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author Weiner, Tal
Rosenberg Oved, Yoav
Angert, Alon
author_facet Weiner, Tal
Rosenberg Oved, Yoav
Angert, Alon
collection Datos científicos de ciencias marinas y ambientales
contents Soil organic matter (SOM) stores most of the terrestrial carbon, and changes in this storage can have a significant effect on the global carbon cycle. Various approaches have been used to understand the SOM transformations and stability. Here, we estimated the long-term SOM stability, and the effect of decomposition on the stability and composition of the remaining fraction, by Rock-Eval pyrolysis. The sampling took place in Mount Baron, the Golan Heights, in October 2021, February 2022, and June 2022, which represent the beginning, middle, and end of the rainy season. . Each sample was pooled from 2 locations and taken by a trowel from A-horizon at 0-10 cm depth.. At each campaign, the soil was sampled at 4 heights along the north and south slopes, under tree canopy, and in open grassland. In addition, to study the different fractions of organic matter, we analyzed soil separated into particulate organic matter (POM) and mineral-associated organic matter (MAOM). The samples were dried to 55°C and were ground with a mortar and pestle before the Rock-Eval analysis (Rock Eval 6, Vinci Technologies, at Ben Gurion University of the Negev for October samples and Rock Eval 7S, Vinci Technologies, at the Geological Survey of Israel for February and June samples).
format Dataset Open Access
id pangaea_https___doi_org_10_1594_PANGAEA_986031
institution PANGAEA
language en
publishDate 2025
publisher PANGAEA
record_format pangaea
spellingShingle Observing soil organic carbon spatial and seasonal variability at the Golan Heights using Rock-Eval measurements
Weiner, Tal
Rosenberg Oved, Yoav
Angert, Alon
Analysis; Baron; Carbon, mineral; Carbon, organic, pyrolysable; Carbon, organic, residual; Carbon, organic, total; Carbon monoxide yield, S3, per unit sediment mass; Date/time analysis, experiment; Description; ELEVATION; Event label; Hydrocarbon yield, S1, per unit sediment mass; Hydrocarbon yield, S2, per unit sediment mass; Hydrocarbon yield, S3, per unit sediment mass; Hydrogen index, mass HC, per unit mass total organic carbon; I-index; LATITUDE; LONGITUDE; Method comment; Organic matter; Oxygen index, mass CO2, per unit mass total organic carbon; Production index, S1/(S1+S2); Pyrolysis temperature maximum; Pyrolysis temperature maximum, S2 surface; R-Index; Rock eval pyrolysis; Sample code/label; Sample code/label 2; Sample mass; Sample material; Sampling date; Slope description; soil carbon; Soil carbon efflux; Soil Organic Carbon (SOC); soil organic matter; SOILS; Soil sample; Vegetation type
Soil organic matter (SOM) stores most of the terrestrial carbon, and changes in this storage can have a significant effect on the global carbon cycle. Various approaches have been used to understand the SOM transformations and stability. Here, we estimated the long-term SOM stability, and the effect of decomposition on the stability and composition of the remaining fraction, by Rock-Eval pyrolysis. The sampling took place in Mount Baron, the Golan Heights, in October 2021, February 2022, and June 2022, which represent the beginning, middle, and end of the rainy season. . Each sample was pooled from 2 locations and taken by a trowel from A-horizon at 0-10 cm depth.. At each campaign, the soil was sampled at 4 heights along the north and south slopes, under tree canopy, and in open grassland. In addition, to study the different fractions of organic matter, we analyzed soil separated into particulate organic matter (POM) and mineral-associated organic matter (MAOM). The samples were dried to 55°C and were ground with a mortar and pestle before the Rock-Eval analysis (Rock Eval 6, Vinci Technologies, at Ben Gurion University of the Negev for October samples and Rock Eval 7S, Vinci Technologies, at the Geological Survey of Israel for February and June samples).
title Observing soil organic carbon spatial and seasonal variability at the Golan Heights using Rock-Eval measurements
topic Analysis; Baron; Carbon, mineral; Carbon, organic, pyrolysable; Carbon, organic, residual; Carbon, organic, total; Carbon monoxide yield, S3, per unit sediment mass; Date/time analysis, experiment; Description; ELEVATION; Event label; Hydrocarbon yield, S1, per unit sediment mass; Hydrocarbon yield, S2, per unit sediment mass; Hydrocarbon yield, S3, per unit sediment mass; Hydrogen index, mass HC, per unit mass total organic carbon; I-index; LATITUDE; LONGITUDE; Method comment; Organic matter; Oxygen index, mass CO2, per unit mass total organic carbon; Production index, S1/(S1+S2); Pyrolysis temperature maximum; Pyrolysis temperature maximum, S2 surface; R-Index; Rock eval pyrolysis; Sample code/label; Sample code/label 2; Sample mass; Sample material; Sampling date; Slope description; soil carbon; Soil carbon efflux; Soil Organic Carbon (SOC); soil organic matter; SOILS; Soil sample; Vegetation type
url https://doi.org/10.1594/PANGAEA.986031