Version history for nKM7gKd5MEk3rVGc0XgO - LS13WASU

Version: 1.0.6

  • lastVersion: 1.0.5
  • curator: nicholas
  • timestamp: 2025-05-20 16:18:57.51222 UTC
  • changes:
    • Paleo Interpretation metadata:
      • depth (MAT0bb768872a): interpretation4_scope: NULL has been replaced by ‘climate’
      • year (MAT7cbe87ad3a): interpretation4_scope: NULL has been replaced by ‘climate’

Version: 1.0.5

  • lastVersion: 1.0.4
  • curator: nicholas
  • timestamp: 2025-04-17 20:04:39.893137 UTC
  • changes:
    • Paleo Column metadata:
      • d2H (LS13WASU01A): paleoData_isPrimary: NULL has been replaced by ‘FALSE’
      • d2H (LS13WASU01A): paleoData_primaryAgeColumn: NULL has been replaced by ‘FALSE’
      • d2H (LS13WASU01B): paleoData_isPrimary: NULL has been replaced by ‘FALSE’
      • d2H (LS13WASU01B): paleoData_primaryAgeColumn: NULL has been replaced by ‘FALSE’
      • depth (MAT0bb768872a): paleoData_isPrimary: NULL has been replaced by ‘FALSE’
      • depth (MAT0bb768872a): paleoData_primaryAgeColumn: NULL has been replaced by ‘FALSE’
      • year (MAT7cbe87ad3a): paleoData_isPrimary: NULL has been replaced by ‘TRUE’
      • year (MAT7cbe87ad3a): paleoData_primaryAgeColumn: NULL has been replaced by ‘TRUE’

Version: 1.0.4

  • lastVersion: 1.0.3
  • curator: nicholas
  • timestamp: 2025-04-11 16:26:58.206189 UTC
  • changes:
    • Paleo Interpretation metadata:
      • d2H (LS13WASU01A): interpretation2_basis: ‘Variation in vegetation type (shrubs and grass) is the main factor influencing the [d2H of leaf waxes in] sediments of Lake Sugan, because of the dD values of Chenopodiceae shrubs are higher than those of grasses. We can still discuss the moisture history using the hydrogen-isotope record, because the vegetation type would be consistent with hydrological condition. [i.e., Chenopodiaceae shrubs tend to be more abundant in dry climates, and Chenopodiaceae shrubs have a smaller apparent fractionation, so dry climates would not only cause greater evaporative enrichment of plant source water, but more leaf waxes with relatively enriched d2H would be produced by Chenopodiaceae shrubs.] In the arid area of western China, vegetation type is controlled by moisture changes (Wu, 2011). The authors conclude that variations in vegetation type (shrub or grass), which are caused by moisture changes, are the main factor controlling the δD records in the study area.’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation2_direction: ‘negative’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation2_inferredMaterial: ‘soil water’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation2_mathematicalRelation: ‘linear’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation2_rank: ‘1’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation2_scope: ‘isotope’ has been replaced by ‘climate’
      • d2H (LS13WASU01A): interpretation2_seasonality: ‘deleteMe’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation2_variable: ‘effectivePrecipitation’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation2_variableGroup: ‘EffectiveMoisture’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation2_variableGroupDirection: ‘negative’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation2_variableGroupOriginal: ‘P_E’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation3_basis: ‘The effective moisture (ratio of precipitation to evaporation) is considered as the main factor controlling the dD values of lipid n-alkanes in terrestrial plants (Polissar and Freeman, 2010). In a previous study, the dD record from a loess profile in the Chinese Loess Plateau displayed a strong correlation to changes in the magnetic susceptibility (MS) over the past 130 ka, and the isoto- pic variation was thought to be strongly affected by aridity (Liu and Huang, 2005). Furthermore, a humidity control experiment in the field verified the correlation between D enrichment and relative humidity (McInerney et al., 2011). A study of lipids from the Santa Barbara Basin from the past 1400 years also revealed the dD of mid-chain acids to be partially correlated with existing data of drought severity (Li et al., 2011).’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation3_direction: ‘negative’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation3_mathematicalRelation: ‘linear’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation3_rank: ‘2’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation3_scope: ‘isotope’ has been replaced by ‘climate’
      • d2H (LS13WASU01A): interpretation3_seasonality: ‘deleteMe’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation3_variable: ‘effectivePrecipitation’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation3_variableGroup: ‘EffectiveMoisture’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation3_variableGroupDirection: ‘negative’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation3_variableGroupOriginal: ‘P_E’ has been replaced by NULL
      • d2H (LS13WASU01A): interpretation4_basis: NULL has been replaced by ‘Variation in vegetation type (shrubs and grass) is the main factor influencing the [d2H of leaf waxes in] sediments of Lake Sugan, because of the dD values of Chenopodiceae shrubs are higher than those of grasses. We can still discuss the moisture history using the hydrogen-isotope record, because the vegetation type would be consistent with hydrological condition. [i.e., Chenopodiaceae shrubs tend to be more abundant in dry climates, and Chenopodiaceae shrubs have a smaller apparent fractionation, so dry climates would not only cause greater evaporative enrichment of plant source water, but more leaf waxes with relatively enriched d2H would be produced by Chenopodiaceae shrubs.] In the arid area of western China, vegetation type is controlled by moisture changes (Wu, 2011). The authors conclude that variations in vegetation type (shrub or grass), which are caused by moisture changes, are the main factor controlling the δD records in the study area.’
      • d2H (LS13WASU01A): interpretation4_direction: NULL has been replaced by ‘negative’
      • d2H (LS13WASU01A): interpretation4_inferredMaterial: NULL has been replaced by ‘soil water’
      • d2H (LS13WASU01A): interpretation4_mathematicalRelation: NULL has been replaced by ‘linear’
      • d2H (LS13WASU01A): interpretation4_rank: NULL has been replaced by ‘1’
      • d2H (LS13WASU01A): interpretation4_scope: NULL has been replaced by ‘isotope’
      • d2H (LS13WASU01A): interpretation4_seasonality: NULL has been replaced by ‘deleteMe’
      • d2H (LS13WASU01A): interpretation4_variable: NULL has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01A): interpretation4_variableGroup: NULL has been replaced by ‘EffectiveMoisture’
      • d2H (LS13WASU01A): interpretation4_variableGroupDirection: NULL has been replaced by ‘negative’
      • d2H (LS13WASU01A): interpretation4_variableGroupOriginal: NULL has been replaced by ‘P_E’
      • d2H (LS13WASU01A): interpretation5_basis: NULL has been replaced by ‘The effective moisture (ratio of precipitation to evaporation) is considered as the main factor controlling the dD values of lipid n-alkanes in terrestrial plants (Polissar and Freeman, 2010). In a previous study, the dD record from a loess profile in the Chinese Loess Plateau displayed a strong correlation to changes in the magnetic susceptibility (MS) over the past 130 ka, and the isoto- pic variation was thought to be strongly affected by aridity (Liu and Huang, 2005). Furthermore, a humidity control experiment in the field verified the correlation between D enrichment and relative humidity (McInerney et al., 2011). A study of lipids from the Santa Barbara Basin from the past 1400 years also revealed the dD of mid-chain acids to be partially correlated with existing data of drought severity (Li et al., 2011).’
      • d2H (LS13WASU01A): interpretation5_direction: NULL has been replaced by ‘negative’
      • d2H (LS13WASU01A): interpretation5_mathematicalRelation: NULL has been replaced by ‘linear’
      • d2H (LS13WASU01A): interpretation5_rank: NULL has been replaced by ‘2’
      • d2H (LS13WASU01A): interpretation5_scope: NULL has been replaced by ‘isotope’
      • d2H (LS13WASU01A): interpretation5_seasonality: NULL has been replaced by ‘deleteMe’
      • d2H (LS13WASU01A): interpretation5_variable: NULL has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01A): interpretation5_variableGroup: NULL has been replaced by ‘EffectiveMoisture’
      • d2H (LS13WASU01A): interpretation5_variableGroupDirection: NULL has been replaced by ‘negative’
      • d2H (LS13WASU01A): interpretation5_variableGroupOriginal: NULL has been replaced by ‘P_E’
      • d2H (LS13WASU01A): interpretation6_scope: NULL has been replaced by ‘isotope’
      • d2H (LS13WASU01B): interpretation2_basis: ‘Variation in vegetation type (shrubs and grass) is the main factor influencing the [d2H of leaf waxes in] sediments of Lake Sugan, because of the dD values of Chenopodiceae shrubs are higher than those of grasses. We can still discuss the moisture history using the hydrogen-isotope record, because the vegetation type would be consistent with hydrological condition. [i.e., Chenopodiaceae shrubs tend to be more abundant in dry climates, and Chenopodiaceae shrubs have a smaller apparent fractionation, so dry climates would not only cause greater evaporative enrichment of plant source water, but more leaf waxes with relatively enriched d2H would be produced by Chenopodiaceae shrubs.] In the arid area of western China, vegetation type is controlled by moisture changes (Wu, 2011). The authors conclude that variations in vegetation type (shrub or grass), which are caused by moisture changes, are the main factor controlling the δD records in the study area.’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation2_direction: ‘negative’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation2_inferredMaterial: ‘soil water’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation2_mathematicalRelation: ‘linear’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation2_rank: ‘1’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation2_scope: ‘isotope’ has been replaced by ‘climate’
      • d2H (LS13WASU01B): interpretation2_seasonality: ‘deleteMe’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation2_variable: ‘effectivePrecipitation’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation2_variableGroup: ‘EffectiveMoisture’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation2_variableGroupDirection: ‘negative’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation2_variableGroupOriginal: ‘P_E’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation3_basis: ‘The effective moisture (ratio of precipitation to evaporation) is considered as the main factor controlling the ?D values of lipid n-alkanes in terrestrial plants (Polissar and Freeman, 2010). In a previous study, the ?D record from a loess profile in the Chinese Loess Plateau displayed a strong correlation to changes in the magnetic susceptibility (MS) over the past 130 ka, and the isoto- pic variation was thought to be strongly affected by aridity (Liu and Huang, 2005). Furthermore, a humidity control experiment in the field verified the correlation between D enrichment and relative humidity (McInerney et al., 2011). A study of lipids from the Santa Barbara Basin from the past 1400 years also revealed the dD of mid-chain acids to be partially correlated with existing data of drought severity (Li et al., 2011).’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation3_direction: ‘negative’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation3_mathematicalRelation: ‘linear’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation3_rank: ‘2’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation3_scope: ‘isotope’ has been replaced by ‘climate’
      • d2H (LS13WASU01B): interpretation3_seasonality: ‘deleteMe’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation3_variable: ‘effectivePrecipitation’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation3_variableGroup: ‘EffectiveMoisture’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation3_variableGroupDirection: ‘negative’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation3_variableGroupOriginal: ‘P_E’ has been replaced by NULL
      • d2H (LS13WASU01B): interpretation4_basis: NULL has been replaced by ‘Variation in vegetation type (shrubs and grass) is the main factor influencing the [d2H of leaf waxes in] sediments of Lake Sugan, because of the dD values of Chenopodiceae shrubs are higher than those of grasses. We can still discuss the moisture history using the hydrogen-isotope record, because the vegetation type would be consistent with hydrological condition. [i.e., Chenopodiaceae shrubs tend to be more abundant in dry climates, and Chenopodiaceae shrubs have a smaller apparent fractionation, so dry climates would not only cause greater evaporative enrichment of plant source water, but more leaf waxes with relatively enriched d2H would be produced by Chenopodiaceae shrubs.] In the arid area of western China, vegetation type is controlled by moisture changes (Wu, 2011). The authors conclude that variations in vegetation type (shrub or grass), which are caused by moisture changes, are the main factor controlling the δD records in the study area.’
      • d2H (LS13WASU01B): interpretation4_direction: NULL has been replaced by ‘negative’
      • d2H (LS13WASU01B): interpretation4_inferredMaterial: NULL has been replaced by ‘soil water’
      • d2H (LS13WASU01B): interpretation4_mathematicalRelation: NULL has been replaced by ‘linear’
      • d2H (LS13WASU01B): interpretation4_rank: NULL has been replaced by ‘1’
      • d2H (LS13WASU01B): interpretation4_scope: NULL has been replaced by ‘isotope’
      • d2H (LS13WASU01B): interpretation4_seasonality: NULL has been replaced by ‘deleteMe’
      • d2H (LS13WASU01B): interpretation4_variable: NULL has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01B): interpretation4_variableGroup: NULL has been replaced by ‘EffectiveMoisture’
      • d2H (LS13WASU01B): interpretation4_variableGroupDirection: NULL has been replaced by ‘negative’
      • d2H (LS13WASU01B): interpretation4_variableGroupOriginal: NULL has been replaced by ‘P_E’
      • d2H (LS13WASU01B): interpretation5_basis: NULL has been replaced by ‘The effective moisture (ratio of precipitation to evaporation) is considered as the main factor controlling the ?D values of lipid n-alkanes in terrestrial plants (Polissar and Freeman, 2010). In a previous study, the ?D record from a loess profile in the Chinese Loess Plateau displayed a strong correlation to changes in the magnetic susceptibility (MS) over the past 130 ka, and the isoto- pic variation was thought to be strongly affected by aridity (Liu and Huang, 2005). Furthermore, a humidity control experiment in the field verified the correlation between D enrichment and relative humidity (McInerney et al., 2011). A study of lipids from the Santa Barbara Basin from the past 1400 years also revealed the dD of mid-chain acids to be partially correlated with existing data of drought severity (Li et al., 2011).’
      • d2H (LS13WASU01B): interpretation5_direction: NULL has been replaced by ‘negative’
      • d2H (LS13WASU01B): interpretation5_mathematicalRelation: NULL has been replaced by ‘linear’
      • d2H (LS13WASU01B): interpretation5_rank: NULL has been replaced by ‘2’
      • d2H (LS13WASU01B): interpretation5_scope: NULL has been replaced by ‘isotope’
      • d2H (LS13WASU01B): interpretation5_seasonality: NULL has been replaced by ‘deleteMe’
      • d2H (LS13WASU01B): interpretation5_variable: NULL has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01B): interpretation5_variableGroup: NULL has been replaced by ‘EffectiveMoisture’
      • d2H (LS13WASU01B): interpretation5_variableGroupDirection: NULL has been replaced by ‘negative’
      • d2H (LS13WASU01B): interpretation5_variableGroupOriginal: NULL has been replaced by ‘P_E’
      • d2H (LS13WASU01B): interpretation6_scope: NULL has been replaced by ‘isotope’
      • depth (MAT0bb768872a): interpretation1_scope: NULL has been replaced by ‘climate’
      • depth (MAT0bb768872a): interpretation2_scope: NULL has been replaced by ‘climate’
      • depth (MAT0bb768872a): interpretation3_scope: NULL has been replaced by ‘climate’
      • year (MAT7cbe87ad3a): interpretation1_scope: NULL has been replaced by ‘climate’
      • year (MAT7cbe87ad3a): interpretation2_scope: NULL has been replaced by ‘climate’
      • year (MAT7cbe87ad3a): interpretation3_scope: NULL has been replaced by ‘climate’

Version: 1.0.3

  • lastVersion: 1.0.2
  • curator: nicholas
  • timestamp: 2025-04-09 20:48:13.391694 UTC
  • notes: Updated lipdverse database entry with a changed file.
  • changes:
    • Paleo Interpretation metadata:
      • d2H (LS13WASU01A): interpretation1_seasonality: ‘growing season? (not stated)’ has been replaced by ‘Growing Season’
      • d2H (LS13WASU01A): interpretation1_variable: ‘P/E’ has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01A): interpretation2_seasonality: ‘unknown’ has been replaced by ‘deleteMe’
      • d2H (LS13WASU01A): interpretation2_variable: ‘P_E’ has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01A): interpretation3_seasonality: ‘unknown’ has been replaced by ‘deleteMe’
      • d2H (LS13WASU01A): interpretation3_variable: ‘P_E’ has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01B): interpretation1_seasonality: ‘growing season? (not stated)’ has been replaced by ‘Growing Season’
      • d2H (LS13WASU01B): interpretation1_variable: ‘P/E’ has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01B): interpretation2_seasonality: ‘unknown’ has been replaced by ‘deleteMe’
      • d2H (LS13WASU01B): interpretation2_variable: ‘P_E’ has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01B): interpretation3_seasonality: ‘unknown’ has been replaced by ‘deleteMe’
      • d2H (LS13WASU01B): interpretation3_variable: ‘P_E’ has been replaced by ‘effectivePrecipitation’
    • ChronData table:
      • Column ‘RWPg6tnfuWRN0TKRi’, with variable name ‘age’, was added to the dataset
      • Column ‘Rz6BsJ6IcsPAs3tbW’, with variable name ‘SD-1’, was added to the dataset
      • Column ‘chron10’, with variable name ‘materialDated’, was added to the dataset
      • Column ‘chron11’, with variable name ‘activity’, was added to the dataset
      • Column ‘chron12’, with variable name ‘activityUncertainty’, was added to the dataset
      • Column ‘chron13’, with variable name ‘supportedActivity’, was added to the dataset
      • Column ‘chron17’, with variable name ‘reservoirAge14C’, was added to the dataset
      • Column ‘chron18’, with variable name ‘reservoirAge14CUncertainty’, was added to the dataset
      • Column ‘chron19’, with variable name ‘useInAgeModel’, was added to the dataset
      • Column ‘chron4’, with variable name ‘fractionModern’, was added to the dataset
      • Column ‘chron5’, with variable name ‘fractionModernUncertainty’, was added to the dataset
      • Column ‘chron6’, with variable name ‘delta13C’, was added to the dataset
      • Column ‘chron7’, with variable name ‘delta13Cuncertainty’, was added to the dataset
      • Column ‘chron8’, with variable name ‘thickness’, was added to the dataset
      • Column ‘chron9’, with variable name ‘labID’, was added to the dataset
      • Column ‘LS13WASU-chron-NA1’, with variable name ‘age’, was removed from the dataset
      • Column ‘LS13WASU-chron-NA2’, with variable name ‘SD-1’, was removed from the dataset

Version: 1.0.2

  • lastVersion: 1.0.1
  • curator: nicholas
  • timestamp: 2025-04-09 18:29:59.75706 UTC
  • notes: Changes made as part of LiPDverse vocabulary standardization process
  • changes:
    • Paleo Interpretation metadata:
      • d2H (LS13WASU01A): interpretation1_seasonality: ‘growing season? (not stated)’ has been replaced by ‘Growing Season’
      • d2H (LS13WASU01A): interpretation1_variable: ‘P/E’ has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01A): interpretation2_seasonality: ‘unknown’ has been replaced by ‘deleteMe’
      • d2H (LS13WASU01A): interpretation2_variable: ‘P_E’ has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01A): interpretation3_seasonality: ‘unknown’ has been replaced by ‘deleteMe’
      • d2H (LS13WASU01A): interpretation3_variable: ‘P_E’ has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01B): interpretation1_seasonality: ‘growing season? (not stated)’ has been replaced by ‘Growing Season’
      • d2H (LS13WASU01B): interpretation1_variable: ‘P/E’ has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01B): interpretation2_seasonality: ‘unknown’ has been replaced by ‘deleteMe’
      • d2H (LS13WASU01B): interpretation2_variable: ‘P_E’ has been replaced by ‘effectivePrecipitation’
      • d2H (LS13WASU01B): interpretation3_seasonality: ‘unknown’ has been replaced by ‘deleteMe’
      • d2H (LS13WASU01B): interpretation3_variable: ‘P_E’ has been replaced by ‘effectivePrecipitation’

Version: 1.0.1

  • lastVersion: 1.0.0
  • curator: nicholas
  • timestamp: 2025-04-08 17:32:58.8052 UTC
  • notes: Changes made as part of LiPDverse vocabulary standardization process
  • changes:
    • Paleo Column metadata:
      • d2H (LS13WASU01A): paleoData_longName: NULL has been replaced by ‘AD’
      • d2H (LS13WASU01B): paleoData_longName: NULL has been replaced by ‘AD’
      • depth (MAT0bb768872a): paleoData_longName: NULL has been replaced by ‘AD’
      • year (MAT7cbe87ad3a): paleoData_units: ‘AD’ has been replaced by ‘yr AD’
      • year (MAT7cbe87ad3a): paleoData_longName: NULL has been replaced by ‘AD’