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Degradation of polyethylene glycol and hemicellulose in the Vasa
1 references·16 citing·27 second hop
Degradation of polyethylene glycol and hemicellulose in the Vasa (2007)Degradation of polyethylene glycol and he…Deterioration of the seventeenth-century warship Vasa by internal formation of sulphuric acid (2002)Deterioration of the seventee…Organosilicons of different molecular size and chemical structure as consolidants for waterlogged archaeological wood – a new reversible and retreatable method (2020)Organosilicons of different m…Navigating conservation strategies: linking material research on alum-treated wood from the Oseberg collection to conservation decisions (2018)Navigating conservation strat…New insights into the degradation processes and influence of the conservation treatment in alum-treated wood from the Oseberg collection (2017)New insights into the degrada…Chemical characterisation of the whole plant cell wall of archaeological wood: an integrated approach (2017)Chemical characterisation of …Prediction of tensile strength in iron-contaminated archaeological wood by FT-IR spectroscopy – a study of degradation in recent oak andVasaoak (2016)Prediction of tensile strengt…Mechanical strength studies on degraded waterlogged wood treated with sugars (2016)Mechanical strength studies o…TREATMENT OF WATERLOGGED ARCHAEOLOGICAL WOOD USING CHITOSAN- AND MODIFIED CHITOSAN SOLUTIONS. PART 1: CHEMICAL COMPATIBILITY AND MICROSTRUCTURE (2015)TREATMENT OF WATERLOGGED ARCH…Archaeological wood degradation at the site of Biskupin (Poland): Wet chemical analysis and evaluation of specific Py-GC/MS profiles (2015)Archaeological wood degradati…Sulfur and iron accumulation in three marine-archaeological shipwrecks in the Baltic Sea: The Ghost, the Crown and the Sword (2014)Sulfur and iron accumulation …Multifunctional supramolecular polymer networks as next-generation consolidants for archaeological wood conservation (2014)Multifunctional supramolecula…Study of Fe(II) sulphides in waterlogged archaeological wood (2013)Study of Fe(II) sulphides in …Sulfur and iron analyses of marine archaeological wood in shipwrecks from the Baltic Sea and Scandinavian waters (2012)Sulfur and iron analyses of m…Distribution of iron and sulfur and their speciation in relation to degradation processes in wood from the Swedish warship Vasa (2011)Distribution of iron and sulf…Analytical Aspects of Waterlogged Wood in Historical Shipwrecks (2011)Analytical Aspects of Waterlo…The Effects of the Ammonia Neutralizing Treatment on Marine ArchaeologicalVasaWood (2010)The Effects of the Ammonia Ne…Analysis of acids and degradation products related to iron and sulfur in the Swedish warship Vasa (2008)Analysis of acids and degrada…New materials used for the consolidation of archaeological wood–past attempts, present struggles, and future requirements (2012)Natural polymers as alternative consolidants for the preservation of waterlogged archaeological wood (2014)The Clacton Spear: The Last One Hundred Years (2015)Hygroscopicity of Waterlogged Archaeological Wood from Xiaobaijiao No.1 Shipwreck Related to Its Deterioration State (2020)Sulfur accumulation in the timbers of King Henry VIII's warship Mary Rose : A pathway in the sulfur cycle of conservation concern (2005)Sulfur and iron in shipwrecks cause conservation concerns (2006)Analytical Instrumental Techniques to Study Archaeological Wood Degradation (2015)Dendrochronological dating of the Viking Age ship burials at Oseberg, Gokstad and Tune, Norway (1993)Potential of pyrolysis-GC–MS molecular fingerprint as a proxy of Modern Age Iberian shipwreck wood preservation (2017)Protective effect of linseed oil varnish on archaeological wood treated with alum (2018)Analytical Pyrolysis and Mass Spectrometry to Characterise Lignin in Archaeological Wood (2020)Microbial degradation of waterlogged archaeological wood (2012)The Vasa experience with polyethylene glycol: A conservator's perspective (2012)Halloysite Nanotubes Loaded with Calcium Hydroxide: Alkaline Fillers for the Deacidification of Waterlogged Archeological Woods (2018)Gap-Fillers for Wooden Artefacts Exposed Outdoors—A Review (2021)Stabilisation of waterlogged archaeological wood: the application of structured-light 3D scanning and micro computed tomography for analysing dimensional changes (2022)Imaging and Assessment of the Microstructure of Conserved Archaeological Pine (2023)Mitigation strategies for radiation damage in the analysis of ancient materials (2014)Conservation of Waterlogged Wood—Past, Present and Future Perspectives (2021)Long-term alteration processes of iron fasteners extracted from archaeological shipwrecks aged in biologically active waterlogged media (2021)Characterization of degradation and iron deposits of the wood of Nanhai I shipwreck (2022)Scanning Electron Microscopy Protocol for Studying Anatomy of Highly Degraded Waterlogged Archaeological Wood (2022)Chemical analyses of extremely degraded wood using analytical pyrolysis and inductively coupled plasma atomic emission spectroscopy (2015)Correlation between sulfur accumulation and microbial wood degradation on shipwreck timbers (2019)Raman Spectroscopic Investigation of Iron-Tannin Precipitates in Waterlogged Archaeological Oak (2021)The short-term degradation of cellulosic pulp in lake water and peat soil: A multi-analytical study from the micro to the molecular level (2016)A critical evaluation of the degradation state of dry archaeological wood from Egypt by SEM, ATR-FTIR, wet chemical analysis and Py(HMDS)-GC-MS (2017)
this work references cited by second hop

References

  • 2002Deterioration of the seventeenth-century warship Vasa by internal formation of sulphuric acid202 cited

Cited by

  • 2012Sulfur and iron analyses of marine archaeological wood in shipwrecks from the Baltic Sea and Scandinavian waters75 cited
  • 2015Archaeological wood degradation at the site of Biskupin (Poland): Wet chemical analysis and evaluation of specific Py-GC/MS profiles69 cited
  • 2014Multifunctional supramolecular polymer networks as next-generation consolidants for archaeological wood conservation68 cited
  • 2020Organosilicons of different molecular size and chemical structure as consolidants for waterlogged archaeological wood – a new reversible and retreatable method50 cited
  • 2014Sulfur and iron accumulation in three marine-archaeological shipwrecks in the Baltic Sea: The Ghost, the Crown and the Sword49 cited
  • 2008Analysis of acids and degradation products related to iron and sulfur in the Swedish warship Vasa48 cited
  • 2013Study of Fe(II) sulphides in waterlogged archaeological wood43 cited
  • 2017New insights into the degradation processes and influence of the conservation treatment in alum-treated wood from the Oseberg collection42 cited
  • 2011Distribution of iron and sulfur and their speciation in relation to degradation processes in wood from the Swedish warship Vasa37 cited
  • 2016Mechanical strength studies on degraded waterlogged wood treated with sugars36 cited
  • 2011Analytical Aspects of Waterlogged Wood in Historical Shipwrecks32 cited

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  • 2016Prediction of tensile strength in iron-contaminated archaeological wood by FT-IR spectroscopy – a study of degradation in recent oak andVasaoak31 cited
  • 2015TREATMENT OF WATERLOGGED ARCHAEOLOGICAL WOOD USING CHITOSAN- AND MODIFIED CHITOSAN SOLUTIONS. PART 1: CHEMICAL COMPATIBILITY AND MICROSTRUCTURE30 cited
  • 2017Chemical characterisation of the whole plant cell wall of archaeological wood: an integrated approach30 cited
  • 2018Navigating conservation strategies: linking material research on alum-treated wood from the Oseberg collection to conservation decisions28 cited
  • 2010The Effects of the Ammonia Neutralizing Treatment on Marine ArchaeologicalVasaWood24 cited