An amazing project by Dave Hughes and John Cornelisse to scan the back copies of the Monotype Recorder. The Monotype Recorder both set the standard and documented the advance of typography at the hands of this firm and these PDFs will make fascinating reading. Thanks, both!
Tag: Monotype System
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MacTronic: Monotype Typesetting from Computer
MacTronic is a hybrid of computer and Monotype setting. Harry McIntosh’s system replaces the Monotype keyboard with a computer and drives the caster with computer signals and not paper tape. The result is a system that allows text to be prepared and then sent directly to the caster to produce brand-new perfect types. This article looks in a little more detail at how the system works.
Monotype Casting
Producing Monotype matter originally needed the text to be keyed on a compressed-air powered keyboard which punched holes in paper tape. The air going through these holes positioned the matrix-case over the stationary mould to obtain the required character. Because of the differences between faces, different sets of keybars, stopbars, etc. were needed for each face to account for spacing and width of each character. For example, the width of a Gill Condensed W is smaller than a Latin Expanded W. As the caster needed to know where each line ended the width of each character had to be recorded: hence the need for different keybars, etc. A change of type size or typeface within the process would need other keybars, etc. to be used — for example, in headings within a report, footnotes, Greek, etc.
The original system also demanded that the operator had an understanding of where and how to break each line, and they relied on a rotating indicator (Justification Drum) at the top of the keyboard to help them. As there was no monitor or hard-copy output (aside from the paper tape) errors or corrections could only be made once the type had been cast.
In summary the original approach needed a keyboard plus keybanks, keybars, etc. for each face and the operator to have a high degree of accuracy and judgement to get the paper tape right.
MacTronic
This is a hybrid of computer and Monotype setting. Harry McIntosh’s system replaces the Monotype keyboard with a computer (PC only at the moment) and drives the caster with computer signals rather than paper tape. The result is a system that allows text to be prepared and then sent directly to the caster to produce brand-new perfect types. This article looks in a little more detail at how the system works.
In the earlier versions of MacTronic, the computer was used to drive a Monotype electronic tape punching machine and the tape was fed to the caster. Harry still uses the same punch-unit and current direct-to-caster software to supply spools of tape for customers who want to cast type on their own casters.
Harry later developed a direct interface: a system of compressed air valves controlled by computer attached to the head of the caster: opening valves to allow compressed air to flow to the required matrix-case stop buttons and so replicating the original action of punch-holes in the paper tape.
Text Preparation
Text from the author is imported into InDesign/OpenOffice Writer. Harry then replaces the author’s faces with his own computer fonts that are faithful replicas of the Monotype cast faces, along with the type size, text width, etc. This step is needed because standard PC Baskerville, for example, is slightly different to Monotype Hot-metal Baskerville. Any minor changes needed at this point are made: hyphenation, line length, etc. and InDesign/OpenOffice Writer now show on-screen what the Monotype caster will produce. At this point a PDF can be created and returned to the author so that they can see what the finally cast output will look like. After any text changes have been made, a Hot-Metal Plug-in is used to create a usable MacTronic file — this preserves the new formatting, including spacing, tables, alignment, line-endings, etc. Harry’s web pages lists the faces he has available for casting, but MacTronic can cope with any Monotype face -– all that is needed is a matrix-case, wedge and character unit-values or matrix case arrangement.
Preparation to Cast
This file is then sent to the Justification Program that contains an electronic version of the required matrix-case; predetermined line-length galleys per file are produced and can be used to cast type or produce punched tape. Any different type sizes or typefaces are sent to separate files, and equivalent spaces (usually cap ‘X’s and lowercase ‘i’s) are left in main text for manual insertion -– more than one line is indicated once only. The wedge settings and characters can be modified within the electronic matrix-case.
Casting
The galley punch files are sent to the Caster Driver Program that sends the casting instructions via USB to the MacTronic Interface. From here everything follows the usual course of Monotype casting: there’s a lovely calming sound as the machine produces letter-by-letter according to the computer’s instructions and these march out of the machine. Brand new, perfectly justified type ready to print.
In summary, the MacTronic may appear complicated to some, but it only requires a few simple, seamless procedures to produce perfect galleys of type:
- Text produced by using all text controls of InDesign/OpenOffice Writer, including indents, tables, etc.
- Create a MacTronic-compatible file using InDesign/OpenOffice Writer Hot- metal Plug-ins -– all fonts, line-endings, etc. are retained.
- Create a punch file using Justification Program.
- Send punch file to Caster Driver Program to create galleys of type.
Sorts galleys can be produced to any line width (60 ems max.) and mixed amounts of characters. Interested parties are welcome to see MacTronic in action and discuss the many other useful features, or view website at MacTronic.
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Monotype Super Caster
Where the composition caster was designed for continuous texts, this machine was designed for those essential but one-off bits of work. While the machine could not be driven by punched tape, the range of products went well beyond the composition caster and included –
- Type, spaces, borders and ornaments from 4½pt to 72pt
- Leads and rules of between 1pt and 18pt
- Strip borders at 6, 8, 10, 12 and 18pt
- Clumps and dashes of 9 to 16picas
- Furniture in 24, 36, 48, 60 and 72point
- Quotations in these sizes (picas): 6 x 6, 5, 4, 3 and 2; 5 x 5, 4, 3 and 2; 4 x 4, 3 and 2
Specifications
Weight 1678lbs Working Area 7′ x 7′ Electricity consumption 2.25 units/hour Speeds 4½ — 144 rpm (depending on type size) Driving pulley 14″ Motor ¾ horsepower Electric Heating Funditor or Rototherm Pot capacity 85 lbs Accessories
While this is a Jack of all trades machine, there were still a small number of attachments –
- Air Blower: to cool the matrices used
- Furniture Trimmer: to remove any imperfections from the furniture mould
- Thin space cutter: this bench-top device was to cut thin spaces from strip material
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Monotype Composition Caster
Monotype described this as a machine which “…automatically casts and delivers lines of perfectly-spaced lines of hard, new, deep-cut single types, being controlled by the perforated paper ribbon produced on the keyboard”.
The key thing that marks the composition caster as different from their other casters is that this machine was designed to produce long passages of text-sized type: anything up to 14pt. For bigger types an attachment was needed but the Monotype Super Caster was preferable.
This machine, too, demanded some essential, but interchangeable, parts –
- Mould: this defines both the body size and the height of the type (usually 0.918″ in Britain)
- Matrix Case: this is a case containing the brass moulds (or matrices) that are injected with molten metal to form the individual types. The case holds more than one alphabet in a 15 x 15 or 15 x 17 layout. The position of each character within the case is dictated by the width of that character
- Normal Wedge: this is a metal wedge that defines the width of each character in the matrix case
Specifications
Weight 1466 lb Working Area 7′ x 7′ Gas consumption (for gas-heated machines) 20 cu. ft./hr Electricity consumption 2 units/hour Air Pressure 15 lbs/sq. in. Speeds 140 — 180 rpm (depending on type size) Driving pulley 14″ Motor ½ horsepower Electric Heating Funditor or Rototherm Pot capacity 85 lbs Standard Measure (or line length) 4¼pt. to 14pt up to 60ems pica Accessories
Because this machine was pressed in to service to do all kinds of work, Monotype produced many attachments including –
- Display: this is use to cast types of up to 36pt, but a speed regulator is also needed to get the caster to run at the correct speed
- Duplex Mould, and Dual Type attachments used for casting exotic types
- Ingot Feeder: to keep the molten metal in the machine constantly topped up
- Large Type Composition: used to extend the size of the type that can be cast with automatic spacing and sequencing. This extends the range of the machine to 24 point from 14 point
- Lead and Rule: allowed for the creation of rules and leads from 1½pt to 12pt to any length from 6picas to 25 inches
- Leading: allows for pre-cast rules to be inserted between lines as they are composed by the machine
- Lighting: which included a magnifying glass to inspect the types as they were produced
- Quadding and Centering: to help with casting space in centred or ranged-right or left lines
- Reverse Delivery: to accommodate right-to-left-reading languages
- Speed Regulators: to get the machine to work at the best speeds for larger types or rules and leads
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Monotype Keyboard
Entering the text is the first step in the process and the compressed air-driven keyboard punched holes in a paper tape. While the output was on a par with modern computer typesetting, the keyboard relied on mechanical help to help with spacing, justification and line length.
Each keyboard needed some essential parts to work –
- Keybutton Banks: these are the rows and columns of buttons which could be changed to accommodate non-Latin characters (if setting Greek, for example)
- Keybar Frames: these translate the specific key depression to a punched hole in the tape. The punched holes select a particular mould (or matrix) and their position is determined by width of the character. If an especially wide ‘W’ was used then that would have to be in a different position in the matrix to a narrower or condensed ‘W’ and so a different pattern of holes was needed in the tape. Rather than have each W in a different position on the keyboard, the keybar frames did this translation work
- Stopbars: this defines the width of each character so that the justifying scale can be driven
- Justifying Scale: this Heath-Robinson-esque device was designed to assist the keyboard operator in deciding when to end each line. As each key was pressed, the stopbar helped move a small needle up or down a cylinder visible to the operator depending on the width of that character. At the same time, each keystoke moved the drum around by one position. The markings on the drum would indicate how much space was left in that line and allowed the operator to either continue (and have very tightly-spaced words), or break to another line (perhaps leaving very wide spacing between words)
Standard Keyboard
A single, standard keyboard to produce the punched paper tape.
Specifications
Weight 324lb Working Area 6′3″ x 6′ Air Pressure 15 lbs/sq. in Air Consumption 1.15 cu. ft/min Standard Measure (the width to which text could be set, line length) 4¼pt. to 14pt up to 60ems pica Duplex Keyboard
Two side-by-side keyboards with two perforators. They could be switched together or worked separately. Used where either a duplicate perforated tape was needed of a single text; or where two texts had to be created separately (if, for example, work was in two colours)
Specifications
Weight 486lb Working Area 8′ x 6′ Air Pressure 15 lbs/sq. in Air Consumption 1.15 cu. ft/min for each paper tower Accessories
Monotype supplied all manner of other kit to help with some of the specialised branches of composition. They included –
- Combined Spacing: an attachment to cast spaces differently. This might include casting the space with the type itself, which allowed very tight spacing and a saving of paper tape and casting time
- Copy Light: to illuminate the copy with either a bulb or a strip light
- Dummy Keyboard: for trainees to ‘feel’ the keyboard and layout without having to use the real thing
- Copyholders: four different types of attachment to hold the copy to be keyboarded
- Tabulating: to help with setting tabulated matter (like tables or timetables)
Maintenance
The keyboard should be cleaned each week, but the daily routine recommended that –
- Open the pet cock at the back of the air chamber for a few minutes
- Blow off any loose punchings with a blast of air
- Wipe dust from the keyboard
- Check screws and nuts for tightness
- Test the alignment of perforations

