Modeling air pollutant removal, carbon storage, and CO2 sequestration potential of urban forests in Scotlandville, Louisiana, USA

Understanding an urban forest’s structure, function, and value can promote management decisions that will improve environmental quality and human health. Using i-Tree Eco software and its sampling and data collection protocol, an assessment of the baseline condition, ecological function, and value o...

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Main Authors: Ning Zhu H, Chambers R, Abdollahi K
Format: Article
Language:English
Published: Italian Society of Silviculture and Forest Ecology (SISEF) 2016-12-01
Series:iForest - Biogeosciences and Forestry
Subjects:
Online Access:https://iforest.sisef.org/contents/?id=ifor1845-009
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author Ning Zhu H
Chambers R
Abdollahi K
author_facet Ning Zhu H
Chambers R
Abdollahi K
author_sort Ning Zhu H
collection DOAJ
description Understanding an urban forest’s structure, function, and value can promote management decisions that will improve environmental quality and human health. Using i-Tree Eco software and its sampling and data collection protocol, an assessment of the baseline condition, ecological function, and value of the urban forests in Scotlandville (Louisiana, USA) was conducted during 2014. A stratified (by land use type) random sample plot map of the town was generated. Data from 170 field plots located throughout Scotlandville were collected, including tree species, diameter at breast height, total tree height, height to live top, height to crown base, crown width, crown dieback, crown light exposure, percent impervious surface under the tree, and direction and distance to building. Data were then entered into i-Tree Eco v5.0 and analyzed. Modeling results indicated that there are a total of 31 species and an estimated 239.000 trees in Scotlandville with a tree canopy cover of 23.7 percent; the three most common species are Black willow (Salix nigra), Water oak (Quercus nigra), and American elm (Ulmus americana); the overall tree density is 77 trees per hectare and trees with diameters of more than 15 cm (6 inches) constitute 56.5% of the population. The model estimated that annually, the urban forests in Scotlandville remove 96 tons of air pollutants; gross sequestration is about 3.880 tons of carbon and net carbon sequestration is about 3.650 tons. Each year, trees in Scotlandville are estimated to store 88.700 tons of carbon, produce 9.720 tons of oxygen, reduce runoff by 121.200 m3, reduce energy-related costs by $324.000 USD, and provide an additional $52.595 in value by reducing the amount of carbon released by power plants (a reduction of 739 tons of carbon emissions). The structural value for Scotlandville community forest is estimated at $185 million and the annual ecological functional value is estimated at 9 million USD. These results provide baseline information for management recommendations to maximize the ecological benefits provided by trees.
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spelling doaj.art-fe1e78fabfd34200899aab8935e957962022-12-22T02:20:52ZengItalian Society of Silviculture and Forest Ecology (SISEF)iForest - Biogeosciences and Forestry1971-74581971-74582016-12-019186086710.3832/ifor1845-0091845Modeling air pollutant removal, carbon storage, and CO2 sequestration potential of urban forests in Scotlandville, Louisiana, USANing Zhu H0Chambers R1Abdollahi K2Urban Forestry and Natural Resources Department, P.O. Box 11686, Southern University and A&M College, Baton Rouge, LA 70813 (USA)USDA Natural Resource Conservation Service. 1126 Little Street, Camden, SC 29020 (USA)Urban Forestry and Natural Resources Department, Southern University Agricultural Research and Extension Center, P.O. Box 10771, Southern University and A&M College, Baton Rouge, LA 70813 (USA)Understanding an urban forest’s structure, function, and value can promote management decisions that will improve environmental quality and human health. Using i-Tree Eco software and its sampling and data collection protocol, an assessment of the baseline condition, ecological function, and value of the urban forests in Scotlandville (Louisiana, USA) was conducted during 2014. A stratified (by land use type) random sample plot map of the town was generated. Data from 170 field plots located throughout Scotlandville were collected, including tree species, diameter at breast height, total tree height, height to live top, height to crown base, crown width, crown dieback, crown light exposure, percent impervious surface under the tree, and direction and distance to building. Data were then entered into i-Tree Eco v5.0 and analyzed. Modeling results indicated that there are a total of 31 species and an estimated 239.000 trees in Scotlandville with a tree canopy cover of 23.7 percent; the three most common species are Black willow (Salix nigra), Water oak (Quercus nigra), and American elm (Ulmus americana); the overall tree density is 77 trees per hectare and trees with diameters of more than 15 cm (6 inches) constitute 56.5% of the population. The model estimated that annually, the urban forests in Scotlandville remove 96 tons of air pollutants; gross sequestration is about 3.880 tons of carbon and net carbon sequestration is about 3.650 tons. Each year, trees in Scotlandville are estimated to store 88.700 tons of carbon, produce 9.720 tons of oxygen, reduce runoff by 121.200 m3, reduce energy-related costs by $324.000 USD, and provide an additional $52.595 in value by reducing the amount of carbon released by power plants (a reduction of 739 tons of carbon emissions). The structural value for Scotlandville community forest is estimated at $185 million and the annual ecological functional value is estimated at 9 million USD. These results provide baseline information for management recommendations to maximize the ecological benefits provided by trees.https://iforest.sisef.org/contents/?id=ifor1845-009Urban ForestPollution RemovalCarbon SequestrationCarbon StorageRunoff ReductionEnergy SavingClimate Change
spellingShingle Ning Zhu H
Chambers R
Abdollahi K
Modeling air pollutant removal, carbon storage, and CO2 sequestration potential of urban forests in Scotlandville, Louisiana, USA
iForest - Biogeosciences and Forestry
Urban Forest
Pollution Removal
Carbon Sequestration
Carbon Storage
Runoff Reduction
Energy Saving
Climate Change
title Modeling air pollutant removal, carbon storage, and CO2 sequestration potential of urban forests in Scotlandville, Louisiana, USA
title_full Modeling air pollutant removal, carbon storage, and CO2 sequestration potential of urban forests in Scotlandville, Louisiana, USA
title_fullStr Modeling air pollutant removal, carbon storage, and CO2 sequestration potential of urban forests in Scotlandville, Louisiana, USA
title_full_unstemmed Modeling air pollutant removal, carbon storage, and CO2 sequestration potential of urban forests in Scotlandville, Louisiana, USA
title_short Modeling air pollutant removal, carbon storage, and CO2 sequestration potential of urban forests in Scotlandville, Louisiana, USA
title_sort modeling air pollutant removal carbon storage and co2 sequestration potential of urban forests in scotlandville louisiana usa
topic Urban Forest
Pollution Removal
Carbon Sequestration
Carbon Storage
Runoff Reduction
Energy Saving
Climate Change
url https://iforest.sisef.org/contents/?id=ifor1845-009
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AT chambersr modelingairpollutantremovalcarbonstorageandco2sequestrationpotentialofurbanforestsinscotlandvillelouisianausa
AT abdollahik modelingairpollutantremovalcarbonstorageandco2sequestrationpotentialofurbanforestsinscotlandvillelouisianausa