Spatiotemporal dynamics of soil carbon following coastal wetland loss at a Louisiana coastal salt marsh in the Mississippi River Deltaic Plain in 2019
July 1, 2022
This dataset provides the water content, bulk density, carbon concentrations, nitrogen concentrations, and carbon content of all fourteen cores sampled in coastal Louisiana (CRMS 0224) in October of 2019. Each sample is identified by a unique identifier that corresponds to each site by depth increment combination. The pond age range associated with each site is provided. The depth increment associated with each sample is provided.
Citation Information
Publication Year | 2022 |
---|---|
Title | Spatiotemporal dynamics of soil carbon following coastal wetland loss at a Louisiana coastal salt marsh in the Mississippi River Deltaic Plain in 2019 |
DOI | 10.5066/P916JH3L |
Authors | Donald R Schoolmaster, Camille L Stagg, Courtney A Creamer, Claudia Laurenzano, Eric J Ward, Mark P Waldrop, Melissa M. Baustian, Tiong Aw, Sergio L Merino, Rachel K Villani, Laura C Scott |
Product Type | Data Release |
Record Source | USGS Asset Identifier Service (AIS) |
USGS Organization | Wetland and Aquatic Research Center - Gainesville, FL |
Rights | This work is marked with CC0 1.0 Universal |
Related
A model of the spatiotemporal dynamics of soil carbon following coastal wetland loss applied to a Louisiana salt marsh in the Mississippi River Deltaic Plain
The potential for carbon sequestration in coastal wetlands is high due to protection of carbon (C) in flooded soils. However, excessive flooding can result in the conversion of the vegetated wetland to open water. This transition results in the loss of wetland habitat in addition to the potential loss of soil carbon. Thus, in areas experiencing rapid wetland submergence, such as the Mississippi Ri
Authors
Donald R. Schoolmaster, Camille Stagg, Courtney Creamer, Claudia Laurenzano, Eric Ward, Mark Waldrop, Melissa M. Baustian, Tiong Aw, Sergio Merino, Rachel Katherine Villani, Laura Scott
Courtney Creamer
Research Soil Scientist
Research Soil Scientist
Email
Phone
Eric J Ward, Ph.D. (Former Employee)
Research Ecologist
Research Ecologist
Mark P Waldrop, Ph.D.
Research Soil Scientist
Research Soil Scientist
Email
Related
A model of the spatiotemporal dynamics of soil carbon following coastal wetland loss applied to a Louisiana salt marsh in the Mississippi River Deltaic Plain
The potential for carbon sequestration in coastal wetlands is high due to protection of carbon (C) in flooded soils. However, excessive flooding can result in the conversion of the vegetated wetland to open water. This transition results in the loss of wetland habitat in addition to the potential loss of soil carbon. Thus, in areas experiencing rapid wetland submergence, such as the Mississippi Ri
Authors
Donald R. Schoolmaster, Camille Stagg, Courtney Creamer, Claudia Laurenzano, Eric Ward, Mark Waldrop, Melissa M. Baustian, Tiong Aw, Sergio Merino, Rachel Katherine Villani, Laura Scott
Courtney Creamer
Research Soil Scientist
Research Soil Scientist
Email
Phone
Eric J Ward, Ph.D. (Former Employee)
Research Ecologist
Research Ecologist
Mark P Waldrop, Ph.D.
Research Soil Scientist
Research Soil Scientist
Email