Home Three-dimensional visualisation of bacterial decay in individual tracheids of Pinus sylvestris
Article
Licensed
Unlicensed Requires Authentication

Three-dimensional visualisation of bacterial decay in individual tracheids of Pinus sylvestris

  • Charlotte Björdal , Thomas Nilsson and Stig Bardage
Published/Copyright: June 1, 2005
Become an author with De Gruyter Brill
Holzforschung
From the journal Volume 59 Issue 2

Abstract

Archaeological wood from waterlogged environments is mainly degraded by erosion bacteria. Under the light microscope, a distinct chequered decay pattern is often found in superficially to moderately degraded wood. Serial sections of Pinus sylvestris, degraded by erosion bacteria, were examined to gain an understanding of this phenomenon. An advanced image analysis program was used to transform series of 2-dimensional (2-D) images from attacked fibres into 3-D illustrations in order to visualise variations in decay along 340 μm of the tracheid.

Degradation by erosion bacteria proceeded from the cell lumen into the secondary cell wall. Attack was initiated at several positions in the same tracheid. The chequered pattern observed in transverse sections, often referred to as degraded fibres adjacent to sound ones, shows only the decay status at the section point. A sound cell wall does not necessarily indicate a sound fibre. A fibre in moderately degraded wood often consists of both degraded and sound areas.

:

Corresponding author

References

Bardage, S.L. 2001. Three-dimensional modeling and visualization of whole Norway spruce latewood tracheids. Wood Fiber Sci.33(4):627–638.Search in Google Scholar

Bardage, S.L., G. Daniel and A. Singh. 2002. Three-dimensional analysis of the collapse behavior of kraft-cooked Norway spruce fibers. Wood Fiber Sci.34(3):382–390.Search in Google Scholar

Barghoorn, E.S. 1949. Degradation of plant remains in organic sediments. Bot. Mus. Leaflets Harv. Univ.14(1):1–33.Search in Google Scholar

Björdal, C.G., T. Nilsson and G. Daniel. 1999. Microbial decay of waterlogged archaeological wood found in Sweden. Int. Biodeterioration Biodegradation43(1–2):63–73.10.1016/S0964-8305(98)00070-5Search in Google Scholar

Björdal, C., G. Daniel and T. Nilsson. 2000. Depth of burial, an important factor in controlling bacterial decay of waterlogged archaeological poles. Int. Biodeterioration Biodegradation45:15–26.10.1016/S0964-8305(00)00035-4Search in Google Scholar

Blanchette, R.A. 1995. Biodeterioration of archaeological wood. CAB Abst.9(2):113–127.Search in Google Scholar

Blanchette, R.A., T. Nilsson, G. Daniel and A.R. Abad. 1990. Biological degradation of wood. In: Rowell, R.J. and R.J. Barbour (Eds.) Archaeological wood. American Chemical Society, Washington, DC. pp 141–174.Search in Google Scholar

Boutelje, J. and A.F. Bravery. 1968. Observations on the bacterial attack of piles supporting a Stockholm building. J. Inst. Wood Sci.20:47–57.Search in Google Scholar

Daniel, G.F. and T. Nilsson. 1986. Ultrastructural observations on wood degrading erosion bacteria. The International Research Group on Wood Preservation. Document IRG/WP/1283.Search in Google Scholar

Daniel, G. and T. Nilsson. 1997. Developments in the study of soft rot and bacterial decay. In: Bruce, A. and J.W. Palfreyman (Eds.) Forest Products Biotechnology. Taylor & Francis, London. pp 37–62.Search in Google Scholar

Greaves, H. 1969. Micromorphology of the bacterial attack of wood. Wood Sci. Technol.3:150–166.10.1007/BF00639638Search in Google Scholar

Grinda, M. 1997. Some experiences with attack of microorganisms on wooden constructions supporting foundations of houses and bridges. The International Research Group on Wood Preservation. Document IRG/WP 97 10132.Search in Google Scholar

Gustavsson, T., P. Pascher and K. Caidahl. 1993. Model based dynamic 3D reconstruction and display of the left ventricle from 2D cross-sectional echocardiograms. Comput. Med. Imaging Graphics17(4/5):273–278.10.1016/0895-6111(93)90017-HSearch in Google Scholar

Harmsen, L. and T.V. Nissen. 1965. Der Bakterienangriff auf Holz. Holz Roh- Werkst.23(10):389–393.10.1007/BF02613040Search in Google Scholar

Kim, Y.S. and A.P. Singh. 2000. Micromorphological characteristics of wood biodegradation in wet environments: a review. IAWA J.21(2):135–155.10.1163/22941932-90000241Search in Google Scholar

Nilsson, T. and G.F. Daniel. 1983. Tunnelling bacteria. The International Research Group on Wood Preservation. Document IRG/WP/1186.Search in Google Scholar

Rowell, R.M. 1984. Penetration and reactivity of cell wall components. In: R.M Rowell (Ed.) The chemistry of solid wood. American Chemical Society, Washington, DC. pp 175–210.Search in Google Scholar

Sato, M., M.M. Henson, O.W. Henson Jr. and D.W. Smith. 1999. The innervation of outer hair cells: 3D reconstruction from TEM serial sections in Japanese macaque. Hear. Res.135:29–38.10.1016/S0378-5955(99)00086-6Search in Google Scholar

Schmidt, O. and W. Liese. 1994. Occurrence and significance of bacteria in wood. Holzforschung48:271–277.10.1515/hfsg.1994.48.4.271Search in Google Scholar

Singh, A.P. and J.A. Butcher. 1991. Bacterial degradation of wood cell walls: a review of degradation patterns. J. Inst. Wood Sci.12(3):143–157.Search in Google Scholar

Singh, A.P., T. Nilsson and G.F. Daniel. 1990. Bacterial attack of Pinus sylvestris wood under near anaerobic conditions. J. Inst. Wood Sci.11:237–249.Search in Google Scholar

Yamaguchi, K. and N. Goto. 1997. Three-dimensional structure of the human cerebellar dentate nucleus: a computerized reconstruction study. Anat. Embryol.196:343–348.10.1007/s004290050103Search in Google Scholar PubMed

Published Online: 2005-06-01
Published in Print: 2005-02-01

©2005 by Walter de Gruyter Berlin New York

Articles in the same Issue

  1. Obituary
  2. The role of non-phenolic lignin in chlorate-forming reactions during chlorine dioxide bleaching of softwood kraft pulp
  3. Study of the oxygen effect on mechanical pulp lignin using an improved lignin isolation method
  4. Quantitative 1H NMR analysis of alkaline polysulfide solutions
  5. A comparative study on the degradation of cotton linters induced by carbonate and hydroxyl radicals generated from peroxynitrite
  6. The carbonate radical as one-electron oxidant of carbohydrates in alkaline media
  7. Leaf-fiber lignins of Phormium varieties compared bysolid-state 13C NMR spectroscopy
  8. Antifungal activity of iridoid glycosides from the heartwood of Gmelina arborea
  9. Antioxidant activity of different components of pine species
  10. Dislocations in Norway spruce fibres and their effect on properties of pulp and paper
  11. Isolation and identification of antifungal compounds from Amboyna wood
  12. Biomechanical pulping of spruce wood chips with Streptomyces cyaneus CECT 3335 and handsheet characterization
  13. Three-dimensional visualisation of bacterial decay in individual tracheids of Pinus sylvestris
  14. Mass loss and moisture dynamics of Scots pine (Pinus sylvestris L.) exposed outdoors above ground in Sweden
  15. The influence of cation and anion structure of new quaternary ammonium salts on adsorption and leaching
  16. Speciation of arsenic and chromium in the leachate from chromated copper arsenate (CCA) type C treated southern pine (Pinus spp.)
  17. Metal chelation studies relevant to wood preservation.1. Complexation of propyl gallate with Fe2+
  18. Comparison of UV and confocal Raman microscopy to measure the melamine–formaldehyde resin content within cell walls of impregnated spruce wood
  19. Comparison of Pinus taeda L. wood property calibrations based on NIR spectra from the radial-longitudinal and radial-transverse faces of wooden strips
  20. Detection of failures of adhesively bonded joints using the acoustic emission method
  21. Effect of cross-sectional change of a board specimen on stress wave velocity determination
  22. Comments on the experimental methodology for determination of the hygro-mechanical properties of wood
  23. Properties of chemically and mechanically isolated fibres of spruce (Picea abies [L.] Karst.). Part 1: Structural and chemical characterisation
  24. Properties of chemically and mechanically isolated fibres of spruce (Picea abies[L.] Karst.). Part 2: Twisting phenomena
Downloaded on 16.9.2025 from https://www.degruyterbrill.com/document/doi/10.1515/HF.2005.028/html
Scroll to top button