Hostname: page-component-848d4c4894-4rdrl Total loading time: 0 Render date: 2024-06-28T22:36:42.306Z Has data issue: false hasContentIssue false

Woodlands of the past — The excavation of wetland woods at Zwolle-Stadshagen (the Netherlands): Growth pattern and population dynamics of oak and ash

Published online by Cambridge University Press:  01 April 2016

U. Sass-Klaassen
Affiliation:
Netherlands Centre for Dendrochronology, Ring Foundation, P.O. Box 510, 8200 AM Lelystad, the Netherlands Wageningen University, Centre for Ecosystem Studies, Forest Ecology and Forest Management, P.O. Box 47, 6700 AA Wageningen, the Netherlands. Corresponding author. Email:ute.sassklaassen@wur.nl
E. Hanraets
Affiliation:
Netherlands Centre for Dendrochronology, Ring Foundation, P.O. Box 510, 8200 AM Lelystad, the Netherlands
Rights & Permissions [Opens in a new window]

Abstract

Core share and HTML view are not available for this content. However, as you have access to this content, a full PDF is available via the ‘Save PDF’ action button.

Dendrochronology has been used to date sub-fossil wood excavated from former wetland woods located in Zwolle-Stadshagen, the Netherlands. Tree-ring analysis was performed on oak and ash to gain insight into changes in the growth dynamics of the trees resulting from changes in external site conditions, particularly hydrology. In addition population dynamics of oak and ash were studied by observing the temporal distribution and mean age of the oak and ash trees in the period when the woodland existed. The results showed that woodlands with oak and ash at Zwolle-Stadshagen existed at least for a period of about 700 years, from ca. 150 BC to AD 580 (ca. 2200 - 1400 cal. BP). The oak and ash were slowly growing and showed alternating phases of normal and depressed growth. Growth depressions occurred with a frequency of about 20 to 40 years. Almost all of these depressions were synchronous with those in oaks from other - mainly wetland areas - in NW Europe. Consequently, a regional (climate) factor must be considered responsible for this phenomenon. By taking into account the specific growth conditions in wetland woods it is very likely that this factor is linked to site hydrology. Around AD 300 (ca. 1650 cal. BP) a remarkable shift in population dynamics occurred in both oak and ash with many new trees establishing. This indicates a period of striking changes in site hydrology preceding the collapse of the woodland starting around AD 530 (ca. 1420 cal. BP).

Type
Research Article
Copyright
Copyright © Stichting Netherlands Journal of Geosciences 2006

References

Baillie, M.G.L., 1994. Dendrochronology raises questions about the nature of the AD 536 dust-veil event. The Holocene 4: 212–217.CrossRefGoogle Scholar
Baillie, M.G.L., 1995. A Slice through Time: dendrochronology and precision dating. Batsford (London): 176 pp.Google Scholar
Baillie, M.G.L., 1996. Extreme environmental events and the linking of the tree-ring and ice-core records. In: Dean, J.S., Meko, D.M. & Swetnam, T.W. (eds): Tree Rings, Environment, and Humanity. Radiocarbon, Department of Geosciences, The University of Arizona (Tucson): 703–711.Google Scholar
Baillie, M., 1999. Exodus to Arthur: catastrophic encounters with comets. Batsford (London): 272 pp.Google Scholar
Billamboz, A., 1996. Tree rings and pile-dwellings in south-western Germany: Following in the footsteps of Bruno Huber. In: Dean, J.S., Meko, D.M. & Swetnam, T.W. (eds): Tree Rings, Environment, and Humanity. Radiocarbon 1996, Department of Geosciences, The University of Arizona (Tucson): 471–483.Google Scholar
Billamboz, A., 2002. Die dendrochronologische Heterokonnexion verschiedener Holzarten am Beispiel der metallzeitlichen Pfahlbausiedlungen Südwestdeutschlands. Aussagen aus Paläeoklimatischer und -ökologischer Sicht. In: Bräuning, A. (ed.): Zum Stand der Anwendung der Dendrochronologie in den Geowissenschaften. Stuttgarter Geogrqphische Studien 133: 43–57.Google Scholar
Crawford, R.M.M. & Braendle, R., 1996. Oxygen deprivation stress in a changing climate. Journal of Experimental Botany 47: 145–159.Google Scholar
Crawford, R.M.M., Jeffree, C.E. & Rees, W.G., 2003: Paludification and forest retreat in Northern oceanic environments. Annals of Botany 91: 213–226.Google Scholar
Friedrich, M., Remmele, S., Kromer, B., Spurk, M., Hofmann, J., Hurni, J-P., Kaiser, K.F. & Küppers, M., 2004. The 12.480-year Hohenheim oak and pine tree-ring chronology from Central Europe - A unique annual record for radiocarbon calibration and palaeoenvironment reconstructions, Radiocarbon 46: 1111–1122.CrossRefGoogle Scholar
Fritts, H.C., 1976. Tree Rings and Climate. Academic Press (New York): 567 pp.Google Scholar
Gill, C.J., 1970. The flooding tolerance of woody species - a review. Forestry Abstracts 31: 671–688.Google Scholar
Grissino-Mayer, H.D., 2001. Evaluating crossdating accuracy: A manual and tutorial for the computer program COFECHA. Tree-Ring Research 57: 205–221.Google Scholar
Heyworth, A., 1978. Submerged forests around the British Isles: their dating and relevance as indicators of post-glacial land and sea level changes. BAR International Series 51: 279–288.Google Scholar
Holmes, R.L., 1983. Computer-assisted quality control in tree-ring dating and measurement. Tree-Ring Bulletin 43: 69–78.Google Scholar
Jansma, E., 1995. RemembeRINGs. The Development and Application of Local and Regional Tree-Ring Chronologies of Oak for the Purposes of Archaeological and Historical Research in the Netherlands. PhD. Dissertation. University of Amsterdam. Nederlandse Archeologische Rapporten (NAR) 19: 149 pp.Google Scholar
Jansma, E., 1996. An 1100-Year Tree-Ring Chronology of Oak for the Dutch Coastal Region. In: Dean, J.S., Meko, D.M. & Swetnam, T.W. (eds): Tree Rings, Environment, and Humanity. Radiocarbon, Department of Geosciences, The University of Arizona (Tucson): 769–778.Google Scholar
Jelgersma, S., de Jong, J., Zagwijn, W.H. & van Regteren Altena, J.F., 1970. The coastal dunes of western Netherlands; Geology, vegetational history and archaeology. Mededelingen Rijksgeologische Dienst NS. 21: 93–167.Google Scholar
Keys, D., 1999. Catastrophe: an investigation into the origins of the modern world. Century (London): 368 pp.Google Scholar
Kooistra, M.J., Kooistra, L.I., van Rijn, P. & Sass-Klaassen, U., 2006. Woodlands of the past. The excavation of wetland woods at Zwolle-Stadshagen (the Netherlands) - Environmental reconstruction. Netherlands Journal of Geosciences 85 (1): 37–60.Google Scholar
Kozlowski, T.T., 1984. Flooding and plant growth. Academic Press (New York): 356 pp.Google Scholar
Lageard, J.G.A., Chambers, F.M. & Thomas, P.A., 1995. Recording and reconstruction of wood macrofossils three-dimensions. Journal of Archaeological Science 22: 561–567.Google Scholar
Leuschner, H.H., 1992. Subfossil trees. In: Bartholin., T. (ed.): Tree-Rings and Environment. Proceedings of the International Dendrochronological Symposium, Ystad, South Sweden. Lundqua Report 34: 193–197.Google Scholar
Leuschner, H.H., Sass-Klaassen, U., Jansma, E., Baillie, M.G.L. & Spurk, M., 2002. Subfossil European bog oaks: population dynamics and long-term growth depressions as indicators of changes in the Holocene hydro-regime and climate. The Holocene 12: 695–706.Google Scholar
Leuschner, H.H., Delorme, A. & Höfle, H.C., 1987. Dendrochronological study of oak trunks found in bogs in Northwest Germany. Proceedings of the International Symposium on ecological aspects of tree ring analysis. New York: 298–318.Google Scholar
Leuschner, H.H. & Sass-Klaassen, U., 2003. Subfossil oaks from bogs in NW Europe as a (dendro)archaeological archive. In: Bauerochse, A. & Hassmann, H. (eds), Peatlands; Proceedings of the Peatland Conference 2002 in Hannover: 210216. Rahden/Westf.:Leidorf, Germany: 210–216.Google Scholar
Munaut, A.V., 1967. Etude paleo-ecologique d’un gisement tourbeux situe á Terneuzen (Pays-Bas). [Paleoecological study of a peat deposit located in Terneuzen (the Netherlands)] Berichten van de Rijksdienst voor het Oudheidkundig Bodemonderzoek 17: 7–27.Google Scholar
Pilcher, J.R., Baillie, M.G.L., Brown, D.M. & McCormac, F.G., 1996. Hydrological data from the long Irish subfossil oak records. In: Dean, J.S., Meko, D.M. & Swetnam, T.W. (eds): Tree Rings, Environment, and Humanity. Radiocarbon, Department of Geosciences, The University of Arizona (Tucson): 259–264.Google Scholar
Pilcher, J.R, Baillie, M.G.L., Schmidt, B. & Becker, B., 1984. A 7272-Year tree-ring chronology for Western Europe. Nature 312: 150–52.Google Scholar
Riemer, T., 1994. Ueber die Varianz von Jahrringbreiten. Statistische Methoden fuer die Auswertung der jährlichen Dickenzuwaechse von Bäumen unter sich ändernden Lebensbedingungen. [Variance of tree-ring widths. Statistical methods for evaluation of the annual increment of trees under changing living conditions.] Ph.D. dissertation, University of Göttingen, Germany. Berichte des Forschungszentrums Waldökosysteme, Reihe A 121 (Göttingen, Germany): 375 pp.Google Scholar
Rinn, F., 1996. TSAP - Time Series Analysis Program. For applications in forestry, tree-ring laboratories and dendrochronology. Rinntech (Heidelberg).Google Scholar
Sass-Klaassen, U., 2002. Dendroarchaeology - success in the past and challenges for the future. Dendrochronologia 20: 87–93.Google Scholar
Sass-Klaassen, U., 2003. Veeneiken - sleutel tot het verleden landschap en klimaat? Nederlands Bosbouwtijdschrift 75: 32–38.Google Scholar
Sass-Klaassen, U., 2004. Exploring oaks in modern wetland woods in Europe to trace the climate signal in tree-ring series of sub-fossil bog oaks. In: Jansma, E. & Gaertner, H. (eds) TRACE, Tree Rings in Archeology, Climatology and Ecology 2: 67–72.Google Scholar
Sass-Klaassen, U. Poole, I., Wils, T. Helle, G., Schleser, G.H. & Van Bergen, P.F., 2005. Carbon and oxygen isotope dendrochronology in sub-fossil bog oak tree rings - a preliminary study. IAWA Journal 26: 121–136.Google Scholar
Schweingruber, F.H., 1996. Tree Rings and Environment. Dendroecology. Paul Haupt Verlag (Berne): 609 pp.Google Scholar
Siebel, H.N. & Bouwma, I.M., 1998. The occurrence of herbs and woody juveniles in a hardwood floodplain forest in relation to flooding and light. Journal of Vegetation Science 9: 623–630.Google Scholar
Spurk, M., Leuschner, H.H., Baillie, M.G.L., Briffa, K.R. & Friedrich, M., 2002. Depositional frequency of German subfossil oaks: climatically and non-climatically induced fluctuations in the Holocene. The Holocene 12: 707–715.Google Scholar
Vasilas, B., Vasilas, L., Thompson, J., Rizzo, A., Fuhrmann, J., Evans, T., Pesek, J. & Kunklea, K., 2004. Ectomycorrhizal mantles as indicators of hydrology for jurisdictional wetland determinations. Wetlands 24: 784–795.Google Scholar
Weeda, E., Westra, R., Westra, C. & Westra, T., 1988. Nederlandse Oeologische Flora; wilde planten en hun relaties, deel 1–5, IVN (Amsterdam).Google Scholar