Effect of Composting Site on Surrounding Soils and Vegetation

Effect of Composting Site on Surrounding Soils and Vegetation

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Author(s): Mahmoona Ashraf, Shanza Ashraf, Abaid Ullah, Sajjad Ahmad, Samia Ashraf

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DOI: 10.18483/ijSci.2422 34 108 9-16 Volume 10 - Apr 2021


Composting is regarded as profitable and ecological way to lessen the biodegradable waste dumping in landfills.. In this study, the effects of pit (1 cu yd) composting at Composting Site of CEES, PU on properties of adjoining soil, guava (Psidiumguajava) and Kachnar (Bauhiniavariegata) trees; assessed on the basis of selected soil properties and morphological features of trees. The results showed that the compost prepared by pit composting at the composting site had following properties: bulk density 0.75±0.06g/cm3, water holding capacity 38.67±7.72 %, pH 8.49± 0.31 and electrical conductivity 1.43±0.58, total Kjeldahl nitrogen 3.18±0.99, total organic carbon 0.39±0.12, organic matter 0.67± 0.06, calcium 1.04± 0.31, sodium 0.25±0.15, and potassium 130.11±6.94. All the quality parameters of compost were in the typical range of standard set by U.S Composting Council. The soil in the adjoining areas of composting site showed significant improvement in the quality than soils located far away from the composting time. It was mainly because of flow of runoff from pit composting site, as well as, due to lateral flow of compost tea from the compost pit to the surrounding soils. Both guava and kachnar trees showed highly significant increase in plant growth as compared to similar trees growing at soils far away from the composting site.


Landfills, Pit Compositing, Lateral Flow, Growth, Biodegradable, Dumping, Morphological


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International Journal of Sciences is Open Access Journal.
This article is licensed under a Creative Commons Attribution 4.0 International (CC BY 4.0) License.
Author(s) retain the copyrights of this article, though, publication rights are with Alkhaer Publications.

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