The History of GIS
Coppock, J.T. and Rhind, D.W. (1991). The History
of GIS. Geographic Information Systems: A Guide to Technology”. Volume 1,
21-43.
<a href="http://www.grossmont.edu/judd.curran/Thx1ARTICLE.pdf"></a>
Mapping can
encompass many meanings. In one way or another this article, “The History of
GIS” dissects, transcends, and explicates the fuzzy details, boundaries and
execution of Geographic Information Systems. The authors start off suggesting a
need for enough users to be willing to not only use GIS, but also- and more
importantly, touch upon the nature of it- sharing their knowledge with the
public, contributing to the literature of it. One of first groups to publish an
article concerning GIS was the Urban and Regional Information Systems Association.
(URISA). Founded in 1963 and having created its own journal in 1983, URISA was devoted
primarily to GIS. Soon after, many other
papers were published, spreading the word of all the possibilities that lied
ahead and all the capabilities of a Geographic Information System.
With the up
rise of GIS talk through journals and the like, a GIS timeline emerged from the
compilation of records throughout history. A workable, malleable definition
capturing its holistic qualities and evolution materialized through literature,
encompassing the many incentives and motives for GIS ranging from personal
interests, academic inquiry, to ascertaining that GIS is the single, most
effective way for one to express their work. Success came about through
countless mishaps, mistakes, and unwavering attempts. GIS became known as a
means to better represent geography through a computerized model, transferring
to a map of considerable value.
The first
attempt to automate map production appeared in the mid- 1900’s. A modified punch card tabulator represented maps
on printed card paper and set the stage for soon-to-be widespread map printing in
the 1960s. A few years later, in 1967, typewriters were modified in Paris to be
driven solely by punch card readers, enabling the production of proportional
symbol maps. From the 1950’s onward, America specifically had become the birthplace
of GIS. In the 1950’s a group of transportation engineers and geographers
developed quantitative measurements of transportation at the University of
Washington, representing the first few efforts towards GIS introduction.
The 1960’s
saw magnificent feats in the GIS field. One the Harvard campus, a man by the
name of Fisher founded the Harvard Laboratory for Computer Graphics in the late
1960’s and created the SYMAP mapping package. This package used a line printer
to produce a number of maps including isoline, choropleth, and proximal maps. SYMAP
spread like wildfire globally; more than 500 businesses and institutions of
higher learning had acquired the program. SYMAP became the first heavily distributed
computer package for managing geographical data. Soon after, also in the
proximity of Harvard, GRID was created by the Harvard School of Design and
associates, allowing overlay of multiple layers of data. On a larger scale, large-frame
computers became readily available and spatial analysis studies became popular.
In 1964, IBM introduced a computer that was four hundred times faster than its
predecessor, ideal for scientific applications and calculations. Three years
later, the first demonstrations of address matching, paired computer mapping
and data analysis of such through the New Haven Census Use Study surfaced. Last
but not least, in 1969, the Environmental Systems Research Institute (ESRI) was
established as a non-profit organization (eventually adapting into a profitable
enterprise) and in conjunction, brought other software along with its implementation
(ArcInfo being the most familiar).
Earlier in
the 70’s, ESRI developed a vector-based system known as the Planning
Information Overlay System (PIOS) and DIME (Dual Independent Map Encoding) was developed
and utilized to describe urban composition and to map out streets. In 1972, the
Census Study sponsored the creation of the segment (a.k.a. Spatially Orientated
Referencing Systems Association) SORSA. That same year, the Bureau created atlases
for major metropolitan sectors, digitizing maps of around 35,000 census tracts.
This required development of software to systematize the mass number of data,
paving the way for the first GIS accounts, storage, and application. In 1973, Geographic
Information Retrieval and Analysis System (GIRAS) came about to handle the
ever-increasing large data sets. Launch of vector-based GIS: the ODYSSEY, in
1979 drew the interest of many – the perfect precursor to mass acceptance a few
years later.
Whereas the
1950’s/60’s classified and identified GIS and the 70’s diffused it nationally, the
1980’s were characterized by the innovation of GIS. The division of the USGS
implementation of automated topographic maps was primed in the 80’s, as was the
development of greater than 500 computer software handling spatial data. ArcInfo,
from ESRI was put into practice in 1982, a main applications package, now
compatible with most if not all computer types- including laptops and home
computers. Many would argue this establishment signified the primary push of
GIS into U.S. mainstream culture, beyond the closed doors of the laboratory.
Other
countries also followed suit. In Canada, for instance, Tomlinson (aka “The
Father of GIS”) created initial GIS in 1966. After much persuasion, he
convinced the Canadian government that the Canadian Geographic Information
System (CGIS) was a valuable piece of technology that should be invested in. He
then met the administrator of the Canada Land Inventory and drafted a report
explaining his studies. By 1971, CGIS was in full operation and now contains
more than 10,000 maps. Its implementation took longer than anticipated, but it
still might very well be the largest GIS in operation even today and still the
best software to contain such expansive continental data. Furthermore, in the early
1970’s, Tomlinson oversaw International Geographic Union’s Commission on Geographical
Data Sensing and Processing. This commission had more than 15 information
system activities and published a monograph of computer-geographic data handling.
The United
Kingdom displayed similarities to the GIS movement in both Canada and U.S. Like
the U.S. , the surge of GIS started in the 1960’s, and, like in Canada, was at
first not widely accepted by the British government. Some of their
contributions include the early Publication of GIS: General Information Systems
for Planning (GISP) in 1972 and a cartographic editor by the name of D.P. Brickmore
that founded and persuaded the Natural Environmental Research Council (NERC) to
fund the Experimental Cartography Unit (ECU). The ECU became completely functional
in the late 1960’s in London. The unit produced high-quality printed maps and
collaborated with national agencies concerning land use and environmental
issues. In response, British federal agencies all over became intrigued with
this growing marvel and started their own specialized GIS-based programs.
Examples include the Scottish Development Department’s Rural Land Use
Information System, Scotland’s “simple” GIS, the Tourism and Recreation
Information Package (TRIP), and their Local Authority Management Information
System (LAMIS). Other GIS developments around the globe briefly touched upon in
the article were those in Japan, Australia, Sweden, and Jamaica- and the
prospect of a multinational GIS.
From this mapping
of GIS birth and application, a better understanding of these and its continual
modifications should be better understood. GIS followed a similar path across
the globe, springing up in the 60’s and gaining popularity in the ‘80’s. To further
simplify, the life-map of GIS could be described as its introduction in the 1950’s/60’s
or its pioneer period, its diffusion or research arena in the ‘70’s, and its
innovation and commercial phase in the ‘80’s, till today. The emergence of
government funding as well as personal experimentation really took off in the ‘80’s
as well, and is still true today as is the expanse in user dominance and
marketing. Over its course, federal counterparts are evoking continual and now
incessant interest in GIS software. GIS software will become more commonplace
as the years pass; its rapid growth in the past few decades is just the
beginning.
I think it is cool how the word 'GIS' follows a growth in use in print material that coincides with it's history. Check out this Google NGram, which is a word counter that counts the frequency of words in all print from Google Books.
ReplyDeletehttp://books.google.com/ngrams/graph?content=GIS&year_start=1940&year_end=2008&corpus=5&smoothing=3
Also if you look at Chapter 1.4 in Geographic Information Systems and Science 3rd Edition you will find a brief history of GIS. There is also a nice timeline on page 19-20. Here is a link to it.
Deletehttp://books.google.com/books?id=zyFR8uxHM9oC&lpg=PP1&ots=bPGATtLEOr&dq=geographic%20information%20systems%20and%20science&pg=PA19#v=onepage&q&f=false
Thanks Dr. Anwar!
ReplyDeleteThe Google counter is neat; I never knew such a thing existed! How did you come across it?
That timeline is much easier to follow. Would this be a possibility for another blog, perhaps (if time sequence is necessary)?
Funny, that chapter looks oddly familiar! :P