Reactions of the fauna on the bark of trees to the frequency of fires in a North American savanna
Summary
The arthropod communities living on the bark of the oak species Quercus macrocarpa and Q. ellipsoidalis were investigated in a North American oak savanna. Differences were found in the community structure of the arthropods living on the bark of these two tree species, although they have the same fissured bark type. In the North American oak savanna ecosystem the most important disturbance factor is fire, which maintains species richness. Highest numbers of species and specimens were found at moderately disturbed sites. Three main ecological groups of arthropods living on the bark of trees can be distinguished in relation to the degree of disturbance: (1) Inhabitants of bark of trees restricted to undisturbed sites: they do not occur in fire-disturbed areas; (2) Inhabitants of bark of trees adapted to a moderate degree of disturbance: many species occur in high numbers only in moderately disturbed areas; and (3) Specialist inhabitants of bark of trees in heavily disturbed areas. The number of specimens of these species increases per trunk with the frequency of disturbance.
Key words
Fire Oak savanna Tree bark Arthropod fauna North AmericaPreview
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References
- Basey JM, Jenkins SH, Busher PE (1988) Optimal central-place foraging by beavers: tree-size selection in relation to defensive chemicals of quaking aspen. Oecologia 76:278–282Google Scholar
- Brewer R, Merritt PG (1978) Wind throw and tree replacement in a climax beech-maple forest. Oikos 30:149–152Google Scholar
- Connell JH (1978) Diversity in tropical rain forests and coral reefs. Science 199:1302–1310Google Scholar
- Connell JH, Slatyer RO (1977) Mechanisms of succession in natural communities and their role in community stability and organization. Am nat 111:1119–1144Google Scholar
- Curtis JT (1959) The vegetation of Wisconsin. Univ Wisc Press, Madison, WIGoogle Scholar
- Denslow JS (1980) Patterns of plant species diversity during succession under different disturbance regimes. Oecologia 46:18–21Google Scholar
- Frissell SS (1973) The importance of fire as a natural ecological factor in Itasca State Park, Minnesota. Quaternary Res 3:397–407Google Scholar
- Grigal DF (1985) The landscape and soils of Cedar Creek Natural History Area. Naturalist 36 (4):8–15Google Scholar
- Grigal DF, Chamberlain LM, Finney HR, Wroblewski DV, Gross ER (1974) Soil of the Cedar Creek Natural History Area. Misc Rep 123, Univ of Minnesota Agr Exp Sta Rev Ecol Syst 5:25–37Google Scholar
- Haarstad J (1985) Adventures with Insects. Naturalist 36 (4):18–23Google Scholar
- Hudson AL (1985) A brief history of the Cedar Creek Natural History Area. Naturalist 36 (4):1–4Google Scholar
- Irving FD (1985) Field instruction in prescribed burning techniques at the University of Minnesota. Naturalist 36 (4):28–31Google Scholar
- Jacobs M (1988) The Tropical Rain Forest. Springer, Berlin Heidelberg New YorkGoogle Scholar
- Lang GE, Knight DH (1983) Tree growth, mortality recruitment, and canopy gap formation during a 10-year period in a tropical moist forest. Ecology 64:1075–1080Google Scholar
- Lieberman D, Lieberman M (1987) Forest tree growth and dynamics at La Selva, Costa Rica (1969–1982). J Trop Ecol 3:347–358Google Scholar
- Menges ES, Loucks OL (1984) Modeling a disease-caused patch disturbance: oak wilt in the midwestern United States. Ecology 65:487–498Google Scholar
- Moore JW (1973) A catalog of the flora of Cedar Creek Natural History Area, Anoka and Isanti counties, Minnesota. Bell Museum of Natural History, Univ of Minnesota, Occ Papers 12:1–28Google Scholar
- Mühlenberg M (1989) Freilandökologie. 2edn, Quelle & Meyer, HeidelbergGoogle Scholar
- Nicolai V (1986) The bark of trees: thermal properties, microclimate and fauna. Oecologia 69:148–160Google Scholar
- Nicolai V (1987a): Trees have also protection against the sun's rays. Reports of the DFG 2/86 german research: 9–11Google Scholar
- Nicolai V (1987b) Anpassunge rindenbesiedelnder Arthropoden an Borkenstruktur und Feinddruck. Spixiana (München) 10 (2):139–145Google Scholar
- Nicolai V (1989a) Thermal properties and fauna on the bark of trees in two different African ecosystems. Oecologia 80:421–430Google Scholar
- Nicolai V (1989b) Mikroklima und Fauna mitteleuropäischer und afrikanischr Baumrinden. Verh Ges Ökol 17:417–424Google Scholar
- Nicolai V (1990) The ecological roles of barks of trees during forest dynamics and their implication for practical forestry. Zool Jb Syst (in press)Google Scholar
- Pickett STA (1976) Succession: an evolutionary interpretation. Am Nat 110:107–119Google Scholar
- Pickett STA (1989) Space-for-time substitution as an alternative to long-term studies. In: Likens GE (ed). Long-term studies in ecology: approaches and alternatives. Springer, Berlin Heidelberg, New York, pp 110–135Google Scholar
- Pickett STA, Kolasa J, Armesto JJ, Colins SL (1989) The ecological concept of disturbance and its expression at various hierarchical levels. Oikos 54:129–136Google Scholar
- Pierce RL (1954) Vegetation cover types and land use history of the Cedar Creek Natural History Reservation, Anoka and Isanti counties, Minnesota. M.S. thesis, Univ of Minnesota, Minneapolis, MNGoogle Scholar
- Remmert H (1985) Was geschieht im Klimax-Stadium? Naturwiss 72:505–512Google Scholar
- Remmert H (1987) Sukzessionen im Klimax-System. Verh Ges Ökol 16:27–34Google Scholar
- Remmert H (1991) (ed) The mosaic-cycle concept of ecosystems. Ecol Studies 85Google Scholar
- Schrempf W (1986) Waldbauliche Untersuchungen im Fichten-Tannen-Buchen-Urwald Rothwald und in Urwald-Folgebeständen. Ph.D. thesis, Univ of Wien, 124 pp.Google Scholar
- Smith TM, Goodman PS (1987) Successional dynamics in an Acacia nilotica — Euclea divinorum savannah in Southern Africa. J Ecol 75:603–610Google Scholar
- Spies TA, Franklin JF (1989) Gap characteristics and vegetation response in coniferous forests of the pacific northwest. Ecology 70:543–545Google Scholar
- Stewart GH (1986) Population dynamics of a mountaine conifer forest, western cascade range, Oregon, U.S.A. Ecology 67:534–544Google Scholar
- Swain AM (1973) A history of fire and vegetation in northeastern Minnesota as recorded in Lake sediments. Quaternary Res 3:383–396Google Scholar
- Swaine MD, Hall JB (1988) The mosaic theory of forest regeneration and the determination of forest composition in Ghana. J Trop Ecol 4:253–269Google Scholar
- Tester JR (1989) Effects of fire frequency on oak savanna in east-central Minnesota. Bull Torrey Bot Club 116 (2):134–144Google Scholar
- Torquebian EF (1986) Mosaic patterns in dipterocarp rain forest in Indonesia, and its implication for practical forestry. J Trop Ecol 2:301–325Google Scholar
- Uhl C, Jordan CF (1984) Succession and nutrient dynamics following forest cutting and burning in Amazonia. Ecology 65:1476–1490Google Scholar
- Uhl C, Kauffman JB, Cummings DL (1988) Fire in the Venezuelan Amazon 2: environmental conditions necessary for forest fires in the evergreen rainforest of Venezuela. Oikos 53:176–184Google Scholar
- White AS (1983) The effects of thirteen years of annual prescribed burning on a Quercus ellipsoidalis community in Minnesota. Ecology 64:1081–1085Google Scholar
- Whitemore TL (1989) Canopy gaps and the two major groups of forest trees. Ecology 70:536–538Google Scholar
- Whitney GG (1984) Fifty years of change in the arboreal vegetation of Heart's content, an old-growth Hemlock-White Pine-Northern hardwood stand. Ecology 65:403–408Google Scholar
- Zackrisson O (1977) Influence of forest fires on the North Swedish boreal forest. Oikos 29:22–32Google Scholar