations…Type-Making as Illustrated by Moxon in 1683…As Illustrated by Amman in 1564…Notices of Type-Making by Earlier Authors…Type-Mould the Symbol of Typography…Inventor of the Type-Mould the Inventor of Typography…A Great Invention, but Original only in the Type-Mould.
Van der Linde.
THERE is a wide-spread belief that typography was, in all its details, a purely original invention. A popular version of its origin, hereafter to be related, says that it was the result of an accidental discovery; a conflicting version says that it was the result of more than thirteen years of secret experiment. Each version teaches us that there was no perceptible unfolding of the invention; that the alleged inventor created all that he needed, that he made his types, ink and presses, that he derived nothing of value from the labors of earlier printers. If typography was invented by Gutenberg, it was fitly introduced by the sudden appearance of the printed Bible in two folio volumes; if invented by Coster, by the unheralded publication of a thin folio of large ​wood-cuts with descriptive text of type. If either of these versions is accepted in the form in which it is usually told, we must also believe that printing, in the form of perfected typography, leaped, Minerva-like, fully equipped, from the brain of the inventor.
There is another belief, which is strongly maintained by a few scholars, that typography was not an original invention, that it was nothing more than a new application of the old theories and methods of impression which have already been described. According to this view, the practice of engraving is at least as old as the oldest Egyptian seal; the publication of written language can be traced to the Babylonish bricks; printing with ink, as indicated by old Roman hand stamps, was practised as early as the fifth century; the combinations of movable letters were suggested by Cicero and St. Jerome. All that was needed for the full development of typography was the invention of paper. Supplied with paper, the so-called inventor of typography did no more than combine the old theories and processes, and give them a new application. He really invented nothing.
In this conflict of opinion, the critical reader will note an inability to perceive the difference between impression and typography. Those who believe in the entire originality of typography ascribe its merit to the mind that first thought of the combinations of types; those who deny its originality find its vital element in pressure. With one class, the merit of the invention is in the idea of types; with the other, it is in the impression of types. Neither view is entirely correct.
A printer may see how these errors could be developed. The unreflecting observer, who, for the first time, surveys the operations of a printing office, finds in the fast presses the true vital principle of printing. With him, presswork is printing; type-setting and type-making are only adjuncts. He was the inventor of the modern art of printing who built the first press, and printed the first book. The conclusion is illogical, as will be shown on another page. If a radical ​improvement had not been made in the earliest method of printing books, the art would have been as unproductive in Europe as it has been in China. The fast press may do its work admirably, but its only functions are those of inking and impressing, and impression is not typography.
The thoughtful observer will perceive that the merit of modern printing is not in impression; that there would be neither fast presses, nor great books, nor daily newspapers, if there were no types. With him, whatever of greatness there is in printing is due to the mind that first imagined the utility of types. The grandness of the results that have been achieved by typography seem all the grander when he thinks that these results have been accomplished with such simple tools as little cubes of metal. The making of these tools he regards as a matter of minor importance. For in these types are visible no intricacy of mechanism as in the power loom, no indications of a mysterious agency as in the magnetic telegraph, no evidences of scientific skill as in photographic apparatus. There are in types, apparently, no more evidences of genius or science than there are in pins or needles. The grotesque types of the fifteenth century are rated by him, and even by many mechanics, as rude workmanship which could have been done by a carver in wood or a founder in metal. He who could imagine them could make them. To think was to do. The merit of the invention of typography is accordingly adjudged, not to the inventive spirit which constructed the mould by which the types were made, but to the genius which first thought of the utility of types. This is a grave error.
Speculations like these, which assign all the merit of the invention of typography to him who first conceived the idea of types, are opposed to many facts and probabilities. Cicero and Jerome could not have been the only men who thought of the combinations of engraved letters; nor were the old Roman lamp-makers and branders of cattle the only men who used types. The idea of stamping with detached letters ​could have been entertained, and practised, by hundreds of experimenters of whom there is no tradition. It is probable that there was such a practice, but the stamping of single types by hand pressure was not typography, nor did it lead to its subsequent invention. Experimental types like these, which had been cut by hand, were of no practical value, for they could not have been used on any extensive scale.
Illustration of Types of Irregular Body.There is something more in types than is apparent at the first glance. Simple as they may seem, they are evidences of notable mechanical skill in the matter of accuracy. The page before the reader was composed with more than 2,000 pieces of metal; the large page of a daily paper may contain more than 150,000 of these little pieces. Whether the page is large or small, the types are always closely fitted to each other; they stand accurately in line, and the page is truly square. If the types of one character, as of the letter a, should be made the merest trifle larger or smaller than its fellows in the same font, all the types, when composed, will show the consequences of the defect. The irregularity of line that is scarcely perceptible in the first row will be offensively distinct in the second. It will increase with each succeeding row, until the types become a heap of confusion which cannot be handled by the printer. Advantages which might be secured from movable types are made of no effect by an irregularity so slight that it would be passed unnoticed in the workmanship of ordinary trades. The illustration proves that it is not enough for types to be movable; they must be accurate as to body; they must fit each other with geometrical precision.
The accuracy of modern printing types is due more to the nice mechanisms employed by the type-founder than to his personal skill. He could cut types by hand, but the cost of hand-cut types would be enormous, and they would be vastly ​inferior to types made by the type-casting machine. He could make types by a variety of mechanical methods, but they would be imperfect and unsatisfactory. A careful survey of the impracticable inventions in type-founding, recorded in the patent offices of this country and Great Britain, proves that there is, virtually, but one method of making types. The requirements of accuracy and cheapness can be met only by making them of metal, and casting them in a mould of metal.
Although it is clearly understood, by all persons who have a practical knowledge of the subject, that practical types can be made only by casting, many popular books repeat the old story that the first typographic books were printed with types which had been cut by hand out of wood or metal. Whether the mechanics of the middle ages could have done what modern mechanics cannot do,—cut types with bodies of satisfactory accuracy—need not now be considered. The stories about hand-made types—about types that were sawed out of wood blocks—about types that were cut out of wooden rods, and skewered together with iron wires—about types that were engraved on the ends of cubes of metal—will be examined at greater length on an advanced page. Even if these doubtful stories were verified, it would still remain to be proved that the cut types had advantages over letters engraved on wood. It would be difficult to give reasons for their introduction. Books composed with cut types could not be neatly printed; they would be inferior to good manuscripts in appearance, but not inferior in price. Cut types ​were as impracticable in the infancy of the art as they are now. There is no trustworthy evidence that they were ever used for any other purpose than that of experiment.
Every method for making merchantable types, save that of casting, is a failure. Typography would be a great failure, if its types were not cast by scientific methods. This understood, we can see that the most meritorious feature in the invention does not belong to him who first thought of the advantages of types, nor even to him who first made them by impracticable methods. Its honors are really due to the man to whose sagacity and patience in experiment we are indebted for the type-mould, for he was the first to make types which could be used with advantage.
It will now be necessary to explain the scientific method of making types which is practised by every type-founder. The first process is the making of model letters. The work begins with the cutting on steel of a tool which is known as the Counter-punch. The illustration represents the face of a counter-punch for the letter H, of the size usually known among type-founders as Double-English. This counter-punch is an engraving, in high relief, of the hollow or the counter of that interior part of the letter H which does not show black in the printed impression. It has apparently, no resemblance to the letter for which it is made. When the proportions of the counter-punch have been duly approved, it is stamped or impressed to a proper depth on the end of a short bar of soft steel. Properly stamped, the counter-punch finishes by one quick stroke the interior part of the model letter, and does it more quickly and neatly than it could be done by cutting tools.
The short bar of soft steel is known as a Punch. When it has received the impress of the counter-punch, the punch cutter, for so the engraver of letters is called in type-foundries, cuts away the outer edges until the model letter is pronounced perfect. This is work of great exactness, for the millions of types that may be made by means of the punch ​will reproduce all its peculiarities, whether of merit or defect. The steel of the punch is then hardened until it has sufficient strength to penetrate prepared copper. Punch.It is then punched, by quick and strong pressure, on the flat side of a narrow bar of cold rolled copper. This operation makes a reversed or sunken imprint of the letter on the punch. In this condition, the punched copper bar is known among type-founders as a Drive, or a Strike, or an Unjustified Matrix. It becomes the Matrix proper, only after it has been carefully fitted-up to suit the mould. The exterior surface of the drive must be made truly flat, and this flatness must be parallel with the face of the stamped or sunken letter in the interior. The sides of the drive must be squared, so that the interior letter shall be at a fixed distance from the sides. The depth of the stamped letter, and its distance from the sides, must be made absolutely uniform in all the matrices required for a font or a complete assortment of letters. Matrix.The object of this nicety is to secure a uniform height to all the types, and to facilitate the frequent changes of matrix on the mould. The justifying and fitting of matrices to moulds is one of the most exact operations in the art of type-founding.
For every character or letter really required in a full working assortment of types, the type-founder cuts a separate punch and fits up a separate matrix; but for all the characters or letters which are made to be used together, there is but one mould. Types are of no use, as has been shown, if they cannot be arranged and handled with facility, and printed in lines that are truly parallel. However unlike they may be in face, they must be exactly alike in body. This uniformity of body, which is as ​essential as variety of face, can be most certainly secured by casting all the types in one mould. All the matrices are, consequently, made with a view to being fitted to one mould. The mould forms the body, and the matrix forms the face of the type. With nearly every change of matrix there must be a new adjustment of the mould.
The word Body, as used by printers and type-founders, means the measurement of a type in one direction only—in a direction at a right angle with the regular lines or rows of printed matter. The types of the accompanying illustration are of the same height, but they are of different bodies.
| Pica body. | Small-pica body. | Long-primer body. | Bourgeois body. | Brevier body. | Minion body. | Nonpareil body. |
| (See also page 18.) |||||||
Exactness of body could be secured with little difficulty if all the types belonging to the same font were of the same width, and could be cast in one fixed and unalterable mould. But types of the same font and same body are of all widths. They vary, in the letters from the l to the W; in the spaces or blanks used to separate the words, from the hair space to the three-em quadrat. The spaces in the following illustration are of the same body, but they are of different widths, to suit the peculiarities of different kinds of printed matter.
| Six-in-em space. | Five-in-em space. | Four-in-em space. | Three-in-em space. | En quadrat. | Em quadrat. | Two-em quadrat. | Three-em quadrat. |
It is not practicable to make a mould for each character; the cost would be enormous, and the multiplicity of moulds ​ Figure 1. Type-Mould, without Matrix and with a Type in the Mould.would lead to fatal faults in inaccuracy of body. Exactness of body can be had only by casting all the characters in one mould, but this mould must be made to suit all the matrices. The matrices must be frequently changed, but with such nicety that the types of every letter shall be uniform in height, in line, and truly square. Any mechanic will see that the construction of an adjustable mould is work of difficulty, and that the fitting-up of a set of matrices for one mould is a very nice operation.
Figure 2. One half of the Mould.The Type-Mould of modern type-founders consists of two firmly screwed combinations of a number of pieces of steel, making right and left halves. In the first illustration of the mould, Figure 1, the halves are properly connected. In this form it is not practicable to represent the interior, but it may be understood that the interior faces fit each other snugly in every part but the centre, in which provision is made for a small opening which can be increased or diminished in a lateral direction only. One end of this opening is closed by the matrix; the other end is the jet, or the mouth-piece through which the melted metal is injected. Figure 3. The Other Half of the Mould.In this opening, which is indicated by the letter H in the cut, the body of type is cast. The matrix which forms the face of the type is snugly fitted between the jaws on ​either side of this letter H. It does not appear in the cut; for the matrices, although indispensable parts, are always looked upon by founders as attachments to the mould.
Figures 2 and 3 represent the interior sides of the mould. For the purpose of clearer illustration, the half of the mould, Figure 2, is shown reversed, or upside down; but when this half is connected with its mate, the two halves appear as they do in Figure 1. These two halves differ from each other only in a few minor features. They are so constructed that, when joined, the sides which determine the body of the types are in exact parallel, and at a fixed and unalterable distance from each other. In Figure 2, the ridges which make the nicks are noticeable; in Figure 3 the cast type is shown as it appears before it is thrown from the mould, with jet attached.
Although the two sides of the mould are fixed so as to be immovable in the direction which determines the body of the type, they have great freedom of motion and nicety of adjustment in the direction which determines its width. They can be brought close together, so as to make a hair space, or can be fixed wide apart, so as to cast a three-em quadrat, but they always slide on broad and solid bearings, between guides which keep them from getting out of square.
In the construction of the mould and adjustment of the matrices, every care is taken to insure exactness of body. The illustration on page 52 may be again referred to as an example of the necessity for minute accuracy. We there see that the feasibility of typography depends upon the geometrical exactness of its tools, and that types, are of no practical use, if they cannot be readily combined and interchanged.
The casting or founding of types, in a mould constructed like that of the engraving, is now accomplished by a complex machine, the invention of Mr. David Bruce, Jr., of New-York city, and by him patented in the year 1838. Before this date ​all types were cast by hand, from a hand-mould, and by a process which received no noticeable improvement for two centuries. The following illustration, taken from an engraving
Type-Casting as Practised in 1683. [From Moxon.]"
published by an early English type-founder, can be offered as a substantially correct representation of the method of casting which was practised by all type-founders in the first quarter of this century.
The type-caster took in his left hand the mould, which was imbedded in a wood frame, and shielded about the jet, ​to protect him from accidental splashes of melted metal. Then, with his right hand, he took from the melting pot a spoonful of the hot metal, which he quickly poured into the jet or mouth of the mould. At the same instant, with a sudden jerk, he threw up his left hand, so as to aid the melted metal in making a forcible splash against the matrix at the bottom of the mould. This sudden jerk or throw was needed, in the casting of small letters, to make a good face to the type. If it was not done, the metal would cool too quickly, and would not penetrate the finer lines of the matrix. Long practice enabled the type-caster to do this work with apparent carelessness; but the trick of making this throw or cast with the left hand, at the right time and in the right manner, was slowly acquired—by some strong men, never acquired at all. In all cases, hand-casting was hard work. To face types, writes August Bernard, the type-caster must make the contortions of a maniac. It was slow work. Fournier the younger, writing in 1764, says that the performance of the type-caster of ordinary book types would vary from two thousand to three thousand types per day. When this throw was made, the type-caster removed the matrix with his right hand, and, giving the mould a toss, threw out the type. The matrix was then replaced on the mould, and the operations which have been described were repeated in the casting of every subsequent type.
It must be confessed that this method of making types is not simple. It is too circuitous in its processes, and too complex in its machinery, to be regarded as the fruit of the first lucky thought of the inventor. It is a scientific process, manifestly the result of thought and protracted experiment. In its series of impressions, it is an emblem of the art which it has created. The counter-punch impresses the punch, the punch impresses the matrix, the melted metal impresses the matrix and mould. One model letter on the punch is the instrument by which millions of types are made; one letter on a type may serve in the printing of millions of words.
​The punch, matrix and mould are old inventions, but they are still in use in all type-foundries. They have not been changed in any important feature since they were explicitly described and illustrated for the first time, by Joseph Moxon. As Moxon did not claim these implements as his own invention—as we find in the writings of the authors who preceded him notices of the art of cutting letters, and mention of tools "which they called matrices," and of "making types in brass" [matrices or moulds], we have some reason for the belief that there has never been any radical change in the processes of type-making.
Unfortunately, we have no minute description of the art of type-making as it was practised before Moxon. Those who were competent to describe the work, refrained from description, either because they thought that the subject was trivial or technical, or because they intended to conceal the process. The authors who did undertake to describe the art were incompetent; they did not thoroughly understand the subject, and have treated it slightingly and incorrectly. But we are not entirely in the dark.
Our most authentic information is contained in a queer little book by Jost Amman, which is known to modern book-collectors as The Book of Trades, and which was published at Frankfort-on-the-Main, in the year 1564. The title of the book, with text in German, describes it as Hans Sachs' Correct Description of all Arts, Ranks and Trades, with printed ​illustrations. The descriptions, so called, which were written in verse, by Hans Sachs, the cobbler poet, are of no value for this inquiry: they describe nothing. To men seeking trustworthy information about art or manufactures, all the merit of the book is in its numerous engravings on wood, which may be accepted as faithful illustrations of the methods and usages observed during the sixteenth century.
Type-Casting as Practised in 1564. (From Jost Amman.)Among the illustrations is the schriftgiesser, or the type-founder, with the accessories of his art about him. We see the furnace for melting the metal, the bellows, the tongs and the basket of charcoal. That the man is founding types is apparent, not only from the bowl of cast types on the floor before the stool, but from his position with spoon in hand. Here we begin to note differences. The type-caster of 1683 stands up to his work; the schriftgiesser of Amman is sitting down. The mould of 1683, like the hand moulds that were in use forty years ago, is provided with a wire spring, to keep the matrix firmly in position; the mould of Amman has no spring of iron wire and it is nested in a pyramid-shaped box, which seems to be used as a protection to the hand. How the mould was nested in the box, how the matrix was attached to the mould, how the cast types were dislodged, from the mould, is not shown in the engraving. We have to regret ​that the wood-cut is so small, and that Amman's engraving is so coarse. There are some indications that, in its more important features, the mould of Amman was like that of Moxon. The little opening in the side of the mould which rests on the shelf may have been an opening for the insertion of matrices. That metal matrices were used is dimly shown by the three little bars resting on the top of a small nest of drawers, which has the appearance of a chest for punches and matrices. The pyramidal box was not only the nest of the mould, but served also as a support for the matrix. The sitting position of the caster permitted him to give the box a throw or jerk; with his right hand at liberty, he could pull out the mould and dislodge the type in the usual manner.
There are other features in Amman's wood-cut requiring notice. Upon the lower shelf are two crucibles, which were put in use, probably, when making the alloy of type-metal. The use of the sieves is not apparent; they may have been needed to sift the sand for the sand moulds, in which bars of type-metal were made, and in which large initial types were cast. The crucibles, the furnace, the mould, the position of the type-caster, and the single types with jets attached, are enough to prove that types were cast, one by one, by the process subsequently described by Moxon. It is plain that the elementary principles of type-founding were as clearly understood in 1564 as they are at this day.
The most obscure feature in this wood- cut is the matrix. The three little bits resting on the chest of drawers are too rudely cut to enable us to decide positively that they are matrices. We infer that they are from their surroundings and from the apparent necessity for such implements; but it would be more satisfactory to know, and not infer, that the early type-founders used matrices of hard metal.
There are no engravings of type-founding of earlier date than this cut of Amman's, but we have some evidences which point to a very early use of moulds of hard metal. We find in many of the books of the sixteenth and fifteenth centuries ​occasional allusions to type-making. Considered separately, they are of little importance; considered together, they are ample proof that types were made of fluid metal in moulds and matrices of brass, not less than one hundred years before Amman made his wood-cuts.
In 1507, Ivo Wittig put up a stone to the memory of John Gutenberg, on which he had engraved that Gutenberg was the first to make printing letters in brass. We do not find in any record of authority that Gutenberg printed books by types cut out of brass. There are difficulties connected with the cutting and use of brass types which would make such an assertion incredible. If we accept the literal translation of the Latin epitaph, and supplement it with a little knowledge of type-founding, we shall then understand what Wittig meant—that Gutenberg, by using melted metal, made types in brass moulds.
Trithemius, writing in 1514, observes that Gutenberg and Fust "discovered a method of founding the forms of all the letters, which they called matrices, from which they cast metal types." The statement of the bishop is somewhat confused, and his specification of Fust as an inventor is, probably, incorrect, but every typographer who reads his description cannot fail to see that he has endeavored to describe the established method of making types—the method in use to this day.
Peter Schœffer, in a book printed by him in 1466, makes the book metaphorically say, "I am cast at Mentz." He says the types were cast, although he elsewhere praises himself as a more skillful cutter of letters than Fust or Gutenberg.
Bernard Cennini, writing at Florence in 1471, says that the letters of his book were first cut and then cast.
Nicholas Jenson, who calls himself a cutter of books, says in one of them, published in 1485, that the book, meaning the types of the book, was cut and cast by a divine art.
Husner of Strasburg, in the imprint of a book made by him in 1473, says (translating his language literally) that it was printed "with sculptured letters from brass," or, as it ​could be more clearly construed, with letters in high relief, made from brass matrices. That Husner did not mean to say that his printing types were cut out of brass, is more clearly shown in the imprint of another book printed by him in 1476, in which he says, literally, that it was printed, "without doubt, with sculptured letters, scientifically begun in brass."
That the cutting, so frequently mentioned by the early printers, was the cutting of punches, is apparent to every modern typographer who knows that, in the manufacture of types, punch-cutting is not only the first process in order of time, but first in order of artistic importance. That the types said to be made of brass were made in brass moulds and matrices could, in the absence of other proof, be inferred from the appearance of the books of the fifteenth century. These types often show varieties of the same letter and have other peculiarities disagreeable to modern tastes, but there is strict uniformity in each variety, and an accuracy of body which could have been secured by no other method than ​
Prices of Material for the Type-Foundry :
| Materials. | | Tuscan Currency per pound. | Tuscan Currency per pound. | Tuscan Currency per pound. | American Currency per pound. |
| Steel, | lir. | 2 | 8 | 0 | $2.18 |
| Metal, (Antimony?) | | | 11 | 0 | .50 |
| Brass, | | | 12 | 0 | .54 |
| Copper, | | | 6 | 8 | .30 |
| Tin, | | | 8 | 0 | .36 |
| Lead, | | | 2 | 4 | .10½ |
| Iron Wire, | | | 8 | 0 | .36 |
that of casting them in moulds and matrices of hard metal. There is other evidence which is even more direct. In the Magliabechi library at Florence is preserved the original Cost Book of the Directors of the Ripoli Press of that city, for the interval between the years 1474 and 1483. In this book may be found, among other papers of value, a list of the prices which were then paid for the supplies or materials used in the type-foundry connected with the Ripoli Press. In this list we see the names of the metals that are used in all modern type-foundries. There can be no question of the statement that the types of this foundry were cast in metal moulds.
It would not be difficult to present additional evidence tending to prove that the punch, the matrix and the mould of hard metal were used by the earliest typographers, but this evidence will be given with more propriety in another chapter. On this page, it is enough to record, as the result of the future inquiry, that printing types have always been made by one method. The significance of this fact should not be overlooked. It has been shown that printing, as we now use it, could not exist without types, and that there would be no types if we did not know how to make them in adjustable type-moulds. In this type-mould we find the key to the invention of typography. It is not the press, nor the types, but the type-mould that must be accepted as the origin and the symbol of the art. He was the inventor of ​typography, and the founder of modern printing, who made the first adjustable type-mould.
It is a curious circumstance, and not creditable to the sagacity of the historians of typography, that the importance of this implement, upon which the existence of typography depends, has never been fully appreciated. That the type-mould was first made by the inventor of typography need not be discussed. We have no knowledge that any method of founding different sizes and forms from an adjustable mould was attempted before the fifteenth century. There was no need for such a mould in any other art. But we have indirect evidences in abundance that the early printers considered their method of making types as a meritorious and original invention. Peter Schœffer described it as a new and unheard-of art; Bishop Trithemius said that it was found out only through the good providence of God; Jenson said it was a divine art; Husner said it was a scientific method; Wittig said that the inventor has deserved well of the wide world. It would be useless to attempt to add anything to these tributes—quite as useless to attempt to break their force. Typography, made practicable and perfect by means of the type-mould, was an original and a great invention. If the inventor had produced nothing more than the type-mould, this would be enough to entitle him to the highest honor.
It is tribute enough to acknowledge that the inventor of the type-mould was the inventor of typography. It is not logical nor truthful to attribute to him the introduction or the rediscovery of the simple elements of relief printing. It is not derogatory to his honor to confess that his labors were materially lightened by the services of men who had gone before him and had prepared materials for his use. The inventor of the type-mould did not invent paper, for that had been known for two centuries before; he did not originate engraving on wood, nor impressions from relief surfaces, for both processes were known before paper was made; he was not the first to print upon paper, for printed matter, in the ​forms of playing cards and prints of pictures, was a merchantable commodity before he was born. He was not the first to make printed books; it is not certain that he made the first printing press; it is not probable that he was the first to think of movable types. His merits rest on a securer basis. While others dreamed and thought, and, no doubt, made experiments, he was the first to do practical and useful work—the first to make types that could be used—the first to demonstrate the utility of typography. The first practical typographer, but not the first printer, he was really at the end of a long line of unknown workmen whose knowledge and experience in ruder forms of printing were important contributions toward the invention of the perfect method.
The contributions made by the men who practised ruder forms of printing demand a fuller description. The merit of printing with types cannot be fully appreciated until it has been contrasted with the printing that preceded types. It will be an instructive lesson to trace the origin of a great art to its sources.
* ↑ These observations apply only to the types used for the text letters of books and newspapers. The large types made for the display lines of posters are cut on wood, but these types of wood are used only for printing single lines; they are not combined with the compactness of book types, and do not require their precision of body. The wood types of Japan are, probably, the smallest wood types in practical use; but they are much larger than our book types; they are printed in smaller pages; they are not obliged to stand truly in line, nor to conform to the standards of European and American printers. The cheapness of types which have been cast, as compared with letters which have been engraved, has been explained on page 23 of this work.
* ↑ The characters D, E, I are the private reference marks of the type-founder. In this position they cannot be reproduced on the cast type.
* ↑ The superfluous metal which adheres to the cast type, and is afterward broken off, is also called the Jet. The finishing of the types is comparatively simple work which does not require explanation.
* ↑ Mechanick Exercises, or the Doctrine of Handy-Works, applied to the Art of Printing. By Joseph Moxon, Member of the Royal Society, and Hydrographer to the King, etc. London, 1683.
* ↑ The Book of Trades was popular. Two editions in Latin verse were published, one in 1568, and another in 1574, with descriptions by Hartmann Schopper. Chatto says: This is, perhaps, the most curious and interesting series of cuts, exhibiting the various ranks and employments of men that ever was published Among the higher orders……are the Pope, Emperor, King, Princes, Nobles, Priests and Lawyers; while almost every branch of labor or trade then known in Germany, from agriculture to pin-making, has its representative. There are also not a few which it would be difficult to reduce to any distinct class, as they are neither trades nor honest professions. Of these heteroclytes is the Meretricum procurator, or, as Captain Dugald Dalgetty says, the captain of the queans. Jackson and Chatto, A Treatise on Wood Engraving, p.409. Jost Amman was one of the many famous German designers on wood The publishers of Nuremberg and Frankfort esteemed his ability highly and gave him constant employment.
* ↑ The text of the Speculum Durandi, the book of 1473, is exculptis ære litteris; the text of the Præceptorum Nideri, the book of 1476, is litteris exculptis artificiali certe conatu ex ære. The language is plain and cannot be construed to mean cut types. When these books were printed, the arts of typography and copper-plate printing were new and had not yet received distinctive names. The reading public knew nothing of the theory or practice of either process, and confounded the productions of one art with those of the other. The early printers had to define the respective arts as they best could, with words made from Latin. A close examination of the words selected by Husner will show their propriety. The word exculptis, sculptured, or cut out in high relief, is here used in contradistinction to inculptis, sculptured in, or cut in, as in an engraving on copper-plate. It defines typographic work from copper-plate printing. The phrase artificiali certe conatu ex ære, means something more than skillful engraving; it suggests the use of mechanism, and of a beginning of the work in brass, which can be clearly understood only by construing ex ære, from or in a brass mould, The phrase here translated in brass has been rendered of brass, but the language will not bear this construction. The phrase ex ære, in, or out of, or from brass, was frequently used by many early printers. I have rarely met the form æris, of brass. To represent that early types were of brass is as much a violation of history as it is of grammar.
* ↑ This book was edited and republished in the form of an octavo pamphlet of fifty-six pages, by Signor P. Vincenzo Fineschi, at Florence, in 1781. The equivalent in American currency of the Tuscan lira is calculated from a formula given with great minuteness by Blades in his Life and Typography of William Caxton, vol. ii. p. xx.