the original research data to the public
and providing tools enabling learning and exploration is an exciting and
challenging scientific adventure that
creates many new research opportunities involving not only computer
science as enabling technology but
also learning and communication,
social science studies, and domain-specific areas from which the objects
of study originate.
The authors wish to thank the Trustees
of the British Museum. The Gebelein
Man dataset is courtesy of the Trustees
of the British Museum. We also wish to
acknowledge the help and input from
the Department of Ancient Egypt and
Sudan at the British Museum. We also
thank Medelhavsmuseet/the Museum
of Mediterranean and Near Eastern
Antiquities in Stockholm, Sweden. We
also thank the team from Interactive
Institute Swedish ICT/Interspectral,
specifically David Karlsson, Claes Ericson, Karl Lindberg, and Kristofer Jans-son. Finally, we thank the Norrköping
Visualization Center C and the Center
for Medical Image Science and Visualization, Linköping.
This work is supported by Swedish eScience Research Center, Excellence Center at Linköping-Lund in
Information Technology, Knut and Alice
Wallenberg Foundation, Foundation
for Strategic Research, The Knowledge
Foundation, Swedish Research Council,
1. Antoine, D. Evaluation of the Virtual Autopsy Table
(Room 64: Early Egypt Gallery). Internal Report,
Supplemental Material, Interpretation Department,
The British Museum, London, U.K., Feb. 2016.
2. Antoine, D. and Ambers, J. The scientific analysis of
human remains from the British Museum collection:
Research potential and examples from the Nile
Valley. In Regarding the Dead: Human Remains in the
British Museum, A. Fletcher, D. Antoine, and J. Hill,
Eds. The British Museum, London, U.K., 2014, 20–30;
3. Beyer, J., Hadwiger, M., and Pfister, H. State of the
art in GPU-based large-scale volume visualization.
Computer Graphics Forum 34, 8 (Dec. 2015), 13–37.
4. Clough, G. W. Best of Both Worlds–Museums, Libraries,
and Archives in a Digital Age. e-book. Smithsonian
Institution, Washington, D. C., 2013; http://www.si.edu/
5. Conlogue, G. Considered limitations and possible
applications of computed tomography in mummy
research. The Anatomical Record 298, 6 (June 2015),
6. Grieshaber, G. M., Osborne, D.L., Doubleday, A. F., and
Kaestle, F.A. A pilot study into the effects of X-ray and
computed tomography exposure on the amplification
of DNA from bone. Journal of Archaeological Science
35, 3 (Mar. 2008), 681–687.
7. Har wood-Nash, D. Computed tomography of ancient
a wider group of domain experts, as
well as non-experts. The second main
production bottleneck is the process
of closely linking any scientific or curatorial findings with the process of
interpretation and exhibit production.
The envisioned solution will thus support the whole chain, from scientific
data collection and documentation of
scientific discoveries, design, and interpretation of the information into non-linear stories, to production of end-user applications for exhibits. Figure 8
outlines how we refined, curated, and
annotated the data, though the original data is the basis of every step in the
process of developing the visitor experience in the gallery.
We have also taken initial steps to
explore other opportunities offered by
the digitization of museum artifacts,
including laser scanning and photogrammetry, employed for the mummy
of Neswaiu, as in Figure 9, and also 3D
printing technologies of the scanned
data. For example, the amulet of
Neswaiu, still present within the mummy wrappings and behind glass, can
now be physically reproduced in high-resolution detail through a process of
digital virtual extraction (see Figure
10). Visitors can clasp and feel it and
explore it physically, even though the
mummy has never been unwrapped.
What does this development mean
for the future of science visualization
at public venues? One important aspect of sharing visualizations with the
public may be authenticity of the science and resulting data. The public
can interact with and explore the real
underlying data, taking the visitor experience to a new level of engagement.
The scientific story can be embedded
in the interactive narrative on the table
using points of scientific interest and
told through the framing of the table
installation with additional information about the process, from scan to
Our findings demonstrate that science
visualization has the potential to narrow the gap between the general public and research, as it allows scientists
and curators to share the methods used
to interpret and analyze the collections
with visitors (such as determination of
the age and sex of a mummy). Bringing
Egyptian mummies. Journal of Computer Assisted
Tomography 3, 6 (Dec. 1979), 768–773.
8. Jian, W., Tu, H.-W., hua Han, X., Tateyama, T., and
Chen, Y.-W. A preliminary study on multi-touch-based
medical image analysis and visualization system. In
Proceedings of the Sixth International Conference on
Biomedical Engineering and Informatics (BMEI 2013)
(Hangzhou, China, Dec. 16–18). IEEE, 2013, 797–801.
9. Jönsson, D., Kronander, J., Ropinski, T., and Ynnerman,
A. Historygrams: Enabling interactive global
illumination in direct volume rendering using photon
mapping. IEEE Transactions on Visualization and
Computer Graphics 18, 12 (Dec. 2012), 2364–2371.
10. Jönsson, D., Sundén, E., Ynnerman, A., and Ropinski,
T. A survey of volumetric illumination techniques for
interactive volume rendering. Computer Graphics
Forum 33, 1 (Feb. 2014), 27–51.
11. Ljung, P., Krüger, J., Gröller, E., Hadwiger, M., Hansen,
C.D., and Ynnerman, A. State of the art in transfer
functions for direct volume rendering. Computer
Graphics Forum 35, 3 (June 2016).
12. Ljung, P., Winskog, C., Perssson, A., Lundström, C.,
and Ynnerman, A. Full-body virtual autopsies using
a state-of-the-art volume-rendering pipeline. IEEE
Transactions on Visualization and Computer Graphics
12, 5 (Sept.-Oct. 2006), 869–876.
13. Max, N. Optical models for direct volume rendering.
IEEE Transactions on Visualization and Computer
Graphics 1, 2 (June 1995), 99–108.
14. Sundén, E., Ynnerman, A., and Ropinski, T. Image
plane sweep volume illumination. IEEE Transactions
on Visualization and Computer Graphics 17, 12 (Dec.
15. Yu, L., Svetachov, P., Isenberg, P., Everts, M. H., and
Isenberg, T. FI3D: Direct-touch interaction for the
exploration of 3D scientific visualization spaces. IEEE
Transactions on Visualization and Computer Graphics
16, 6 (Nov. 2010), 1613–1622.
Anders Ynnerman ( firstname.lastname@example.org) is a
professor focusing on scientific visualization and head
of the Media and Information Technology Division of
Linköping University, Linköping, Sweden, and director
of the Norrköping Visualization Center C, Norrköping,
Thomas Rydell ( email@example.com) is
the CEO and co-founder of Interspectral AB, Norrköping,
Sweden, and formerly studio director of the Interactive
Institute Swedish IC T, Norrköping, Sweden.
Daniel Antoine ( firstname.lastname@example.org) is the
curator of physical anthropology at The British Museum
and an honorary senior research fellow in the Institute of
Archaeology, University College London, U.K.
David Hughes ( email@example.com) is a
technical advisor and strategic consultant at Interspectral
AB, Norrköping, Sweden, and previously held the same
position at the Interactive Institute Swedish ICT,
Anders Persson ( firstname.lastname@example.org) is a professor
of radiology at Linköping University, Linköping, Sweden,
and the director of the Center for Medical Image Science
and Visualization, Linköping, Sweden.
Patric Ljung ( email@example.com) is a senior lecturer in
immersive visualization at Linköping University, Linköping,
Sweden, and research coordinator at Norrköping
Visualization Center C, Norrköping, Sweden.
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