Abstract
This study examines some of the degradation phenomena exhibited by modern oil paintings and twentieth century oil paint formulations and possible correlations with the various organic additives typically introduced by manufacturers. The research takes into consideration historical and modern tube oil paints produced by different European manufacturers and selected twentieth century oil paintings which showed degradation problems such as efflorescence, softening, cracks and sensitivity towards water and polar solvents. The composition of oil paints and paintings samples was studied with XRF, SEM-EDX, ATR-FTIR and GCMS. The results showed that both artists’ oil paints and paintings samples contain a complex mixture of additives to the oil binders and pigments. The presence of aluminium and zinc stearates, added as dispersion agent gelling agents, was detected in most paint formulations of HKS, W&N, Talens and Maimeri (c. 1940-present). Several paint films showed an unusually high content of fatty diacids, suggesting that, in drying, an oxidative reaction was favoured above polymerisation. This occurrence, together with the diversity of lipidic media, additives, pigments and driers present in the industrial formulations could play a crucial role in paint failure and instability, as showed by the analysed case studies. The obtained results may help understanding the behaviour of modern oil paints and painting surfaces and contribute to improved conservation methods.
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
Notes
- 1.
These proceedings.
- 2.
As described in S. Litjens, Nederlandse Olieverftubes uit de Twintigste Eeuw, dissertation MA, University of Amsterdam, 2010, the “historical” oil tubes from Talens, HKS and Old Holland come from the Historisch Museum Rotterdam, Chabot Museum Rotterdam, Mauritshius Den Haag and Collectie Old Holland were dated and catalogued.
- 3.
The metal stearates are composed of stearates and palmitates and this complicates their distinction from stearic and palmitic acids present in drying oils.
- 4.
P/S ratios alone cannot provide absolute proof of the kind of oil in modern formulations, since there are different contributions which may interfere (e.g. metal stearates, castor wax, semi drying oils, non-drying oils, etc).
- 5.
The presence of ricinoleic acid is indicative of the use of castor oil, while 11-eicosenoic (gondoic) acid and 13-docosenoic (erucic) acid are the biomarkers for rapeseed oil. In regard to sunflower oil, it is important to say that arachidic and behenic acids are not specific markers; they might be present in linseed oil for example. Nevertheless, in sunflower oil their weight percentage is higher than in linseed oil. The same consideration can be done for safflower oil, in which arachidic acid is present in a higher amount (Dubois et al. 2007).
- 6.
Talens: see (Van den Berg et al. 2014); W&N: verbal communication Ian Garrett, W&N to Klaas Jan van den Berg, Jan. 2010; Old Holland: verbal communication W. van der Zwan to Klaas Jan van den Berg, April 2014.
- 7.
Izzo, Van Keulen, Van den Berg, manuscript in preparation 2014.
- 8.
Wijnberg L., Soldano A., personal communication during conservation treatments, 2010.
References
Burnstock A, van den Berg KJ, de Groot S et al (2007) An investigation of water-sensitive oil paints in the 20th century paintings. In: Learner TJS, Smithen P, Krueger J et al (eds) Modern paints uncovered. The Getty Conservation Institute, Los Angeles, pp 177–188
Carlyle L (2001) The artist’s assistant: oil painting instruction manuals and handbooks in Britain, 1800–1900, with reference to selected eighteenth-century sources. Archetype Publications, London
Chiantore O, Ploeger R, Poli T, Ferriani B (2012) Materials and techniques in the pictorial oeuvre of Lucio Fontana. Stud Conserv 57:92–105
Colombini MP, Modugno F (2009) Organic mass spectrometry in art and archaeology. Wiley, New York
Doerner M (1984) The materials of artists and their use in painting. Harvest, San Diego/New York/London
Dubois V, Breton S, Linder M, Fanni J, Parmentier M (2007) Fatty acid profiles of 80 vegetable oils with regard to their nutritional potential. Eur J Lipid Sci Technol 109(7):710–732
Erhardt D, Tumosa SC, Mecklenburg MF (2005) Long-term chemical and physical processes in oil paint films. Stud Conserv 50:143–150
Ferriani B, Ploeger R, Poli T et al (2009) Lucio Fontana. Between tradition and innovation. In: Art d’aujourd’hui. Patrimoine de demain. Conservation et restauration des œuvres contemporaines, Paris
Gettens RJ, Stout GL (1966) Painting materials. A short encyclopedia. Dover Publications, New York
Gottschaller P, Khandekar N, Lee LF, Kirby D (2012) The evolution of Lucio Fontana’s painting materials. Stud Conserv 57:76–91
Izzo FC (2011) 20th century artists’ oil paints: a chemical-physical survey. PhD dissertation in Chemical Sciences, Ca’ Foscari University of Venice
Izzo FC, Ferriani B, Van den Berg KJ, Van Keulen H, Zendri E (2013) 20th century artists’ oil paints: the case of the Olii by Lucio Fontana. J Cult Herit. doi:10.1016/j.culher.2013.11.003
Keune K (2005) Binding medium, pigments and metal soaps characterised and localised in paint cross-sections. PhD dissertation, Amsterdam
Korus RA, Mousetis TL (1984) Polymerisation of safflower and rapeseed oils. J Am Oil Chem Soc 61(3):537–540
Lake S (1999) The relationship between style and technical procedure: Willem de Kooning’s paintings of the late 1940s and 1960s. PhD dissertation thesis, University of Delaware
Lake S, Lomax SQ, Schilling MR (1999) A technical investigation of Willem de Kooning’s paintings from the 1960s and 1970s. In: ICOM Committee for conservation preprints, vol 1. James, Lyon, pp 381–385
Mallégol J, Lemaire J, Gardette J (2000) Drier influence on the curing of linseed oil. Prog Org Coat 39:107–108
Mayer R (1991) The artist’s handbook of materials and techniques, Revisited Edition. Viking, New York
Mecklenburg MF (2007) Meccanismi di cedimento dei dipinti su tela: approcci per lo sviluppo di protocolli di consolidamento. Il Prato, Padova
Mills JS (1966) The gas chromatographic examination of paint media. Part I. Fatty acid composition and identification of dried oil film. Stud Conserv 11:92–108
Mills SJ, White R (1996) The organic chemistry of museum objects, 2nd edn. Butterworth, London
Mills L, Burnstock A, Duarte F et al (2008) Water sensitivity of modern artists’ oil paint. In: ICOM Committee for conservation, vol 2. Allied publishers, India, pp 651–659
Myers RR, Long JS (1968) Treatise on coatings, vol I. Marcel Dekker, New York
Osmond G (2011) Zinc white: a review of zinc oxide pigment properties and implications for stability in oil-based paintings. AICCM Bull 32:20–29
Osmond G (2014) Zinc white and the influence of paint composition for stability in oil based media. These proceedings, Chapter 18
Patton TC (1964) Paint flow and pigment dispersion. Wiley, New York
Pitthard V, Stanek S, Griesser M et al (2005) Gas chromatography–mass spectrometry of binding media from early 20th century paint samples from Arnold Schönberg’s palette. Chromatographia 62:175–182
Robinet L, Corbeil MC (2003) The characterization of metal soaps. Stud Conserv 48:23–40
Rogala D, Lake S, Maines C, Mecklenburg M (2010) Condition problems related to zinc oxide underlayers: examination of selected abstract expressionist paintings from the collection of the Hirshhorn Museum and sculpture garden, Smithsonian Institution. J Am Inst Conserv 46:96–113
Rudnik E, Szczucinska A, Gwardiak H et al (2001) Comparative studies of oxidative stability of linseed oil. Thermochim Acta 370:135–140
Sabin AH (1911) Linseed oil. J Ind Eng Chem 3:84–86
Schilling MR, Khanjian HP (1996) Gas chromatographic determination of the fatty acid and glycerol content of lipids. I. The effect of pigments and aging on the composition of oil paints. In: ICOM Committee for conservation preprints, vol 1. James & James, London, pp 220–227
Schilling MR, Khanjian HP, Carson DM (1997) Fatty acid and glycerol content of lipids; effect of ageing and solvent extraction on the composition of oil paints. Techne 5:71–78
Schönemann A, Frenzel W, Unger A et al (2006) An investigation of the fatty acid composition of new and aged tung oil. Stud Conserv 51:99–110
Silvester G (2011) An experimental investigation of the formation of sulphates in oil paint films exposed to gaseous sulphur dioxide with particular reference to the relationship between these sulphates and water sensitivity. Postgraduate Dissertation, Coutrauld Institute of Art, London
Silvester G, Burnstock A, Megens L, Learner T, Chiari G, van den Berg KJ (2014) A cause of water- sensitivity in modern oil paint films: the formation of magnesium sulphate. Stud Conserv 59(1):38–51
Šimůnková E, Brothánková-Bucifalová J, Zelinger J (1985) The influence of cobalt blue pigments on the drying of linseed oil. Stud Conserv 30:161–166
Sutherland KR (2007) Derivatisation using m-(trifluoromethyl)phenyltrimethylammonium hydroxide of organic materials in artworks for analysis by gas chromatography–mass spectrometry: unusual reaction products with alcohols. J Chromatogr A 1149:30–37
Tempest H (2009) Water-sensitive oil paint: an experimental investigation, with case studies, further characterizing the causes of the phenomenon. Post graduate diploma in the Conservation of easel paintings, Courtauld Institute of Art
Tempest H, Burnstock A, Saltmarsh P, van den Berg KJ (2013) Progress in the water sensitive oil project. In: Proceedings from of the cleaning 2010 conference, Valencia, 26–28 May 2010, Smithsonian Institute, pp 107–117
Tumosa CS (2001) A brief history of aluminum stearate as a component of paint. Waac Newslett 23:10–11
Tumosa CS, Mecklenburg MF (2005) The influence of lead ions on the drying of oils. Rev Conserv 6:39–47
Van den Berg JDJ (2002) Analytical chemical studies on traditional linseed oil paints. PhD dissertation, University of Amsterdam, Amsterdam
Van den Berg KJ, Burnstock A (2014) Twentieth century oil paint. The interface between science and conservation and the challenges for modern oil paint research. These proceedings, Chapter 1
van den Berg JDJ, van den Berg KJ, Boon JJ (1999) Chemical changes in curing and ageing oil paints. In: ICOM Committee for conservation preprints, vol 1. James, Lyon, pp 248–253
Van den Berg KJ, Bayliss S, Burnstock A, Van Gurp F, Klein Ovink B (2014) The Talens Archive. Presented at ATSR, Amsterdam; manuscript in preparation
van der Weerd J, van Loon A, Boon JJ (2005) FTIR studies of the effects of pigments on the ageing of oil. Stud Conserv 50:3–22
Van Keulen H (2014) Slow-drying oil additives in modern oil paints, and application in conservation treatments. ICOMCC (in press)
West Fitzhugh E (ed) (1988) Artists’ pigments, a handbook of their history and characteristics. Archetype publications, London
Wexler H (1964) Polymerization of drying oils. Chem Rev 64:591–611
Zerbi M, Esposito M (2003) Emma Ciardi pittrice veneziana tra Ottocento e Novecento, Tra ombra e sole. Canova, Treviso
Acknowledgements
The authors thank Dr. Louise Wijnberg from the Stedelijk Museum, Amsterdam, Dr. Matteo Piccolo from the International Gallery of Modern Art Ca’ Pesaro, Venice and Fondazione Lucio Fontana, Milan for providing the interesting case studies for this research. Special thanks go to Dr. Luc Megens and BSc. Suzan de Groot of RCE for their assistance in performing XRF and FTIR-ATR analyses.
Prof. Dr. Aviva Burnstock from the Courtauld Institute of Art, London is acknowledged for providing analysis results of inorganic materials present in W&N paints from 1964 to 1965.
Author information
Authors and Affiliations
Corresponding authors
Editor information
Editors and Affiliations
Rights and permissions
Copyright information
© 2014 Springer International Publishing Switzerland
About this chapter
Cite this chapter
Izzo, F.C., van den Berg, K.J., van Keulen, H., Ferriani, B., Zendri, E. (2014). Modern Oil Paints – Formulations, Organic Additives and Degradation: Some Case Studies. In: van den Berg, K., et al. Issues in Contemporary Oil Paint. Springer, Cham. https://doi.org/10.1007/978-3-319-10100-2_5
Download citation
DOI: https://doi.org/10.1007/978-3-319-10100-2_5
Published:
Publisher Name: Springer, Cham
Print ISBN: 978-3-319-10099-9
Online ISBN: 978-3-319-10100-2
eBook Packages: Chemistry and Materials ScienceChemistry and Material Science (R0)