The document discusses Prof. Jonathan P. Bowen's exploration of creative visualization in chemistry, showcasing the integration of art and science through various historical and modern examples. It highlights the significance of visual representations in understanding chemical structures and processes, referencing notable works and conferences. The content reflects on the evolution of visualization techniques and their impact on the fields of chemistry and art.

1. Creative Visualization
in Chemistry
Prof. Jonathan P. Bowen
Birmingham City University
& Museophile Limited
United Kingdom
www.jpbowen.com

2. Introduction
• Prof. Jonathan Bowen
• Mathematics, art, engineering,
computer science, software
engineering, museum informatics
• Career: Oxford, Reading, LSBU, BCU
• Visitor: King’s College London, Brunel,
Westminster, Waikato (New Zealand)
• Pratt Institute (2012 – Museum Informatics)
• Electronic Visualisation and the Arts
(EVA London conference, 8–10 July 2014)

3. Patterns
“The way is long if one
follows precepts, but
short ... if one follows
patterns.”
– Seneca (c.4 BC – AD 65)
Prof. Roger Penrose and
“Penrose tiles” at the new
Mathematical Institute,
Oxford University

4. The Sceptical Chymist
“It is my intent to beget a good
understanding between the chymists and
the mechanical philosophers who have
hitherto been too little acquainted with one
another's learning.”
– Robert Boyle
(1627–1691)
Plaque to Robert Boyle and
Robert Hooke, University
College, High Street, Oxford

5. Why chemistry?
• E. J. Bowen FRS (1898–1980)
– Physical chemist, Oxford
• H. J. M. Bowen (1929–2001)
– Analytical chemist
• [J. P. Bowen (b. 1956)]
• A. M. Bowen (b. 1986)
– Biophysical chemist
– Doctorate in Chemistry, Oxford (2013)
Photograph in
the National
Portrait
Gallery,
London

6. Structure of chlorophyll a
Bowen, E.J.
(1946) The
Chemical
Aspects of
Light, 2nd
ed., Oxford
University
Press. (1st
ed. 1942.)

7. Structure of chlorophyll a
Bowen, H.J.M.
(1966) Trace
Elements in
Biochemistry,
Academic
Press.

8. Modern visualizations of
chlorophyll a Wikipedia (2014).

9. Modern visualizations of
chlorophyll a
Chlorophyll a
ligands in green
within the
crystal structure
of spinach
major light
harvesting
complex
(pdb code: 1rwt)

10. DPhil thesis (2013)
• NMR (Nuclear Magnetic Resonance)
• DEER (Double Electron-Electron Resonance)
• REINDEER (Repeated Excitations IN DEER)

11. Visualization of molecules
using UCSF Chimera
(Wikimedia
Commons)

12. EVA London paper
• Karl Harrison
– IT support in Department of Chemistry, Oxford
– Artwork on covers of chemistry journals
• Electronic Visualisation and the Arts (EVA)
London conference: www.eva-london.org
• 2013 paper on “Electronic Visualisation in
Chemistry: From Alchemy to Art”
(Harrison and Bowen × 2).
ewic.bcs.org/content/ConWebDoc/51042

13. Computer science journal
covers and images
(Google
Images)

14. Chemistry journal covers
and images
(Google
Images)

15. Typeset chemical structures
and interactions
Wells (1956)
Grundon (1962)
Goodwin (1964)

16. Painting of Lysozyme Philips (1966)

17. Soap bubbles
(right) &
organic alkane
chains (below)
Dickerson & Geis
(1976)

18. Illustration tools
Drawings of
sucrose, C60 & Taxol
Pre-computerization

19. Models of chemical structures
Metal and plastic

20. Most famous
3D model?
Watson and Crick
1953 model of DNA
– visualization of
double helix
University of Cambridge
Museums, reproduction
on view in Two Temple
Place, London, 2014

21. 3D renders of inorganic structures
Computer-generated

22. 3D renders of inorganic structures
Computer-generated

23. 3D renders of organic structures
Computer-generated

24. Atom and bond size control
1. Wire frame stick model
2. Ball and stick model
3. Scaled ball and stick model
4. Space-filling model
(aka a calotte model)

25. Periodic table and element colours
Oxygen = red, Hydrogen = white,
Nitrogen = blue, Carbon = black, ...

26. Inorganic secondary structure,
seen in polyhedral view
1. Wire frame
2. Ball and stick view
3. Atom packing view
4. Polyhedral view
(repeating network)

27. Inorganic polyhedral illustrations
Beauty of structures

28. Views of DNA
Double helix

29. Protein and enzyme secondary structures
Amino acid sequences: sheets and helices

30. Journal covers with chemistry art
Journal and textbook illustrations

31. 3D render lightning effects on a simple
organic molecule
Starting point
6

32. 3D render lightning effects on a protein
More complexity
6

33. 3D renders of chemical structures
Produced by visualization experts,
not original researchers

34. Initial concept sketch
“Back of an envelope” – by researcher

35. Components for cover art
Three separate components

36. Design artwork
Initial draft and final cover artwork

37. Chemistry
and art
Glass blowing
for chemical
apparatus
Glass sculpture of
discus thrower by
E. J. Bowen

38. Research
“If we knew what it was we were
doing, it would not be called
research, would it?”
– Albert Einstein (1879–1955)
Bust in
Birmingham
Museum and
Art Gallery
Blackboard in
the Museum of
the History of
Science, Oxford
(16 May 1931)

39. EVA London conference
• Electronic Visualisation and the Arts (EVA)
London conference: www.eva-london.org
• 2013 paper on “Electronic Visualisation in
Chemistry: From Alchemy to Art”
(Harrison and Bowen × 2).
ewic.bcs.org/content/ConWebDoc/51042
• Next conference: British Computer Society
offices, Southampton Street, Covent Garden,
central London, 8–10 July 2014
• 2014 paper with Tula Giannini on
“Digitalism: The New Realism”

40. The end!
Prof. Jonathan Bowen
(FBCS, FRSA)
jonathan.bowen@bcu.ac.uk
www.jpbowen.com