Spatial Variability and Relationship of Mangrove Soil Organic Matter to Organic Carbon

Degradation and destruction of mangrove forests in many regions have resulted in the alteration of carbon cycling. Objectives of this study were established to answer the question regarding how much soil organic carbon (SOC) is stored in wetland soils in part of the upper northeastern Gulf of Thaila...

Full description

Bibliographic Details
Main Authors: Pasicha Chaikaew, Suchana Chavanich
Format: Article
Language:English
Published: Hindawi Limited 2017-01-01
Series:Applied and Environmental Soil Science
Online Access:http://dx.doi.org/10.1155/2017/4010381
id doaj-e8584497892f4a74a6f621bbc3c01047
record_format Article
spelling doaj-e8584497892f4a74a6f621bbc3c010472020-11-24T23:09:46ZengHindawi LimitedApplied and Environmental Soil Science1687-76671687-76752017-01-01201710.1155/2017/40103814010381Spatial Variability and Relationship of Mangrove Soil Organic Matter to Organic CarbonPasicha Chaikaew0Suchana Chavanich1Department of Environmental Science, Faculty of Science, Chulalongkorn University, Bangkok, ThailandDepartment of Marine Science, Faculty of Science, Chulalongkorn University, Bangkok, ThailandDegradation and destruction of mangrove forests in many regions have resulted in the alteration of carbon cycling. Objectives of this study were established to answer the question regarding how much soil organic carbon (SOC) is stored in wetland soils in part of the upper northeastern Gulf of Thailand and to what extent SOC is related to organic matter (OM). A total of 29 soil samples were collected in October 2015. Soil physiochemical analyses followed the standard protocol. Spatial distributions were estimated by a kriging method. Linear regression and coefficient were used to determine the suitable conversion factor for mangrove soils. The results showed that surface soil (0–5 cm) contained higher SOC content as compared to subsurface soil (5–10 cm). Considering a depth of 10 cm, this area had a high potential to sequester carbon with a mean ± standard deviation of 5.59±2.24%. The spatial variability of OM and SOC revealed that organic matter and carbon decreased with the distance from upstream areas toward the gulf. Based on the assumption that OM is 50% SOC, the conversion factor of 2 is recommended for more accuracy rather than the conventional factor of 1.724.http://dx.doi.org/10.1155/2017/4010381
collection DOAJ
language English
format Article
sources DOAJ
author Pasicha Chaikaew
Suchana Chavanich
spellingShingle Pasicha Chaikaew
Suchana Chavanich
Spatial Variability and Relationship of Mangrove Soil Organic Matter to Organic Carbon
Applied and Environmental Soil Science
author_facet Pasicha Chaikaew
Suchana Chavanich
author_sort Pasicha Chaikaew
title Spatial Variability and Relationship of Mangrove Soil Organic Matter to Organic Carbon
title_short Spatial Variability and Relationship of Mangrove Soil Organic Matter to Organic Carbon
title_full Spatial Variability and Relationship of Mangrove Soil Organic Matter to Organic Carbon
title_fullStr Spatial Variability and Relationship of Mangrove Soil Organic Matter to Organic Carbon
title_full_unstemmed Spatial Variability and Relationship of Mangrove Soil Organic Matter to Organic Carbon
title_sort spatial variability and relationship of mangrove soil organic matter to organic carbon
publisher Hindawi Limited
series Applied and Environmental Soil Science
issn 1687-7667
1687-7675
publishDate 2017-01-01
description Degradation and destruction of mangrove forests in many regions have resulted in the alteration of carbon cycling. Objectives of this study were established to answer the question regarding how much soil organic carbon (SOC) is stored in wetland soils in part of the upper northeastern Gulf of Thailand and to what extent SOC is related to organic matter (OM). A total of 29 soil samples were collected in October 2015. Soil physiochemical analyses followed the standard protocol. Spatial distributions were estimated by a kriging method. Linear regression and coefficient were used to determine the suitable conversion factor for mangrove soils. The results showed that surface soil (0–5 cm) contained higher SOC content as compared to subsurface soil (5–10 cm). Considering a depth of 10 cm, this area had a high potential to sequester carbon with a mean ± standard deviation of 5.59±2.24%. The spatial variability of OM and SOC revealed that organic matter and carbon decreased with the distance from upstream areas toward the gulf. Based on the assumption that OM is 50% SOC, the conversion factor of 2 is recommended for more accuracy rather than the conventional factor of 1.724.
url http://dx.doi.org/10.1155/2017/4010381
work_keys_str_mv AT pasichachaikaew spatialvariabilityandrelationshipofmangrovesoilorganicmattertoorganiccarbon
AT suchanachavanich spatialvariabilityandrelationshipofmangrovesoilorganicmattertoorganiccarbon
_version_ 1725609450292641792