What kind of tasks do people use word processor for

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Word processors are used to author messages or other forms of
printable/viewable information. E-mails, doctoral theses, books,
poetry and every form of written communication is eligible to be
produced via a word processor, as opposed to old fashioned
typewriting, hand writing or type setting.

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WORD PROCESSING People use word processors - for writing all kinds of documents, such

WORD PROCESSING People use word processors — for writing all kinds of documents, such as letters, school papers and reports. Word processors many advantages over handwriting and manual typewriters. Word processing is faster and easier than writing by hand you can store documents on your computer; which you cannot usually do on a typewriter. This makes it easier is review and rewrite your documents; You have more formatting choices with word processor, and the spelling, grammar and language tools me useful, too. You can also print copies of your documents, which look neater than handwritten ones. Many language students use word processors to improve their writing skills and because they help them, feel proud of their work.

 Many people use a text editor for the Internet, which is similar to

Many people use a text editor for the Internet, which is similar to a word processor but has fewer formatting features and cannot use graphics: Text editors, such as Notepad, use a simple coding system called ASCII (American Standard Code for Information Interchange), as does e-mail. The most popular programs are designed to work with text — word processing and desktop publishing. The text editor is the program for input, processing, storing, and printing text information in user-friendly form. The word processor Microsoft Word is a Windows application that is included in the Microsoft Office suite.

Decide if the sentences are true (T) or false (F) You can store letters

Decide if the sentences are true (T) or false (F) You can store letters on a manual typewriter. T/F You can change your documents easily on a word processor. T/F Printed documents look better than handwriting. T/F Improving your writing is more difficult with a word processor. T/F Word processors work well with e-mail. T/F

 Under a title bar there is a line of the menu through which

Under a title bar there is a line of the menu through which it is possible to call any Microsoft Word command.

 Under line of the menu toolbars which consist of buttons with drawings. To

Under line of the menu toolbars which consist of buttons with drawings. To each button there corresponds command, and drawing on this button transfers value of team. It is also possible to add a necessary toolbar

Text formatting – process of establishment of parameters of a fragment of the text

Text formatting – process of establishment of parameters of a fragment of the text which define appearance of the text in this fragment. Before change of parameters the fragment of the text should be allocated.

 Headline – the text or drawing which is printed in the bottom of

Headline – the text or drawing which is printed in the bottom of or at the top of each page of the document. In a headline usually place numbers of pages, the name of the book or the current chapter. The text entered into a headline formatted as the usual text.

 Microsoft Word allows to insert into the document the graphic objects created both

Microsoft Word allows to insert into the document the graphic objects created both in other programs, and by means of own panel of drawing. Objects can be copied and inserted into any place of the document. It is possible to enter a formula, drawings, graphic objects, the chart, special symbols, the table into the document and many other

An insert the symbol For an insert in the text of the symbol which

An insert the symbol For an insert in the text of the symbol which is absent on the keyboard, it is necessary: to install the cursor in a position into which it is necessary to insert a symbol; in the Insert menu to choose the Symbol command; For input of a formula it is used Microsoft Equation. For input of graphic objects autofigures are used.

Unit 14 Word Processing Footer Word Processing 1 A Q1. What is word processor? We can type, edit, and print documents like letters, faxes, memos etc using a word processor program. Q2. What kind of tasks do people use word processor for? People use word processor for typing, editing and printing letters, faxes, memos etc. We can insert pictures, tables, drawings, forms etc. Q3. How many different word processing programs can you name? Which do you think is the most popular? Microsoft Word, Word Perfect, Open Office.org, Writer, Word, etc. Microsoft Word is the most popular program. 1 c 1. Toolbar, formatting 2. Typeface 3. Bold, Italic 4. Indent 5. Header, footer 3 b Right (5) Done that now (8) Next (6) Everything (9) Finally (7) First (1) Then (2) Like this (3) Now (4) 4 A Is that write? / Is that right? Yes. First / Yes. Finally OK. Now I / OK. Now you What last?/What next? As this?/Like this? Well, now choose /Well, first choose

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Word processing is the process of adding text to a word processing unit such as a computer or typewriter. The typed words are stored in the computer or word processor temporarily to allow for editing before a hard copy of the document. The term «word processing» is a fairly general term, so it may refer to several types of writing without the use of pen and paper. Typewriters, for example, process words directly onto a paper without storing the data, while computers use specific programs to store the typed data before printing.

Modified typewriters have been commonly used in the past for word processing. The typewriter would store the data — usually with the use of a computer chip — before printing the words onto a page. The person using the word processor could then check the writing for errors before printing the final draft. When computers became common in the workplace and at home, word processors became mostly obsolete, though some models are still used for a wide range of purposes, including as educational devices for students with special needs.

Typewriters create words directly on paper without storing any data.

Typewriters create words directly on paper without storing any data.

Computers have generally taken over word processing duties. The computers feature specific programs in which a person can type manuscripts of any length. The data is stored as an electronic document that can be opened, closed, saved, and edited at any time. This allows the user to make corrections or changes to a document multiple times before printing out a hard copy of the document. In many cases, the document is not printed out onto hard copy paper at all; instead, it can be used on the internet, in e-mails, or for other digital purposes.

Computers use specific word processing programs to store the typed data before printing.

Computers use specific word processing programs to store the typed data before printing.

Simpler programs, such as text editors or notepads, can be used to record text quickly without excess formatting options, such as multiple fonts or font sizes. Such programs are easy to use and do not come loaded with formatting features, such as color, multiple fonts, line spacing options, and so on. They are meant to be used for quick word processing that will not need to be formatted for presentation.

Word processing software often includes several features unavailable on typewriters or older word processors. Such features may include the ability to manipulate the layout of the text, the size and color of the font, the type of font used, line spacing, margin adjustments, and the ability to insert photos, web links, graphs, charts, and other objects directly into the document.

A
word processor (more formally known as document preparation system)
is a computer application used for the production (including
composition, editing, formatting, and possibly printing) of any sort
of printable material.

Word
processor may also refer to a type of stand-alone office machine,
popular in the 1970s and 1980s, combining the keyboard text-entry and
printing functions of an electric typewriter with a dedicated
processor (like a computer processor) for the editing of text.
Although features and design varied between manufacturers and models,
with new features added as technology advanced, word processors for
several years usually featured a monochrome display and the ability
to save documents on memory cards or diskettes. Later models
introduced innovations such as spell-checking programs, increased
formatting options, and dot-matrix printing. As the more versatile
combination of a personal computer and separate printer became
commonplace, most business-machine companies stopped manufacturing
the word processor as a stand-alone office machine. As of 2009 there
were only two U.S. companies, Classic and AlphaSmart, which still
made stand-alone word processors.[1] Many older machines, however,
remain in use.

Word
processors are descended from early text formatting tools (sometimes
called text justification tools, from their only real capability).
Word processing was one of the earliest applications for the personal
computer in office productivity.

Although
early word processors used tag-based markup for document formatting,
most modern word processors take advantage of a graphical user
interface providing some form of What You See Is What You Get
editing. Most are powerful systems consisting of one or more programs
that can produce any arbitrary combination of images, graphics and
text, the latter handled with type-setting capability.

Microsoft
Word is the most widely used word processing software. Microsoft
estimates that over 500,000,000 people use the Microsoft Office
suite,[2] which includes Word. Many other word processing
applications exist, including WordPerfect (which dominated the market
from the mid-1980s to early-1990s on computers running Microsoft’s
MS-DOS operating system) and open source applications OpenOffice.org
Writer, AbiWord, KWord, and LyX. Web-based word processors, such as
Google Docs, are a relatively new category.

Word processing

Characteristics

Word
processing typically implies the presence of text manipulation
functions that extend beyond a basic ability to enter and change
text, such as automatic generation of:

• batch
mailings using a form letter template and an address database (also
called mail merging);

• indices
of keywords and their page numbers;

• tables
of contents with section titles and their page numbers;

• tables
of figures with caption titles and their page numbers;

• cross-referencing
with section or page numbers;

• footnote
numbering;

• new
versions of a document using variables (e.g. model numbers, product
names, etc.)

Other
word processing functions include «spell checking»
(actually checks against wordlists), «grammar checking»
(checks for what seem to be simple grammar errors), and a «thesaurus»
function (finds words with similar or opposite meanings). Other
common features include collaborative editing, comments and
annotations, support for images and diagrams and internal
cross-referencing.

Word
processors can be distinguished from several other, related forms of
software:

Text
editors (modern examples of which include Notepad, BBEdit, Kate,
Gedit), were the precursors of word processors. While offering
facilities for composing and editing text, they do not format
documents. This can be done by batch document processing systems,
starting with TJ-2 and RUNOFF and still available in such systems as
LaTeX (as well as programs that implement the paged-media extensions
to HTML and CSS). Text editors are now used mainly by programmers,
website designers, computer system administrators, and, in the case
of LaTeX by mathematicians and scientists (for complex formulas and
for citations in rare languages). They are also useful when fast
startup times, small file sizes, editing speed and simplicity of
operation are preferred over formatting.

Later
desktop publishing programs were specifically designed to allow
elaborate layout for publication, but often offered only limited
support for editing. Typically, desktop publishing programs allowed
users to import text that was written using a text editor or word
processor.

Almost
all word processors enable users to employ styles, which are used to
automate consistent formatting of text body, titles, subtitles,
highlighted text, and so on.

Styles
greatly simplify managing the formatting of large documents, since
changing a style automatically changes all text that the style has
been applied to. Even in shorter documents styles can save a lot of
time while formatting. However, most help files refer to styles as an
‘advanced feature’ of the word processor, which often discourages
users from using styles regularly.

Document
statistics

Most
current word processors can calculate various statistics pertaining
to a document. These usually include:

• Character
count, word count, sentence count, line count, paragraph count, page
count.

• Word,
sentence and paragraph length.

• Editing
time.

Errors
are common; for instance, a dash surrounded by spaces — like either
of these — may be counted as a word.

Typical
usage

Word
processors have a variety of uses and applications within the
business world, home, and education.

Business

Within
the business world, word processors are extremely useful tools.
Typical uses include:

• legal
copies

• letters
and letterhead

• memos

• reference
documents

Businesses
tend to have their own format and style for any of these. Thus,
versatile word processors with layout editing and similar
capabilities find widespread use in most businesses.

Education

Many
schools have begun to teach typing and word processing to their
students, starting as early as elementary school. Typically these
skills are developed throughout secondary school in preparation for
the business world. Undergraduate students typically spend many hours
writing essays. Graduate and doctoral students continue this trend,
as well as creating works for research and publication.

Home

While
many homes have word processors on their computers, word processing
in the home tends to be educational, planning or business related,
dealing with assignments or work being completed at home, or
occasionally recreational, e.g. writing short stories. Some use word
processors for letter writing, résumé creation, and card creation.
However, many of these home publishing processes have been taken over
by desktop publishing programs specifically oriented toward home use.
which are better suited to these types of documents.

History

Toshiba
JW-10, the first word processor for the Japanese language (1971-1978
IEEE milestones)

Examples
of standalone word processor typefaces c. 1980-1981

Brother
WP-1400D editing electronic typewriter (1994)

The
term word processing was invented by IBM in the late 1960s. By 1971
it was recognized by the New York Times as a «buzz word».[3]
A 1974 Times article referred to «the brave new world of Word
Processing or W/P. That’s International Business Machines talk…
I.B.M. introduced W/P about five years ago for its Magnetic Tape
Selectric Typewriter and other electronic razzle-dazzle.»

IBM
defined the term in a broad and vague way as «the combination of
people, procedures, and equipment which transforms ideas into printed
communications,» and originally used it to include dictating
machines and ordinary, manually-operated Selectric typewriters. By
the early seventies, however, the term was generally understood to
mean semiautomated typewriters affording at least some form of
electronic editing and correction, and the ability to produce perfect
«originals.» Thus, the Times headlined a 1974 Xerox product
as a «speedier electronic typewriter», but went on to
describe the product, which had no screen, as «a word processor
rather than strictly a typewriter, in that it stores copy on magnetic
tape or magnetic cards for retyping, corrections, and subsequent
printout.»

Electromechanical
paper-tape-based equipment such as the Friden Flexowriter had long
been available; the Flexowriter allowed for operations such as
repetitive typing of form letters (with a pause for the operator to
manually type in the variable information)[8], and when equipped with
an auxiliary reader, could perform an early version of «mail
merge». Circa 1970 it began to be feasible to apply electronic
computers to office automation tasks. IBM’s Mag Tape Selectric
Typewriter (MTST) and later Mag Card Selectric (MCST) were early
devices of this kind, which allowed editing, simple revision, and
repetitive typing, with a one-line display for editing single lines.

The
New York Times, reporting on a 1971 business equipment trade show,
said

The
«buzz word» for this year’s show was «word
processing,» or the use of electronic equipment, such as
typewriters; procedures and trained personnel to maximize office
efficiency. At the IBM exhibition a girl [sic] typed on an electronic
typewriter. The copy was received on a magnetic tape cassette which
accepted corrections, deletions, and additions and then produced a
perfect letter for the boss’s signature….

In
1971, a third of all working women in the United States were
secretaries, and they could see that word processing would have an
impact on their careers. Some manufacturers, according to a Times
article, urged that «the concept of ‘word processing’ could be
the answer to Women’s Lib advocates’ prayers. Word processing will
replace the ‘traditional’ secretary and give women new administrative
roles in business and industry.»

The
1970s word processing concept did not refer merely to equipment, but,
explicitly, to the use of equipment for «breaking down
secretarial labor into distinct components, with some staff members
handling typing exclusively while others supply administrative
support. A typical operation would leave most executives without
private secretaries. Instead one secretary would perform various
administrative tasks for three or more secretaries.» A 1971
article said that «Some [secretaries] see W/P as a career ladder
into management; others see it as a dead-end into the automated
ghetto; others predict it will lead straight to the picket line.»
The National Secretaries Association, which defined secretaries as
people who «can assume responsibility without direct
supervision,» feared that W/P would transform secretaries into
«space-age typing pools.» The article considered only the
organizational changes resulting from secretaries operating word
processors rather than typewriters; the possibility that word
processors might result in managers creating documents without the
intervention of secretaries was not considered—not surprising in an
era when few but secretaries possessed keyboarding skills.

In
the early 1970s, computer scientist Harold Koplow was hired by Wang
Laboratories to program calculators. One of his programs permitted a
Wang calculator to interface with an IBM Selectric typewriter, which
was at the time used to calculate and print the paperwork for auto
sales.

In
1974, Koplow’s interface program was developed into the Wang 1200
Word Processor, an IBM Selectric-based text-storage device. The
operator of this machine typed text on a conventional IBM Selectric;
when the Return key was pressed, the line of text was stored on a
cassette tape. One cassette held roughly 20 pages of text, and could
be «played back» (i.e., the text retrieved) by printing the
contents on continuous-form paper in the 1200 typewriter’s «print»
mode. The stored text could also be edited, using keys on a simple,
six-key array. Basic editing functions included Insert, Delete, Skip
(character, line), and so on.

The
labor and cost savings of this device were immediate, and remarkable:
pages of text no longer had to be retyped to correct simple errors,
and projects could be worked on, stored, and then retrieved for use
later on. The rudimentary Wang 1200 machine was the precursor of the
Wang Office Information System (OIS), introduced in 1976, whose
CRT-based system was a major breakthrough in word processing
technology. It displayed text on a CRT screen, and incorporated
virtually every fundamental characteristic of word processors as we
know them today. It was a true office machine, affordable by
organizations such as medium-sized law firms, and easily learned and
operated by secretarial staff.

The
Wang was not the first CRT-based machine nor were all of its
innovations unique to Wang. In the early 1970s Linolex, Lexitron and
Vydec introduced pioneering word-processing systems with CRT display
editing. A Canadian electronics company, Automatic Electronic
Systems, had introduced a product with similarities to Wang’s product
in 1973, but went into bankruptcy a year later. In 1976, refinanced
by the Canada Development Corporation, it returned to operation as
AES Data, and went on to successfully market its brand of word
processors worldwide until its demise in the mid-1980s. Its first
office product, the AES-90, combined for the first time a CRT-screen,
a floppy-disk and a microprocessor,[citation needed] that is, the
very same winning combination that would be used by IBM for its PC
seven years later. The AES-90 software was able to handle French and
English typing from the start, displaying and printing the texts
side-by-side, a Canadian government requirement. The first eight
units were delivered to the office of the then Prime Minister, Pierre
Elliot Trudeau, in February 1974. Despite these predecessors, Wang’s
product was a standout, and by 1978 it had sold more of these systems
than any other vendor.

In
the early 1980’s, AES Data Inc. introduced a networked word processor
system, called MULTIPLUS, offering multi-tasking and up to 8
workstations all sharing the resources of a centralized computer
system, a precursor to today’s networks. It followed with the
introduction of SuperPlus and SuperPlus IV systems which also offered
the CP/M operating system answering client needs. AES Data word
processors were placed side-by-side with CP/M software, like
Wordstar, to highlight ease of use.

The
phrase «word processor» rapidly came to refer to CRT-based
machines similar to Wang’s. Numerous machines of this kind emerged,
typically marketed by traditional office-equipment companies such as
IBM, Lanier (marketing AES Data machines, re-badged), CPT, and
NBI.[13] All were specialized, dedicated, proprietary systems, with
prices in the $10,000 ballpark. Cheap general-purpose computers were
still the domain of hobbyists.

Some
of the earliest CRT-based machines used cassette tapes for
removable-memory storage until floppy diskettes became available for
this purpose — first the 8-inch floppy, then the 5-1/4-inch (drives
by Shugart Associates and diskettes by Dysan).

Printing
of documents was initially accomplished using IBM Selectric
typewriters modified for ASCII-character input. These were later
replaced by application-specific daisy wheel printers (Diablo, which
became a Xerox company, and Qume — both now defunct.) For quicker
«draft» printing, dot-matrix line printers were optional
alternatives with some word processors.

With
the rise of personal computers, and in particular the IBM PC and PC
compatibles, software-based word processors running on
general-purpose commodity hardware gradually displaced dedicated word
processors, and the term came to refer to software rather than
hardware. Some programs were modeled after particular dedicated WP
hardware. MultiMate, for example, was written for an insurance
company that had hundreds of typists using Wang systems, and spread
from there to other Wang customers. To adapt to the smaller PC
keyboard, MultiMate used stick-on labels and a large plastic clip-on
template to remind users of its dozens of Wang-like functions, using
the shift, alt and ctrl keys with the 10 IBM function keys and many
of the alphabet keys.

Other
early word-processing software required users to memorize
semi-mnemonic key combinations rather than pressing keys labelled
«copy» or «bold.» (In fact, many early PCs lacked
cursor keys; WordStar famously used the E-S-D-X-centered «diamond»
for cursor navigation, and modern vi-like editors encourage use of
hjkl for navigation.) However, the price differences between
dedicated word processors and general-purpose PCs, and the value
added to the latter by software such as VisiCalc, were so compelling
that personal computers and word processing software soon became
serious competition for the dedicated machines. Word Perfect,
XyWrite, Microsoft Word, Wordstar, Workwriter and dozens of other
word processing software brands competed in the 1980s. Development of
higher-resolution monitors allowed them to provide limited WYSIWYG —
What You See Is What You Get, to the extent that typographical
features like bold and italics, indentation, justification and
margins were approximated on screen.

The
mid-to-late 1980s saw the spread of laser printers, a «typographic»
approach to word processing, and of true WYSIWYG bitmap displays with
multiple fonts (pioneered by the Xerox Alto computer and Bravo word
processing program), PostScript, and graphical user interfaces
(another Xerox PARC innovation, with the Gypsy word processor which
was commercialised in the Xerox Star product range). Standalone word
processors adapted by getting smaller and replacing their CRTs with
small character-oriented LCD displays. Some models also had
computer-like features such as floppy disk drives and the ability to
output to an external printer. They also got a name change, now being
called «electronic typewriters» and typically occupying a
lower end of the market, selling for under $200 USD.

MacWrite,
Microsoft Word and other word processing programs for the bit-mapped
Apple Macintosh screen, introduced in 1984, were probably the first
true WYSIWYG word processors to become known to many people until the
introduction of Microsoft Windows. Dedicated
word processors eventually became museum pieces.

http://en.wikipedia.org/wiki/Word_processor

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From Wikipedia, the free encyclopedia

A word processor program is a computer program that provides word processing functions. Originally a separate type of application to desktop publishing, the two program types now overlap, with many word processors now including what were once desktop publishing functions.

History[edit]

The first known electronic word processor program was Electric Pencil, released in 1976, as a tool for programmers to write documentation and manuals for their code. Electric pencil featured basic formatting and navigation, and supported external devices such as cassette recorders and printers. Electric Pencil II was released shortly after, targeting the CP/M operating system. Several other word processing programs were released shortly after, including EasyWriter and WordStar.[1]

A screenshot of WordStar 3.0 in use

WordStar was created in four months by Seymour Rubinstein after founding MicroPro International in 1978. WordStar is commonly attributed as the first WYSIWYG (what you see is what you get) editor, as the WordStar editor replicated the printed output. Inspired by the success of WordStar, many competitors began to release their offerings, including WordPerfect in 1979, MultiMate in 1982, and Microsoft Word in 1983.[1][2]

List of word processors[edit]

Notable programs include:

  • Electric Pencil (1976)
  • WordStar (1978)
  • WordPerfect (1979)
  • EasyWriter (1979)
  • IBM DisplayWrite (1981)
  • MultiMate (1982)
  • Volkswriter (1982)
  • Microsoft Word (1983)
  • Lotus Manuscript (1986)
  • TextMaker (1987)
  • Sprint (word processor) (1987)
  • IBM Lotus Word Pro (1988)
  • InPage (1994)
  • WordPad (1995)
  • TextEdit (1996)
  • Ability Write (1996)
  • KWord (1998)
  • AbiWord (1998)
  • Adobe InCopy (1999)
  • Atlantis Word Processor (2000)
  • Jarte (2001)
  • Pages (2005)
  • JWPce (2005)
  • Google Docs (2006)
  • Scrivener (software) (2007)
  • WordGrinder (2007)
  • PolyEdit (2010)
  • LibreOffice Writer (2011)
  • Apache OpenOffice Writer (2012)
  • Calligra Words (2012)

A word processing function is an essential part of any office suite, and may be provided as a stand-alone program (for example Word in Microsoft Office) or as a function of a more general program (for example LibreOffice Writer in LibreOffice) or other (for example
TextMaker in SoftMaker). With the emergence of the internet, different cloud-based word processor programs began to emerge, which allow people to work faster and more efficiently.

See also[edit]

  • Word processor
  • Word processor (electronic device)

References[edit]

  1. ^ a b Bergin, Thomas J. (October 2006). «The Origins of Word Processing Software for Personal Computers: 1976-1985». IEEE Annals of the History of Computing. 28 (4): 32–47. doi:10.1109/MAHC.2006.76. ISSN 1934-1547. S2CID 18895790. Retrieved 29 June 2022.
  2. ^ Bergin, Thomas J. (October 2006). «The Proliferation and Consolidation of Word Processing Software: 1985-1995». IEEE Annals of the History of Computing. 28 (4): 48–63. doi:10.1109/MAHC.2006.77. ISSN 1934-1547. S2CID 20785663. Retrieved 29 June 2022.

External links[edit]

A word processor (WP)[1][2] is a device or computer program that provides for input, editing, formatting, and output of text, often with some additional features.

WordPerfect, a word processor first released for minicomputers in 1979 and later ported to microcomputers, running on Windows XP

Early word processors were stand-alone devices dedicated to the function, but current word processors are word processor programs running on general purpose computers.

The functions of a word processor program fall somewhere between those of a simple text editor and a fully functioned desktop publishing program. However, the distinctions between these three have changed over time and were unclear after 2010.[3][4]

BackgroundEdit

Word processors did not develop out of computer technology. Rather, they evolved from mechanical machines and only later did they merge with the computer field.[5] The history of word processing is the story of the gradual automation of the physical aspects of writing and editing, and then to the refinement of the technology to make it available to corporations and Individuals.

The term word processing appeared in American offices in early 1970s centered on the idea of streamlining the work to typists, but the meaning soon shifted toward the automation of the whole editing cycle.

At first, the designers of word processing systems combined existing technologies with emerging ones to develop stand-alone equipment, creating a new business distinct from the emerging world of the personal computer. The concept of word processing arose from the more general data processing, which since the 1950s had been the application of computers to business administration.[6]

Through history, there have been three types of word processors: mechanical, electronic and software.

Mechanical word processingEdit

The first word processing device (a «Machine for Transcribing Letters» that appears to have been similar to a typewriter) was patented by Henry Mill for a machine that was capable of «writing so clearly and accurately you could not distinguish it from a printing press».[7] More than a century later, another patent appeared in the name of William Austin Burt for the typographer. In the late 19th century, Christopher Latham Sholes[8] created the first recognizable typewriter although it was a large size, which was described as a «literary piano».[9]

The only «word processing» these mechanical systems could perform was to change where letters appeared on the page, to fill in spaces that were previously left on the page, or to skip over lines. It was not until decades later that the introduction of electricity and electronics into typewriters began to help the writer with the mechanical part. The term “word processing” (translated from the German word Textverarbeitung) itself was created in the 1950s by Ulrich Steinhilper, a German IBM typewriter sales executive. However, it did not make its appearance in 1960s office management or computing literature (an example of grey literature), though many of the ideas, products, and technologies to which it would later be applied were already well known. Nonetheless, by 1971 the term was recognized by the New York Times[10] as a business «buzz word». Word processing paralleled the more general «data processing», or the application of computers to business administration.

Thus by 1972 discussion of word processing was common in publications devoted to business office management and technology, and by the mid-1970s the term would have been familiar to any office manager who consulted business periodicals.

Electromechanical and electronic word processingEdit

By the late 1960s, IBM had developed the IBM MT/ST (Magnetic Tape/Selectric Typewriter). This was a model of the IBM Selectric typewriter from the earlier part of this decade, but it came built into its own desk, integrated with magnetic tape recording and playback facilities along with controls and a bank of electrical relays. The MT/ST automated word wrap, but it had no screen. This device allowed a user to rewrite text that had been written on another tape, and it also allowed limited collaboration in the sense that a user could send the tape to another person to let them edit the document or make a copy. It was a revolution for the word processing industry. In 1969, the tapes were replaced by magnetic cards. These memory cards were inserted into an extra device that accompanied the MT/ST, able to read and record users’ work.

In the early 1970s, word processing began to slowly shift from glorified typewriters augmented with electronic features to become fully computer-based (although only with single-purpose hardware) with the development of several innovations. Just before the arrival of the personal computer (PC), IBM developed the floppy disk. In the early 1970s, the first word-processing systems appeared which allowed display and editing of documents on CRT screens.

During this era, these early stand-alone word processing systems were designed, built, and marketed by several pioneering companies. Linolex Systems was founded in 1970 by James Lincoln and Robert Oleksiak. Linolex based its technology on microprocessors, floppy drives and software. It was a computer-based system for application in the word processing businesses and it sold systems through its own sales force. With a base of installed systems in over 500 sites, Linolex Systems sold 3 million units in 1975 — a year before the Apple computer was released.[11]

At that time, the Lexitron Corporation also produced a series of dedicated word-processing microcomputers. Lexitron was the first to use a full-sized video display screen (CRT) in its models by 1978. Lexitron also used 514 inch floppy diskettes, which became the standard in the personal computer field. The program disk was inserted in one drive, and the system booted up. The data diskette was then put in the second drive. The operating system and the word processing program were combined in one file.[12]

Another of the early word processing adopters was Vydec, which created in 1973 the first modern text processor, the «Vydec Word Processing System». It had built-in multiple functions like the ability to share content by diskette and print it.[further explanation needed] The Vydec Word Processing System sold for $12,000 at the time, (about $60,000 adjusted for inflation).[13]

The Redactron Corporation (organized by Evelyn Berezin in 1969) designed and manufactured editing systems, including correcting/editing typewriters, cassette and card units, and eventually a word processor called the Data Secretary. The Burroughs Corporation acquired Redactron in 1976.[14]

A CRT-based system by Wang Laboratories became one of the most popular systems of the 1970s and early 1980s. The Wang system displayed text on a CRT screen, and incorporated virtually every fundamental characteristic of word processors as they are known today. While early computerized word processor system were often expensive and hard to use (that is, like the computer mainframes of the 1960s), the Wang system was a true office machine, affordable to organizations such as medium-sized law firms, and easily mastered and operated by secretarial staff.

The phrase «word processor» rapidly came to refer to CRT-based machines similar to Wang’s. Numerous machines of this kind emerged, typically marketed by traditional office-equipment companies such as IBM, Lanier (AES Data machines — re-badged), CPT, and NBI. All were specialized, dedicated, proprietary systems, with prices in the $10,000 range. Cheap general-purpose personal computers were still the domain of hobbyists.

Japanese word processor devicesEdit

In Japan, even though typewriters with Japanese writing system had widely been used for businesses and governments, they were limited to specialists who required special skills due to the wide variety of letters, until computer-based devices came onto the market. In 1977, Sharp showcased a prototype of a computer-based word processing dedicated device with Japanese writing system in Business Show in Tokyo.[15][16]

Toshiba released the first Japanese word processor JW-10 in February 1979.[17] The price was 6,300,000 JPY, equivalent to US$45,000. This is selected as one of the milestones of IEEE.[18]

Toshiba Rupo JW-P22(K)(March 1986) and an optional micro floppy disk drive unit JW-F201

The Japanese writing system uses a large number of kanji (logographic Chinese characters) which require 2 bytes to store, so having one key per each symbol is infeasible. Japanese word processing became possible with the development of the Japanese input method (a sequence of keypresses, with visual feedback, which selects a character) — now widely used in personal computers. Oki launched OKI WORD EDITOR-200 in March 1979 with this kana-based keyboard input system. In 1980 several electronics and office equipment brands entered this rapidly growing market with more compact and affordable devices. While the average unit price in 1980 was 2,000,000 JPY (US$14,300), it was dropped to 164,000 JPY (US$1,200) in 1985.[19] Even after personal computers became widely available, Japanese word processors remained popular as they tended to be more portable (an «office computer» was initially too large to carry around), and become necessities in business and academics, even for private individuals in the second half of the 1980s.[20] The phrase «word processor» has been abbreviated as «Wa-pro» or «wapuro» in Japanese.

Word processing softwareEdit

The final step in word processing came with the advent of the personal computer in the late 1970s and 1980s and with the subsequent creation of word processing software. Word processing software that would create much more complex and capable output was developed and prices began to fall, making them more accessible to the public. By the late 1970s, computerized word processors were still primarily used by employees composing documents for large and midsized businesses (e.g., law firms and newspapers). Within a few years, the falling prices of PCs made word processing available for the first time to all writers in the convenience of their homes.

The first word processing program for personal computers (microcomputers) was Electric Pencil, from Michael Shrayer Software, which went on sale in December 1976. In 1978 WordStar appeared and because of its many new features soon dominated the market. However, WordStar was written for the early CP/M (Control Program–Micro) operating system, and by the time it was rewritten for the newer MS-DOS (Microsoft Disk Operating System), it was obsolete. Suddenly, WordPerfect dominated the word processing programs during the DOS era, while there was a large variety of less successful programs.

Early word processing software was not as intuitive as word processor devices. Most early word processing software required users to memorize semi-mnemonic key combinations rather than pressing keys such as «copy» or «bold». Moreover, CP/M lacked cursor keys; for example WordStar used the E-S-D-X-centered «diamond» for cursor navigation. However, the price differences between dedicated word processors and general-purpose PCs, and the value added to the latter by software such as “killer app” spreadsheet applications, e.g. VisiCalc and Lotus 1-2-3, were so compelling that personal computers and word processing software became serious competition for the dedicated machines and soon dominated the market.

Then in the late 1980s innovations such as the advent of laser printers, a «typographic» approach to word processing (WYSIWYG — What You See Is What You Get), using bitmap displays with multiple fonts (pioneered by the Xerox Alto computer and Bravo word processing program), and graphical user interfaces such as “copy and paste” (another Xerox PARC innovation, with the Gypsy word processor). These were popularized by MacWrite on the Apple Macintosh in 1983, and Microsoft Word on the IBM PC in 1984. These were probably the first true WYSIWYG word processors to become known to many people.
Of particular interest also is the standardization of TrueType fonts used in both Macintosh and Windows PCs. While the publishers of the operating systems provide TrueType typefaces, they are largely gathered from traditional typefaces converted by smaller font publishing houses to replicate standard fonts. Demand for new and interesting fonts, which can be found free of copyright restrictions, or commissioned from font designers, occurred.

The growing popularity of the Windows operating system in the 1990s later took Microsoft Word along with it. Originally called «Microsoft Multi-Tool Word», this program quickly became a synonym for “word processor”.

From early in the 21st century Google Docs popularized the transition to online or offline web browser based word processing, this was enabled by the widespread adoption of suitable internet connectivity in businesses and domestic households and later the popularity of smartphones. Google Docs enabled word processing from within any vendor’s web browser, which could run on any vendor’s operating system on any physical device type including tablets and smartphones, although offline editing is limited to a few Chromium based web browsers. Google Docs also enabled the significant growth of use of information technology such as remote access to files and collaborative real-time editing, both becoming simple to do with little or no need for costly software and specialist IT support.

See alsoEdit

  • List of word processors
  • Formatted text

ReferencesEdit

  1. ^ Enterprise, I. D. G. (1 January 1981). «Computerworld». IDG Enterprise. Archived from the original on 2 January 2019. Retrieved 1 January 2019 – via Google Books.
  2. ^ Waterhouse, Shirley A. (1 January 1979). Word processing fundamentals. Canfield Press. ISBN 9780064537223. Archived from the original on 2 January 2019. Retrieved 1 January 2019 – via Google Books.
  3. ^ Amanda Presley (28 January 2010). «What Distinguishes Desktop Publishing From Word Processing?». Brighthub.com. Archived from the original on 1 April 2019. Retrieved 1 January 2019.
  4. ^ «How to Use Microsoft Word as a Desktop Publishing Tool». PCWorld. 28 May 2012. Archived from the original on 19 August 2017. Retrieved 3 May 2018.
  5. ^ Price, Jonathan, and Urban, Linda Pin. The Definitive Word-Processing Book. New York: Viking Penguin Inc., 1984, page xxiii.
  6. ^ W.A. Kleinschrod, «The ‘Gal Friday’ is a Typing Specialist Now,» Administrative Management vol. 32, no. 6, 1971, pp. 20-27
  7. ^ Hinojosa, Santiago (June 2016). «The History of Word Processors». The Tech Ninja’s Dojo. The Tech Ninja. Archived from the original on 6 May 2018. Retrieved 6 May 2018.
  8. ^ See also Samuel W. Soule and Carlos Glidden.
  9. ^ The Scientific American, The Type Writer, New York (August 10, 1872)
  10. ^ W.D. Smith, “Lag Persists for Business Equipment,” New York Times, 26 Oct. 1971, pp. 59-60.
  11. ^ Linolex Systems, Internal Communications & Disclosure in 3M acquisition, The Petritz Collection, 1975.
  12. ^ «Lexitron VT1200 — RICM». Ricomputermuseum.org. Archived from the original on 3 January 2019. Retrieved 1 January 2019.
  13. ^ Hinojosa, Santiago (1 June 2016). «The History of Word Processors». The Tech Ninja’s Dojo. Archived from the original on 24 December 2018. Retrieved 1 January 2019.
  14. ^ «Redactron Corporation. @ SNAC». Snaccooperative.org. Archived from the original on 15 December 2018. Retrieved 1 January 2019.
  15. ^ «日本語ワードプロセッサ». IPSJコンピュータ博物館. Retrieved 2017-07-05.
  16. ^ «【シャープ】 日本語ワープロの試作機». IPSJコンピュータ博物館. Retrieved 2017-07-05.
  17. ^ 原忠正 (1997). «日本人による日本人のためのワープロ». The Journal of the Institute of Electrical Engineers of Japan. 117 (3): 175–178. Bibcode:1997JIEEJ.117..175.. doi:10.1541/ieejjournal.117.175.
  18. ^ «プレスリリース;当社の日本語ワードプロセッサが「IEEEマイルストーン」に認定». 東芝. 2008-11-04. Retrieved 2017-07-05.
  19. ^
    «【富士通】 OASYS 100G». IPSJコンピュータ博物館. Retrieved 2017-07-05.
  20. ^ 情報処理学会 歴史特別委員会『日本のコンピュータ史』ISBN 4274209334 p135-136

3.1. Read the text

The Case for and against Word Processing

Word processing did not develop out of computer technology. It evolved from the needs of writers rather than those of mathematicians, only later merging with the computer field. The history of word processing is the story of the gradual automation of the physical aspects of writing and editing, and the refinement of the technology to make it available to individual and corporate users.

People use word processors for writing all kinds of documents, such as letters, school papers and reports. Word processors have many advantages over handwriting and manual typewriters. Word processing is faster and easier than writing by hand and you can store documents on your com-puter, which you cannot usually do on a typewriter. This makes it easier to review and rewrite your documents. You have more formatting choices with a word processor, and the spelling, grammar and language tools are useful, too. You can also print copies of your documents, which look neater than handwritten ones. Many language students use word processors to improve their writing skills and because they help them feel proud of their work.

Word processors do have disadvantages, however. First, it is not easy to read long documents on a computer screen. Second, sometimes the printer does not print an exact copy of what you see on the screen. Not all word processors can read each other’s files, which is another disadvantage. Finally, word processors do not always work well with e-mails. If you paste a word-processed letter into an e-mail it may lose a lot of its formatting. Many people use a text editor for the Internet, which is similar to a word processor but has fewer formatting features and can-not use graphics. Text editors, such as Notepad, use a simple coding system called ASCII (American Standard Code for Information Interchange), as does e-mail.

Word Processing

Andrew Prestage, in Encyclopedia of Information Systems, 2003

V. Types of Word Processors

Word processors are either character based or contain a GUI. Character-based word processors do not display documents exactly as they will appear on the printed page. Some character-based word processors, however, include a “preview” capability, allowing the user to preview documents as they will appear on the printed page. This useful feature allows the user to verify that the appearance of the document matches the desired expectations.

The arrival of popular GUIs such as the Macintosh and Windows operating systems led to a change in the way word processors handled fonts. Word processors offering a GUI allow the user to see the document on the computer’s display screen exactly as it will appear after it is printed. In other words, with a GUI word processor what you see is what you get (known as the acronym WYSIWYG).

Word processor types range from simple text editors to full-featured applications. As the name implies, a simple text editor contains very limited capabilities such as the ability to enter, store for later retrieval, modify, and print text. In addition to these basic capabilities, a full-featured word processor permits users to use sophisticated text enhancement tools, check spelling and grammar, incorporate drawing tools, and perform sorting and mail merge operations. The following subsections explore examples of each of these types of word processors.

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End-User Computing Tools

Jose Stigliano, Marco Bruni, in Encyclopedia of Information Systems, 2003

III.A. Word Processors

Word processors are tools specifically designed to process textual information, that is, information consisting primarily of words in arbitrary arrangements called documents. Word processors typically read input entered by the user through the keyboard, process the text according to the commands given by the user, and create a file containing the user’s application such as a letter, office memo, or report. Word processors support the task of writing, letting end users create, edit, store, search, and retrieve documents containing formatted text and graphics. This text, which has been produced with a word processor, provides an example of the formatting capabilities of the tool.

A variety of tasks can be automated using standard built-in functions: replacing a string of text throughout the document, generating a table of contents, or merging the text of a letter with a list of addressees for mailing purposes. These functions perform the relevant task in response to commands issued by the user. However, for tasks that need to be repeated often, issuing a command each time can be too time consuming; macros help automate the execution of repetitive tasks.

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Positive Technology, Computing, and Design: Shaping a Future in Which Technology Promotes Psychological Well-Being

Andrea Gaggioli, … Rafael A. Calvo, in Emotions and Affect in Human Factors and Human-Computer Interaction, 2017

Active Integration

Currently, consumers buy particular word processors and email systems, not because they will support any aspect of their well-being, but because these systems help achieve their goals, complete their tasks and work.

Calvo and Peters (2014) have argued that consumers will seek future technologies that support health and well-being. This is likely to occur in the same way they currently seek healthy foods not just for sustenance or even pleasure, but as a way to live healthy and meaningful lives.

Well-being can be actively integrated into technology by designing to actively support components of well-being in an application that has a different overall goal. We need techniques that allow designers to assess the impact that different choices have on the determinant factors of well-being. A number of fields within computing can contribute to measuring this impact. For example, affective computing, the discipline that studies how computers can detect and process human emotions is increasingly part of design considerations in health and education (Riva et al., 2015a). Currently, most approaches to measure psychological well-being require interrupting users to ask about their state of mind. These interruptions are needed for the sake of measuring but themselves can be disengaging and obtrusive. Affective computing techniques can be used to reduce the amount of questioning and self-reporting by automating some of the emotion detection. Furthermore, being able to detect emotions will allow computer interfaces to better adapt to users’ states of mind and better engage, since emotional states are a most important aspect of psychological well-being.

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Four Easy Data Hiding Exercises

Michael Raggo, Chet Hosmer, in Data Hiding, 2013

Hiding Data in Microsoft Word

Microsoft Word remains the predominant word processor standard. In fact, many people using a Mac also use Microsoft Word as their word processor. Therefore it serves us well to begin our exploration by investigating the many ways in which data can be hidden within your standard Microsoft Word document.

Microsoft Word, Excel, and PowerPoint 2007 and 2010 provide a variety of ways to hide data within the document. These include comments, personal information, watermarks, invisible content, hidden content, and custom XML data. Using the Hidden Text font options provides an easy yet amazingly effective way to hide data. First, type a standard document, and additionally input the data you’d like to hide (see Figure 2.1).

Figure 2.1. Inputting Data into a Microsoft Word Document to be Hidden

Then highlight the content you’d like to hide, and right-click and choose Font. You will notice in newer version of Microsoft Word a new checkbox labeled “Hidden.” By selecting Hidden and then Save, you will notice that the highlighted text will be hidden from normal viewing (see Figures 2.2 and 2.3).

Figure 2.2. Using the Hidden Option in Microsoft Word

Figure 2.3. Microsoft Word Document after Hiding the Second Sentence

By default, hidden text is also not printed when printing the document. In order for an average user to know if there is hidden text they would need to go to File, Options, and select Display. Selecting the “Hidden Text” checkbox will enable formatting marks to alert a user to hidden text, and “Print Hidden Text” to determine if there is any hidden text (see Figure 2.4).

Figure 2.4. Microsoft Word Display Options for Identifying Hidden Text

Another way to identify hidden text is to use the Inspect Document option in File => Info => Check for Issues => Inspect Document. The Inspect Document is actually a great way to identify a variety of metadata hidden within the document such as authors, comments, and possibly other personal identifiable information (PII). In addition it can be used to identify hidden text (see Figure 2.5).

Figure 2.5. Using Document Inspector to Find Hidden Text and Other Metadata

Select Inspect to have the Document Inspector identify the metadata and create a report of results. In this example, the Document Inspector correctly identifies the Hidden Text and allows the user to remove it if they desire. The interesting thing here is that most people never check for the existence of Hidden Text and therefore have no idea it’s there (see Figure 2.6).

Figure 2.6. Document Inspector Identified Hidden Text in the Document

It is important to note that the only Hidden Text identified is text hidden using the Font dialog box. For example, if text is hidden from viewing using the white text on the white background, the Document Inspector will not identify this hidden text.

The ability to hide data in the document is practical if you want to print two versions of the same document, one with the hidden data and one without. This is common for PowerPoint presentations when an individual may print the slides for the audience and print the slides with notes for the presenter.

There are a variety of other things that can be hidden within Microsoft Word 2010 Properties section, including tags, author’s name, comment, etc. (see Figure 2.7).

Figure 2.7. Microsoft Word Properties and Metadata

In addition, the Properties drop-down allows access to the Advanced Properties where customs fields may be added as well (see Figure 2.8).

Figure 2.8. Custom Tab in Microsoft Word Advanced Properties

It’s important to note that these are not displayed in the main Properties view, and therefore must be viewed by manually opening the Custom Tab in the Advanced Properties window.

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UX Design Guidelines

Rex Hartson, Partha S. Pyla, in The UX Book, 2012

22.8.3 Automation Issues

Automation, in the sense we are using the term here, means moving functions and control from the user to the internal system functionality. This can result in not letting users do something the designers think they should not do or something that the designers did not think about at all. In many such cases, however, users will encounter exceptions where they really need to do it.

As an analogy, think of a word processor that will not let you save a document if it has anything marked as a spelling or grammatical error. The rationale is easy: “The user will not want to save a document that contains errors. They will want to get it right before they save it away.” You know the story, and cases almost always arise in which such a rationale proves to be wrong. Because automation and user control can be tricky, we phrase the next guideline about this kind of automation guardedly.

Avoid loss of user control from too much automation

The following examples show very small-scale cases of automation, taking control from the user. Small though they may be, they can still be frustrating to users who encounter them.

Example: Does the IRS know about this?

The problem in this example no longer exists in Windows Explorer, but an early version of Windows Explorer would not let you name a new folder with all uppercase letters. In particular, suppose you needed a folder for tax documents and tried to name it “IRS.” With that version of Windows, after you pressed Enter, the name would be changed to “Irs.”

So, in slight confusion, you try again but no deal. This had to be a deliberate “feature,” probably made by a software person to protect users from what appeared to be a typographic error, but that ended up being a high-handed grasping of user control.

Example: The John Hancock problem

Figure 22-62 shows part of a letter being composed in an early version of Microsoft Word and exhibiting another example of automation that takes away user control.

Figure 22-62. The H. John Hancock problem.

Let us just say that a user named H. John Hancock was observed typing a business letter, intending to sign it at the end as:

H. John Hancock

Sr. Vice President

Instead he got:

H. John Hancock

I.

Mr. Hancock was confused about the “I” so he backed up and typed the name again but, when he pressed Enter again, he got the same result. At first he did not know what was happening, why the “I” appeared, or how to finish the letter without getting the “I” there. At least for a few moments, the task was blocked and Mr. Hancock was frustrated.

Being a somewhat experienced user of Word, his composition of text going back to some famous early American documents, he eventually determined that the cause of the problem was that the Automatic Numbered List option was turned on as a kind of mode. At least for this occasion and this user, the Automatic numbered list option imposed too much automation and not enough user control.

That the user had difficulty understanding what was happening is due to the fact that, for this user, there was no indication of the Automatic numbered list mode. In fact, however, the system did provide quite a helpful feedback message in response to the automated action it had taken, via the “status” message of Figure 22-63, displayed at the top of the window.

Figure 22-63. If only Mr. Hancock had seen this

(screen image courtesy of Tobias Frans-Jan Theebe).

However, Mr. Hancock did not notice this feedback message because it violated the assessment guideline to “Locate feedback within the user’s focus of attention, perhaps in a pop-up dialogue box but not in a message or status line at the top or bottom of the screen.”

Help the user by automating where there is an obvious need

This section is about automation issues, but not all about avoiding automation. In some cases, automation can be helpful. The following example is about one such case.

Example: Sorry, off route; you lose!

No matter how good your GPS system is, as a human driver you can still make mistakes and drive off course, deviating from the route planned by the system. The Garmin GPS units are very good at helping the driver recover and get back on route. It recalculates the route from the current position immediately and automatically, without missing a beat. Recovery is so smooth and easy that it hardly seems like an error.

Before this kind of GPS, in the early days of GPS map systems for travel navigation, there was another system developed by Microsoft, called Streets and Trips. It used a GPS receiver antenna plugged into a USB port in a laptop. The unit had one extremely bad trait. When the driver got off track, the screen displayed the error message, Off Route! in a large bright red font.

Somehow you just had to know that you had to press one of the F, or function, keys to request recalculation of the route in order to recover. When you are busy contending with traffic and road signs, that is the time you would gladly have the system take control and share more of the responsibility, but you did not get that help. To be fair, this option probably was available in one of the preference settings or other menu choices, but the default behavior was not very usable and this option was not discovered very easily.

Designers of the Microsoft system may have decided to follow the design guideline to “keep the locus of control with the user.” While user control is often the best thing, there are times when it is critical for the system to take charge and do what is needed. The work context of this UX problem includes:

The user is busy with other tasks that cannot be automated.

It is dangerous to distract the user/driver with additional workload.

Getting off track can be stressful, detracting further from the focus.

Having to intervene and tell the system to recalculate the route interferes with the user’s most important task, that of driving.

Another way to interpret these twin guidelines about automation is to keep the user in control at higher task levels, where the user has done the initial planning and is driving to get somewhere. But take control from the user when the need is obvious and the user is busy.

This interpretation of the two guidelines means that, on one hand, the system does not insist on staying on this route regardless of driver actions, but quietly allows the driver to make impromptu detours. This interpretation also means that, on the other hand, the system should be expected to continue to recalculate the route to help the driver eventually reach his or her destination.

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Analysis of quantitative and qualitative data

Kirsty Williamson, Amanda Bow, in Research Methods for Students, Academics and Professionals (Second Edition), 2002

1 Transcribe the data

This simply means to type the notes or interview tapes into a word processor making the information much more accessible and easier to analyse. In some cases, researchers have been known to analyse straight from the tapes. However, this is not recommended as it makes it very difficult to re-check easily what was said, and to categorise the data. Transcribing the data into a word processor also means that researchers can easily use computer software programs such as NVivo. If you are using NVivo or another analysis package, you would put your data into NVivo and print it out after you have finished transcribing it.

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CPUs

Marilyn Wolf, in High-Performance Embedded Computing (Second Edition), 2014

2.4.2 Superscalar processors

Superscalar processors issue more than one instruction per clock cycle. Unlike VLIW processors, they check for resource conflicts on the fly to determine what combinations of instructions can be issued at each step. Superscalar architectures dominate desktop and server architectures. Superscalar processors are not as common in the embedded world as in the desktop/server world. Embedded computing architectures are more likely to be judged by metrics such as operations per watt rather than raw performance.

A surprising number of embedded processors do, however, make use of superscalar instruction issue, though not as aggressively as do high-end servers. The embedded Pentium processor is a two-issue, in-order processor. It has two pipes: one for any integer operation and another for simple integer operations. We saw in Section 2.3.1 that other embedded processors also use superscalar techniques.

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Introduction

William J. Buchanan BSc, CEng, PhD, in Software Development for Engineers, 1997

29.7 File types

Most files created have a certain purpose; for example documents from a word processor, spread-sheets, text files. The filename extension adds extra information about what type of file it is. Common filename extensions are given in Table 29.5.

Table 29.5. Example file extensions

File extension File type File extension File type
.ASC ASCII Text .PAS Pascal file
.BAK Backup File .PCX Picture file
.BAT DOS Batch File .PRN Print File
.C C language File .SYS System File
.COM DOS Program File .TXT Text File
.EXE DOS Executable program .WK1 123 Ver 1/2 File
.HLP Help File .WK3 1–2–3 Ver 3 File
.OVL Overlay File used by program .TMP Temporary File

Test run 29.10 shows a sample DOS listing. Notice that this directory contains System Files (.SYS), DOS Commands (.COM and .EXE), Text Files (.TXT) and Help Files (.HLP). The other typical files include Basic Language Files (.BAS), Initialization Files (.INI) and Listings (.LST). Programs with the .COM, .EXE or .BAT extension can be executed.

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Brainstorming

Chauncey Wilson, in User Experience Re-Mastered, 2010

Analysis Techniques

Listing Ideas

All the ideas from a brainstorming session can be listed in a spreadsheet, word processor, or specialized tools like PathMaker® or Inspiration. If you have numbered the items sequentially as they were generated, your list would be chronological. To facilitate recall days, weeks, or even months later when you look through this list, you can annotate the list with clarifications and brief explanation of any unusual terms or abbreviations.

Grouping Ideas from Brainstorming

Affinity diagramming, a method for organizing data by similarity, can be used to reveal groups of related items. The number of groups that emerge from an affinity diagramming is sometimes used as a measure in brainstorming research.

Voting on Brainstorming Ideas

A group can vote on which brainstorming items should be considered further by placing adhesive dots or ink marks on the items, by removing the items from the master list, or voting online using tools like Excel, Google Spreadsheet, or SurveyMonkey.

Criteria-Based Evaluation

Criteria-based evaluation uses a decision matrix to choose the top ideas from brainstorming. The people charged with choosing which ideas will be considered further rate or rank each idea against a list of criteria like cost, ease of programming, novelty, and generality. The ratings/rankings for each idea are averaged, the ideas are sorted by the average value, and the top rated/ranked ideas are chosen for consideration (see Table 4.3). Criteria-based evaluation can be done with online survey tools if you want to expand the process of choosing the top ideas beyond the brainstorming participants.

Table 4.3. A Decision Matrix for a Criterion-Based Approach to Choosing the Best Ideas from Brainstorming

Criterion 1 Criterion 2 Criterion 3 Criterion N Sum Mean Rating/Ranking Top Ideas
Idea 1
Idea 2
Idea 3
Idea 4
Idea ….
Idea N

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Brainwriting

Chauncey Wilson, in Brainstorming and Beyond, 2013

2.6.2 Analysis Techniques

2.6.2.1 Listing Ideas

All the ideas from a brainstorming session can be listed in a spreadsheet, word processor, or specialized tools like PathMaker® or Inspiration. If you have numbered the items sequentially as they were generated, your list would be chronological. To facilitate recall, days, weeks, or even months later when you look through this list, you can annotate the list with clarifications and brief explanations of any unusual terms or abbreviations.

2.6.2.2 Grouping Ideas from Brainwriting

Affinity diagramming can be used to organize ideas into related groups. See Chapter 1 for some details on affinity diagramming.

2.6.2.3 Rating or Ranking Brainwriting Ideas

The process of brainwriting focuses on generating ideas. For some purposes, you may want to prioritize ideas against specific criteria. One simple approach you can use for prioritizing data is to apply a simple criterion (or a few criteria) to each idea and eliminate the ideas that don’t meet the criterion. A criterion would include the word “should”, for example, “the idea should be compatible with the existing user interface,” “the idea should not extend the schedule,” “the idea should be easily learned,” and “the idea should minimize errors.” You might do something like rate each idea on a 0-to-5 scale where 0 means “does not meet the criterion at all” and 5 is “meets the criterion quite well.” Once the brainwriting team has chosen items to be investigated further, individuals or team could be assigned to examine the costs and benefits of chosen items or assigned to evaluate them on specific dimensions (costs, benefits to the users, time to implement, and so on).

The nominal group rating technique described in Chapter 1 on brainstorming is sometimes used after a brainwriting session as a method for prioritizing the ideas that emerged. The facilitator would ask each member of the brainwriting team to rate privately all the ideas as a 1 (low), 2 (medium), or 3 (high). The ideas with the highest average rating would get the highest priority.

2.6.2.4 Decision Matrix

A decision matrix (sometimes called a “prioritization matrix”) uses the ideas from brainwriting and a set of criteria for rating the ideas. Some software products include a “decision matrix” where the ideas are listed on one axis and the criteria on another axis (Table 2.4). Participants would rate each item according to how well the item meets the criteria. This assumes that you are reasonably sure of the criteria for deciding which ideas to carry forward. Criteria that you might use in this table include:

Table 2.4. Layout of a Prioritization Matrix

Idea/Criteria Criterion 1 Criterion 2 Criterion 3 Criterion … Criterion N Sum Mean Rating
Idea 1
Idea 2
Idea 3
Idea 4
Idea …
Idea n

Cost

Skill required to implement the idea (you might have a great idea, but now the personnel to implement the idea)

Technical feasibility

Consistency with existing products

Time to code

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