This is my overview over the history of Bible and Computer over the last five decades against the background of the emergence and development of DH. With some focus on the developments that took place at the ETCBC (Eep Talstra Centre for Bible and Computer), Vrije Universiteit Amsterdam. I use this in class in combination my oral explanations, so not every slide may be self-evident without explanations, but I hope the overall scope is!
History of Computer (Evolution in Computern).pptUmairMohmand
History of Computers
When we study the many aspects of computing and computers, it is important to know about the history of computers. Charles Babbage designed an Analytical Engine which was a general computer It helps us understand the growth and progress of technology through the times. It is also an important topic for competitive and banking exams.
What is a Computer?
A computer is an electronic machine that collects information, stores it, processes it according to user instructions, and then returns the result.
A computer is a programmable electronic device that performs arithmetic and logical operations automatically using a set of instructions provided by the user.
Early Computing Devices
People used sticks, stones, and bones as counting tools before computers were invented. More computing devices were produced as technology advanced and the human intellect improved over time. Let us look at a few of the early-age computing devices used by mankind.
Abacus
Abacus was invented by the Chinese around 4000 years ago. It’s a wooden rack with metal rods with beads attached to them. The abacus operator moves the beads according to certain guidelines to complete arithmetic computations.
Napier’s Bone
John Napier devised Napier’s Bones, a manually operated calculating apparatus. For calculating, this instrument used 9 separate ivory strips (bones) marked with numerals to multiply and divide. It was also the first machine to calculate using the decimal point system.
Pascaline
Pascaline was invented in 1642 by Biaise Pascal, a French mathematician and philosopher. It is thought to be the first mechanical and automated calculator. It was a wooden box with gears and wheels inside.
Stepped Reckoner or Leibniz wheel
In 1673, a German mathematician-philosopher named Gottfried Wilhelm Leibniz improved on Pascal’s invention to create this apparatus. It was a digital mechanical calculator known as the stepped reckoner because it used fluted drums instead of gears.
Difference Engine
In the early 1820s, Charles Babbage created the Difference Engine. It was a mechanical computer that could do basic computations. It was a steam-powered calculating machine used to solve numerical tables such as logarithmic tables.
Analytical Engine
Charles Babbage created another calculating machine, the Analytical Engine, in 1830. It was a mechanical computer that took input from punch cards. It was capable of solving any mathematical problem and storing data in an indefinite memory.
Tabulating machine
An American Statistician – Herman Hollerith invented this machine in the year 1890. Tabulating Machine was a punch card-based mechanical tabulator. It could compute statistics and record or sort data or information. Hollerith began manufacturing these machines in his company, which ultimately became International Business Machines (IBM) in 1924.
Differential Analyzer
Vannevar Bush introduced the first electrical computer, the Differential Analyzer, in 1930. This mach
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History of Computer (Evolution in Computern).pptUmairMohmand
History of Computers
When we study the many aspects of computing and computers, it is important to know about the history of computers. Charles Babbage designed an Analytical Engine which was a general computer It helps us understand the growth and progress of technology through the times. It is also an important topic for competitive and banking exams.
What is a Computer?
A computer is an electronic machine that collects information, stores it, processes it according to user instructions, and then returns the result.
A computer is a programmable electronic device that performs arithmetic and logical operations automatically using a set of instructions provided by the user.
Early Computing Devices
People used sticks, stones, and bones as counting tools before computers were invented. More computing devices were produced as technology advanced and the human intellect improved over time. Let us look at a few of the early-age computing devices used by mankind.
Abacus
Abacus was invented by the Chinese around 4000 years ago. It’s a wooden rack with metal rods with beads attached to them. The abacus operator moves the beads according to certain guidelines to complete arithmetic computations.
Napier’s Bone
John Napier devised Napier’s Bones, a manually operated calculating apparatus. For calculating, this instrument used 9 separate ivory strips (bones) marked with numerals to multiply and divide. It was also the first machine to calculate using the decimal point system.
Pascaline
Pascaline was invented in 1642 by Biaise Pascal, a French mathematician and philosopher. It is thought to be the first mechanical and automated calculator. It was a wooden box with gears and wheels inside.
Stepped Reckoner or Leibniz wheel
In 1673, a German mathematician-philosopher named Gottfried Wilhelm Leibniz improved on Pascal’s invention to create this apparatus. It was a digital mechanical calculator known as the stepped reckoner because it used fluted drums instead of gears.
Difference Engine
In the early 1820s, Charles Babbage created the Difference Engine. It was a mechanical computer that could do basic computations. It was a steam-powered calculating machine used to solve numerical tables such as logarithmic tables.
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Charles Babbage created another calculating machine, the Analytical Engine, in 1830. It was a mechanical computer that took input from punch cards. It was capable of solving any mathematical problem and storing data in an indefinite memory.
Tabulating machine
An American Statistician – Herman Hollerith invented this machine in the year 1890. Tabulating Machine was a punch card-based mechanical tabulator. It could compute statistics and record or sort data or information. Hollerith began manufacturing these machines in his company, which ultimately became International Business Machines (IBM) in 1924.
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Digital hermeneutics intro_and_historical_overview
1.
2. An overview of the history of text
computing in general and Bible &
Computer in particular.
3. Beginnings (1): Calculation
machine
Source: http://expo.ubvu.vu.nl/carousel_intro.html?index=2&expoid=12&lang=_nl
The German scholar
Wilhem Schikard (1592–
1635), Professor in
mathematics and
astronomy, as well as in
the Biblical languages, was
the first to build a
mechanic calculator.
4. Beginnings (2): calculating
with words
Gottfried Wilhelm Leibniz
(1646-1716):
Quest for a universal language
that can be used as input for a
calculation machine.
We cannot calculate with language, but in
digital text, linguistic elements (letters,
words) correspond to numbers (e.g. each
character has its Unicode value), and those
numbers can be manipulated and calculated.
5. Beginnings (3) Mechanical
machines
Cabbage Mechanical Analytical engine (1837-1871)
Design for a mechanical general-
purpose computer designed by
in Charles Babbage.
Further development of Difference
Engine, a special-purpose machine for
the automatic production of
mathematical tables (logarithm tables,
tide tables, and astronomical tables)
8. Historical overview (2)
1940
-50
calculating machine >
universal machine
1941-48 forerunners of
modern computers
a machine that is capable of
doing any task for which it is
programmed
10. Historical overview (4)
1940
-50
calculating machine >
universal machine
1941-48 forerunners of
modern computers
1949 start of R. Busa’s
Index Thomisticus
Complete lemmatization of
Thomas of Aquino’s works (181
works; 11 million words);
project lasted 30 years.
11. Historical overview (5)
1940
-50
calculating machine >
universal machine
1941-48 forerunners of
modern computers
1949 start of R. Busa’s
Index Thomisticus
1960
-70
1960s: computer enabled
to process text
1963 first edition of ASCII
standard
12. Historical overview (6)
1940
-50
calculating machine >
universal machine
1941-48 forerunners of
modern computers
1949 start of R. Busa’s
Index Thomisticus
1960
-70
1960s: computer enabled
to process text
1963 first edition of ASCII
standard
7-bits encoding, e.g.
1000000 @
1000001 A
1000010 B
1000011 C
(total 128 codes)
13. Historical overview (7)
1940
-50
calculating machine >
universal machine
1941-48 forerunners of
modern computers
1949 start of R. Busa’s
Index Thomisticus
1960
-70
1960s: computer enabled
to process text
1963 first edition of ASCII
standard
17. Historical overview (11)
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
’82 AIBI founded
’85 AIBI-1 text
1990
2000
Use of page
layout software to create
documents comparable to
traditional typography and
printing. — PC and
WYSIWYG
18. Historical overview (12)
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
’82 AIBI founded
’85 AIBI-1 text
1990
2000
19. Historical overview (13)
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
1989 Microsoft Office
’82 AIBI founded
’85 AIBI-1 text
1990
2000
20. Historical overview (14)
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
1989 Microsoft Office
’82 AIBI founded
’85 AIBI-1 text
1990
2000
21. Historical overview (15)
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
1989 Microsoft Office
’82 AIBI founded
’85 AIBI-1 text
1990 1992 BibleWorks 1.0
1994 Accordance 1.0
2000
22. Historical overview (16)
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
1989 Microsoft Office
’82 AIBI founded
’85 AIBI-1 text
1990 1990 TEI P1
1991 Unicode 1.0
1991 WWW
1995 Internet Explorer
1992 BibleWorks 1.0
1994 Accordance 1.0
2000
23. Historical overview (17)
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
1989 Microsoft Office
’82 AIBI founded
’85 AIBI-1 text
1990 1990 TEI P1
1991 Unicode 1.0
1991 WWW
1995 Internet Explorer
1992 BibleWorks 1.0
1994 Accordance 1.0
1996 TC, JHS 1998 Hugoye
2000
24. Historical overview (18)
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
1989 Microsoft Office
’82 AIBI founded
’85 AIBI-1 text
1990 1990 TEI P1
1991 Unicode 1.0
1991 WWW
1995 Internet Explorer
1992 BibleWorks 1.0
1994 Accordance 1.0
1996 TC, JHS 1998 Hugoye
2000 2001 Web 2.0
2001 Wikipedia
2004 Facebook
25. Historical overview (19)
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
1989 Microsoft Office
’82 AIBI founded
’85 AIBI-1 text
1990 1990 TEI P1
1991 Unicode 1.0
1991 WWW
1995 Internet Explorer
1992 BibleWorks 1.0
1994 Accordance 1.0
1996 TC, JHS 1998 Hugoye
2000 2001 Web 2.0
2001 Wikipedia
2004 Facebook 2000 AIBI-6
26. Historical overview (20)
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
1989 Microsoft Office
’82 AIBI founded
’85 AIBI-1 text
1990 1990 TEI P1
1991 Unicode 1.0
1991 WWW
1995 Internet Explorer
1992 BibleWorks 1.0
1994 Accordance 1.0
1996 TC, JHS 1998 Hugoye
2000 2001 Web 2.0
2001 Wikipedia
2004 Facebook 2000 AIBI-6
Computer
and...
grammar
statistics
discourse
education
multi-media
publishing
community
27. Historical overview (21)
1940-50 calculating machine >
universal machine
1941-48 forerunners of
modern computers
1949 start of R. Busa’s
Index Thomisticus
1960-70 1960s: computer enabled to
process text
1963 first edition of ASCII
standard
1980 1981 Apple Lisa GUI
1984 PageMaker
mid/late 80s DTP revolution
1989 Microsoft Office
’82 AIBI founded
’85 AIBI-1 text
1990 1991 Unicode 1.0
1991 WWW
1995 Internet Explorer
1992 BibleWorks 1.0
1994 Accordance 1.0
1996 TC & JHS
2000 2001 Web 2.0
2001 Wikipedia
2004 Facebook
2000 AIBI-6
28. What can we observe when we see
these developments from the early
beginnings until the first years of the
21st century?
29. In this development one of the main
concerns of the ETCBC was: how to
use the computer as an analytical
tool, rather than merely as a library,
an office tool, and an imitation of
traditional tools (e.g. word searches
instead of printed concordance).
31. How to find a way in which the ability to
sort, quantify, reproduce and report text
through computation and the related
scientific mode of inquiry can be fruitfully
combined with interpretation as the
valued mode of assigning or discovering
meaning as understood in
traditional scholarship and
the related reflexive concepts
of individualism and
subjectivity.
33. *Humanities 1.0: the hermeneutic and critical
tradition as it was developed during the nineteenth
and twentieth century.
*Humanities 2.0: the identification of representation
of patterns by digital means in the humanities as it
has been developed in the second half of the
twentieth and twenty-first century.
*Humanities 3.0: the hermeneutic and critical
tradition applied to these tools and patterns
obtained by humanities 2.0
34. *Artificial Intelligence: the effort to automate
intellectual tasks normally performed by
humans.
*Symbolic AI: explicit rules, manipulation of
logic (prevalent in 1950s till 1980s)
*Machine learning: can a computer go beyond
the instruction and rules it is given, and learn
by itself how to perform a certain task?
35. *“Intelligence by machines”. But what is
intelligence? How can the computer “mimic”
human cognitive processes?
*What about other human capacities, e.g.
“artifical creativity”?
*What are the theological and moral
implications, e.g. accident caused by self-
driving car? Will robots too be in the image of
God?
36. *There are huge differences between e.g. the
BNC and the Hebrew Bible in size (100 millions
vs. 420,000 words), metadata (data, author),
selection (based on linguistics or religious
tradition).
*But new research on Twitter, blogs etc. is
based on a completely new type of fuzzy data,
which seems to resemble the OT much more
than the BNC does.
37. *“Bible & computer” started in modernist,
positivist mindset. What is the effect of the
transition to post-modernism?
*Striking results of AI and deep learning, e.g.
self-driving cars, but also scepticism. Whereas
Bible & computer started from a desire to
explicitation, are we now going to put our trust
in a black box?