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Effect of timber removal on the total nutrient fluxes from a freshwater‐supplying forested watershed

Effects of 18% thinning on nutrient fluxes were investigated in a broadleaf forest. Streamflow and suspended sediment were sampled during the calibration and treatment periods for the treatment and control watersheds to determine total nutrient fluxes through bedload sediment and runoff. Streamflow...

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Published in:Water environment research 2022-07, Vol.94 (7), p.e10764-n/a
Main Authors: Yurtseven, Ibrahim, Gökbulak, Ferhat, Serengil, Yusuf, Erdoğan, Betül Uygur, Demir, Reyhan
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Gökbulak, Ferhat
Serengil, Yusuf
Erdoğan, Betül Uygur
Demir, Reyhan
description Effects of 18% thinning on nutrient fluxes were investigated in a broadleaf forest. Streamflow and suspended sediment were sampled during the calibration and treatment periods for the treatment and control watersheds to determine total nutrient fluxes through bedload sediment and runoff. Streamflow was measured, and water samples were collected from the streams of the watersheds. The volume of the bedload deposited in both weirs' pools was measured, and sediment deposits were sampled at the ends of the calibration and treatment periods. Water and sediment samples were analyzed for calcium (Ca2+), magnesium (Mg2+), Kjeldahl nitrogen (KN), sodium (Na+), potassium (K+), iron (Fe3+), and sulfur (S2−). Results showed that there was only a significant increase in KN loss from 0.01 kg/ha to 0.10 kg/ha and from 0.04 kg/ha to 2.41 kg/ha in the second and the third post‐treatment years, respectively (P 
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Streamflow and suspended sediment were sampled during the calibration and treatment periods for the treatment and control watersheds to determine total nutrient fluxes through bedload sediment and runoff. Streamflow was measured, and water samples were collected from the streams of the watersheds. The volume of the bedload deposited in both weirs' pools was measured, and sediment deposits were sampled at the ends of the calibration and treatment periods. Water and sediment samples were analyzed for calcium (Ca2+), magnesium (Mg2+), Kjeldahl nitrogen (KN), sodium (Na+), potassium (K+), iron (Fe3+), and sulfur (S2−). Results showed that there was only a significant increase in KN loss from 0.01 kg/ha to 0.10 kg/ha and from 0.04 kg/ha to 2.41 kg/ha in the second and the third post‐treatment years, respectively (P &lt; 0.05). Thinning was not intensive to change nutrient outflow in the study site. Practitioner Points The 18% thinning was not intensive enough to increase the total nutrient flux, deteriorate water chemical quality, and hence threaten aquatic life in the stream water. Significant increases were found only in KN outflow after timber removal. If there is no information about the effect of timber harvest on nutrient loss in a specific watershed, the application of evenly distributed low‐intensity timber harvest may be a good option to protect stream water quality in forested watersheds. Further investigations are needed about the effects of various timber harvest intensities on physical water quality (odor, color, turbidity, taste, temperature, etc.) and biological characteristics (population and biodiversity of aquatic organisms) of the stream water for making better water management plans. Effects of 18% thinning on nutrient fluxes were investigated in a broadleaf forest. Results showed that only Kjeldahl nitrogen (KN) outflow significantly increased from 0.01 kg/ha to 0.10 kg/ha in the second and from 0.04 kg/ha to 2.41 kg/ha in the third post‐treatment years after timber removal (P &lt; 0.05). Eighteen percent thinning was not intensive to change nutrient outflow in the study. 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Streamflow and suspended sediment were sampled during the calibration and treatment periods for the treatment and control watersheds to determine total nutrient fluxes through bedload sediment and runoff. Streamflow was measured, and water samples were collected from the streams of the watersheds. The volume of the bedload deposited in both weirs' pools was measured, and sediment deposits were sampled at the ends of the calibration and treatment periods. Water and sediment samples were analyzed for calcium (Ca2+), magnesium (Mg2+), Kjeldahl nitrogen (KN), sodium (Na+), potassium (K+), iron (Fe3+), and sulfur (S2−). Results showed that there was only a significant increase in KN loss from 0.01 kg/ha to 0.10 kg/ha and from 0.04 kg/ha to 2.41 kg/ha in the second and the third post‐treatment years, respectively (P &lt; 0.05). Thinning was not intensive to change nutrient outflow in the study site. Practitioner Points The 18% thinning was not intensive enough to increase the total nutrient flux, deteriorate water chemical quality, and hence threaten aquatic life in the stream water. Significant increases were found only in KN outflow after timber removal. If there is no information about the effect of timber harvest on nutrient loss in a specific watershed, the application of evenly distributed low‐intensity timber harvest may be a good option to protect stream water quality in forested watersheds. Further investigations are needed about the effects of various timber harvest intensities on physical water quality (odor, color, turbidity, taste, temperature, etc.) and biological characteristics (population and biodiversity of aquatic organisms) of the stream water for making better water management plans. Effects of 18% thinning on nutrient fluxes were investigated in a broadleaf forest. Results showed that only Kjeldahl nitrogen (KN) outflow significantly increased from 0.01 kg/ha to 0.10 kg/ha in the second and from 0.04 kg/ha to 2.41 kg/ha in the third post‐treatment years after timber removal (P &lt; 0.05). Eighteen percent thinning was not intensive to change nutrient outflow in the study. 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Streamflow and suspended sediment were sampled during the calibration and treatment periods for the treatment and control watersheds to determine total nutrient fluxes through bedload sediment and runoff. Streamflow was measured, and water samples were collected from the streams of the watersheds. The volume of the bedload deposited in both weirs' pools was measured, and sediment deposits were sampled at the ends of the calibration and treatment periods. Water and sediment samples were analyzed for calcium (Ca2+), magnesium (Mg2+), Kjeldahl nitrogen (KN), sodium (Na+), potassium (K+), iron (Fe3+), and sulfur (S2−). Results showed that there was only a significant increase in KN loss from 0.01 kg/ha to 0.10 kg/ha and from 0.04 kg/ha to 2.41 kg/ha in the second and the third post‐treatment years, respectively (P &lt; 0.05). Thinning was not intensive to change nutrient outflow in the study site. Practitioner Points The 18% thinning was not intensive enough to increase the total nutrient flux, deteriorate water chemical quality, and hence threaten aquatic life in the stream water. Significant increases were found only in KN outflow after timber removal. If there is no information about the effect of timber harvest on nutrient loss in a specific watershed, the application of evenly distributed low‐intensity timber harvest may be a good option to protect stream water quality in forested watersheds. Further investigations are needed about the effects of various timber harvest intensities on physical water quality (odor, color, turbidity, taste, temperature, etc.) and biological characteristics (population and biodiversity of aquatic organisms) of the stream water for making better water management plans. Effects of 18% thinning on nutrient fluxes were investigated in a broadleaf forest. Results showed that only Kjeldahl nitrogen (KN) outflow significantly increased from 0.01 kg/ha to 0.10 kg/ha in the second and from 0.04 kg/ha to 2.41 kg/ha in the third post‐treatment years after timber removal (P &lt; 0.05). Eighteen percent thinning was not intensive to change nutrient outflow in the study. Evenly distributed selective cutting with slight intensity may be a good option to protect streamwater quality in forested watersheds.</abstract><cop>Alexandria</cop><pub>Blackwell Publishing Ltd</pub><doi>10.1002/wer.10764</doi><tpages>17</tpages><orcidid>https://orcid.org/0000-0002-8772-9704</orcidid><orcidid>https://orcid.org/0000-0002-8179-4564</orcidid><orcidid>https://orcid.org/0000-0003-4778-9953</orcidid><orcidid>https://orcid.org/0000-0002-0204-0829</orcidid><orcidid>https://orcid.org/0000-0001-5761-9822</orcidid></addata></record>
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subjects Aquatic organisms
Aquatic populations
Bed load
Biodiversity
Calcium
Calcium ions
Calibration
Colour
Fluxes
forest harvesting
Forest watersheds
Hydroxyapatite
Inland water environment
Iron
Magnesium
management option
nutrient flux
Nutrient loss
Nutrient removal
Odour
Outflow
Potassium
Removal
Rivers
Runoff
Sediment deposits
Sediment samplers
Sediment samples
Sediment transport
Sediments
Sodium
Stream discharge
Stream flow
Stream water
Streams
Sulfur
Sulphur
Suspended sediments
Thinning
Timber
Turbidity
Water analysis
Water management
Water quality
Water sampling
Weirs
title Effect of timber removal on the total nutrient fluxes from a freshwater‐supplying forested watershed
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