The document discusses the evolution of information visualization in art history, highlighting key developments from the 1830s to the present, including scientific and artistic visualization techniques. It emphasizes the potential of high-performance computing in humanities for analyzing and visualizing large cultural data sets, which can lead to new insights. Additionally, it presents various visualization projects that illustrate trends and patterns across diverse media and cultural resources.

1. Information Visualization
as a Research Method in
Art History
CAA 2012 session
Introduction by Lev Manovich
1

2. visualization timeline:
- development of key techniques: by 1830s
- scientific visualization: 1988-
- information visualization: 1998-
- artistic visualization: 2001-
- visualization is featured in Design and
Elastic Mind at MOMA: 2008
- Obama campaign site uses sophisticated
visualization: 2008
- visualization become ubiquitous (you have
to include in your social web site): 2011
2

3. Aaron Koblin, Flight Patterns. 2005.
3

4. Alex Dragulescki (UCSD). Spam Architecture. 2005.
4

5. Visualization of books flow in Seattle Public Library. Artist: George Legrady, UCSB
5

6. IAC Building, NYC: outside view; the lobby with the visualization showing
global users accessing web properties owned by IAC.
Dynamic visualization as a new logo of a company/institution -- representation
of dynamic process rather than static identity.
6

7. New York Times building: visualization of text drawn from NYT archives.
Artists: Ben Rubin and Mark Hanson.
7

8. 8

9. 9

10. 10

11. 2008: Graphs of statistical data are beginning to be integrated in consumer software
and webware. Example: stats for activity on individual user account on Flickr.
11

12. 2009: stats for videos on YouTube.
12

13. 2009: stats for videos on YouTube.
13

14. the development of “cultural visualization”:
graphing cultural patterns
14

15. History Flow
15

16. History Flow
16

17. Stefanie Posavec.
Literary Organism.
17

18. Lee Byron. Personal listening history using last.fm data.
18

19. Blue pictures are by locals. Red pictures are by tourists. Yellow pictures might be by either.
Base map © OpenStreetMap, CC-BY-SA
19
Visualization by Eric Fischer

20. Mapping global culture using “digital traces.” Google Trends, 2007.
20

22. visualization + big cultural data:
NEH Offfice of Digital Humanities (created 3/2008)
Humanities High Performance Computing initiative:
“Humanities High-Performance Computing (HHPC) refers to the use of high-
performance machines for humanities and social science projects. Currently, only a
small number of humanities scholars are taking advantage of high-performance
computing. But just as the sciences have, over time, begun to tap the enormous
potential of HPC, the humanities are beginning to as well. Humanities scholars often
deal with large sets of unstructured data. This might take the form of historical
newspapers, books, election data, archaeological fragments, audio or video contents,
or a host of others. HHPC offers the humanist opportunities to sort through, mine,
and better understand and visualize this data.”
22

23. January 2009:
NEH and NSF announce DIGGING INTO DATA
CHALLENGE.
Grant amounts: up to 300K USD.
"The creation of vast quantities of Internet accessible digital data and the
development of techniques for large-scale data analysis and visualization have led
to remarkable new discoveries in genetics, astronomy, and other fields, and—
importantly—connections between academic disciplinary areas."
"With books, newspapers, journals, films, artworks, and sound recordings being
digitized on a massive scale, it is possible to apply data analysis techniques to large
collections of diverse cultural heritage resources as well as scientific data. How
might these techniques help scholars use these materials to ask new questions about
and gain new insights into our world?"
23

24. Usually visualizations of cultural data do not
show the actual objects (texts, images, etc.)
but only show patterns in metadata (dates,
names, text features, geo locations).
In our Software Studies Initiative at UCSD
(softwarestudies.com) we developed tools
to visualize the actual large collections.
Images can be sorted in a variety of ways
using both existing metadata and automatic
measurements of their visual attributes.

26. imageplot of 1 million manga pages organized by visual characteristics

27. Upper part of the visualization (closeup
view) contains pages with full range of gray
tones, and lots of texture and details
Bottom right part of the visualization
(closeup view) contains pages in
black and white with little detail and
no texture

28. Image plot of 393 Mark Rothko’s paintings (1927-1970). Hao Wang and Mayra
Vasquez (undergraduate UCSD students). 2011. X-axis = date (year). Y-axis =
average brightness (mean). Writings about Mark Rothko often emphasize the
dark paintings created in the last years of his life. However, visualizing 393
paintings (1927-1970) shows that this period represents a culmination of a trend

29. Image plots of selected paintings by six impressionist artists.
X-axis = mean saturation. Y-axis = median hue.
Megan O’Rourke (undergraduate UCSD student), 2012.

31. our free software tools for analyzing and
visualizing large image and video
collections, publications and projects:
softwarestudies.com