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http://www.scirp.org/journal/PaperInformation.aspx?PaperID=50600#.VEX6YVfHRK0
Author(s)
In the early 1940’s, during
the early stages of the Manhattan Project (WWII), of rural communities in
Anderson County, Tennessee was rapidly converted into laboratory facilities and
the city of Oak Ridge. The environment that became Oak Ridge not only
experienced pollutants from the laboratory activities, but also alterations
from the land-use change from rural to urban areas.
Therefore, a study was conducted to determine the impacts of land-use change
from rural to urban area on 1) street tree diversity and performance; and 2)
the biological, chemical and physical properties, and nutrient dynamics of
street tree ecosystem soils. There were a total of 607 street trees, composed of
37 different species, on the five main roadways in Oak Ridge, Tennessee. The
street tree inventory revealed that the street tree ecosystems had a high
relative abundance of Acer rubrum (21.91%)
and Pyrus calleryana (19.93%). Chemical,
rather than physical, soil and site properties in street tree ecosystems had
the greatest impact on street tree performance. Soils differed street by street
in their biological, chemical, and physical properties but were not influenced
by traffic rates. There were also differences in soil microbial biomass carbon
(MBC) during the winter on streets based on their diversity of trees; however,
the most diverse street was among the lowest in soil microbial biomass. Seasonally,
the winter proved to not only have greater amounts of soil microbial biomass
carbon and nitrogen (MBN), but significantly less extractable organic carbon
(EOC) and nitrogen (EON) and total labile carbon (TLC) than that in the spring.
Overall, this study provided insights into the post urbanization impacts on the
street trees, soils, sites, and nutrient dynamics within street tree ecosystems
of Oak Ridge.
KEYWORDS
Cite this paper
Turnbull, T. , Jean-Philippe, S. , Albright, R. ,
Buckley, D. , Schaeffer, S. and Wiseman, P. (2014) Investigating
Land-Use Change on Street Tree Ecosystems. Open Journal of Forestry, 4, 467-480. doi: 10.4236/ojf.2014.45051.
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