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Calogiuri, Tullia; Hagens, Mathilde; van Groenigen, Jan Willem; Wichern, Florian; Poetra, Reinaldy P; Rieder, Lukas; Janssens, Ivan A; Hartmann, Jens; Neubeck, Anna; Niron, Harun; Singh, Abhijeet; Vlaeminck, Siegfried E; Vicca, Sara; Vidal, Alix (2025): Influence of live and dead earthworms on carbon stabilization and sequestration through mineral weathering - Organo-mineral mixture and leachate [dataset]. PANGAEA, https://doi.org/10.1594/PANGAEA.984355, In: Calogiuri, T et al. (2025): Influence of live and dead earthworms on carbon stabilization and sequestration through mineral weathering [dataset bundled publication]. PANGAEA, https://doi.org/10.1594/PANGAEA.984356

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Published: 2025-09-11DOI registered: 2025-09-11

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Abstract:
The dataset consists of a list of treatments and relative analyses done to determine different pathways through which live and dead earthworms can influence organic carbon stabilisation and inorganic carbon sequestration through mineral weathering. Data was obtained from a column-experiment of the duration of 120 days, with a mid-term sampling at 60 days to observe changes over time, done between October 2023 and February 2024. The column-experiment was carried out in an incubator at 20 °C, where columns where filled with a mixture of rock powder and 13C labelled plant residues, and earthworms were introduced either alive or dead. The dataset relates to the list of treatments and parameters measured to determine the effect of earthworms, either alive or dead, on carbon dynamics measured at 60 and 120 days. These include measurements such as 13C analyzed in dissolved inorganic carbon, mineral associated organic carbon, microbial analyses, and a series of weathering indicators, as alkalinity and major cations.
Keyword(s):
carbon sequestration; Carbon stabilization; Dead earthworms; Live earthworms; mineral weathering
Supplement to:
Calogiuri, Tullia; Hagens, Mathilde; van Groenigen, Jan Willem; Wichern, Florian; Poetra, Reinaldy P; Rieder, Lukas; Janssens, Ivan A; Hartmann, Jens; Neubeck, Anna; Niron, Harun; Singh, Abhijeet; Vlaeminck, Siegfried E; Vicca, Sara; Vidal, Alix (accepted): Alive and dead earthworms capture carbon during mineral weathering through different pathways. Communications Earth & Environment
Related to:
Calogiuri, Tullia; Hagens, Mathilde; van Groenigen, Jan Willem; Wichern, Florian; Poetra, Reinaldy P; Rieder, Lukas; Janssens, Ivan A; Hartmann, Jens; Neubeck, Anna; Niron, Harun; Singh, Abhijeet; Vlaeminck, Siegfried E; Vicca, Sara; Vidal, Alix (2025): Influence of live and dead earthworms on carbon stabilization and sequestration through mineral weathering - Gas emissions [dataset]. PANGAEA, https://doi.org/10.1594/PANGAEA.984354
References:
Cerli, Chiara; Celi, Luisella Roberta; Kalbitz, Karsten; Guggenberger, Georg; Kaiser, Klaus-Felix (2012): Separation of light and heavy organic matter fractions in soil — Testing for proper density cut-off and dispersion level. Geoderma, 170, 403-416, https://doi.org/10.1016/j.geoderma.2011.10.009
Dalby, Paul R; Baker, Geoff H; Smith, Sally E (1996): "Filter paper method" to remove soil from earthworm intestines and to standardise the water content of earthworm tissue. Soil Biology and Biochemistry, 28(4-5), 685-687, https://doi.org/10.1016/0038-0717(95)00157-3
Plaza, César; Giannetta, Beatrice; Benavente, Iria; Vischetti, Costantino; Zaccone, Claudio (2019): Density-based fractionation of soil organic matter: effects of heavy liquid and heavy fraction washing. Scientific Reports, 9(1), 10146, https://doi.org/10.1038/s41598-019-46577-y
Funding:
Horizon 2020 (H2020), grant/award no. 964545: BAM! (Horizon 2020 FET)
Coverage:
Latitude: 51.980768 * Longitude: 5.659193
Date/Time Start: 2023-10-11T10:30:00 * Date/Time End: 2023-10-11T10:30:00
Event(s):
Earthworms_sample * Latitude: 51.980768 * Longitude: 5.659193 * Date/Time: 2023-10-11T10:30:00 * Location: Wageningen, The Netherlands * Method/Device: Pitchfork * Comment: Collection of earthworm species Aporrectodea caliginosa
Parameter(s):
#NameShort NameUnitPrincipal InvestigatorMethod/DeviceComment
1Type of studyStudy typeCalogiuri, TulliaColumn experiment
2Date/time start, experimentDate/time start expCalogiuri, TulliaDate of the start of the experiment
3Date/time end, experimentDate/time end expCalogiuri, TulliaDate of the end of the experiment
4Experimental treatmentExp treatCalogiuri, TulliaDescription of the type of treatment
5Experimental treatmentExp treatCalogiuri, TulliaCode of each treatment
6Column numberColumn NoCalogiuri, TulliaNumber assigned to each column
7Experiment durationExp durationdaysCalogiuri, TulliaSampling time at which columns were sampled (either after 60 or 120 days)
8Treatment: temperatureT:temp°CCalogiuri, TulliaIncubatorTemperature during the experiment
9Treatment: coarse basaniteT:coarse basanitegCalogiuri, TulliaWeighedMass of basanite with coarse grain size added to the columns
10Treatment: fine basaniteT:fine basanitegCalogiuri, TulliaWeighedMass of basanite with fine grain size added to the columns
11Treatment: pea strawT:pea strawgCalogiuri, TulliaWeighedMass of pea straw added to the columns
12Species, unique identificationSpecies UIDCalogiuri, TulliaSpecies of earthworms added to the columns
13Species, unique identification (URI)Species UID (URI)Calogiuri, TulliaSpecies of earthworms added to the columns
14Species, unique identification (Semantic URI)Species UID (Semantic URI)Calogiuri, TulliaSpecies of earthworms added to the columns
15Treatment: number of individuals, totalT:Ind No tot#Calogiuri, TulliaCounting, visualNumber of earthworms added to the columns
16Treatment: abundance, wet massT:abundance wmgCalogiuri, TulliaStarved and weighed according to Dalby et al. (1996)Total wet mass of initially added earthworms; after starvation according to Dalby et al. (1996)
17Number of individuals, survivedInd No survived#Calogiuri, TulliaCounting, visualNumber of earthworms survived
18Sample massSamp mgCalogiuri, TulliaWeighed dry mass of sample used for organic matter density fractionation according to Cerli et al. (2012) and Plaza et al. (2019)Dry mass of the sample used for organic matter density fractionation according to Cerli et al. (2012) and Plaza et al. (2019)
19Organic matter, particulate, freePOM freegCalogiuri, TulliaWeighed dry mass of fraction; after organic matter density fractionation according to Cerli et al. (2012) and Plaza et al. (2019)Dry mass of the free particulate organic matter fraction
20Organic matter, particulate, occludedPOM occludedgCalogiuri, TulliaWeighed dry mass of fraction; after organic matter density fractionation according to Cerli et al. (2012) and Plaza et al. (2019)Dry mass of the occluded particulate organic matter fraction
21Organic matter, mineral-associatedMAOMgCalogiuri, TulliaWeighed dry mass of fraction; after organic matter density fractionation according to Cerli et al. (2012) and Plaza et al. (2019)Dry mass of the mineral associated organic fraction
22Carbon/organo-mineral mixtureC/org-min mixmg/gCalogiuri, TulliaElemental analyzer CHN, LECO, TruSpecAmount of carbon (C) in the bulk organo-mineral mixture
23Carbon/free particulate organic matterC/POM freemg/gCalogiuri, TulliaMicro CN elemental analyzer, Thermo Fisher Scientific, FlashSmartAmount of carbon (C) in free particulate organic matter
24Carbon/occluded particulate organic matterC/POM occludedmg/gCalogiuri, TulliaMicro CN elemental analyzer, Thermo Fisher Scientific, FlashSmartAmount of carbon (C) in occluded particulate organic matter
25Carbon/mineral-associated organic matterC/MAOMmg/gCalogiuri, TulliaElemental analyzer CHN, LECO, TruSpecAmount of carbon (C) in mineral associated organic matter
26Bacteria, gram-positive, per soil dry massBact gram +/soil dmpmol/kgCalogiuri, TulliaGas chromatography-mass spectrometer (GC-MS), Agilent TechnologiesAbundance of gram-positive bacteria measured in the organo-mineral mixture at 120 days
27Bacteria, gram-negative, per soil dry massBact gram -/soil dmpmol/kgCalogiuri, TulliaGas chromatography-mass spectrometer (GC-MS), Agilent TechnologiesAbundance of gram-negative bacteria measured in the organo-mineral mixture at 120 days
28Actinomycetes, per soil dry massActinomycetes/soil dmpmol/kgCalogiuri, TulliaGas chromatography-mass spectrometer (GC-MS), Agilent TechnologiesAbundance of actinomycetes measured in the organo-mineral mixture at 120 days
29Eukaryotes, per soil dry massEuka/soil dmpmol/kgCalogiuri, TulliaGas chromatography-mass spectrometer (GC-MS), Agilent TechnologiesAbundance of eukaryote measured in the organo-mineral mixture at 120 days
30Fungi, arbuscular mycorrhizal, per soil dry massAMF/soil dmpmol/kgCalogiuri, TulliaGas chromatography-mass spectrometer (GC-MS), Agilent TechnologiesAbundance of arbuscular mychorrizal fungi measured in the organo-mineral mixture at 120 days
31Fungi, per soil dry massFungi/soil dmpmol/kgCalogiuri, TulliaGas chromatography-mass spectrometer (GC-MS), Agilent TechnologiesAbundance of fungi measured in the organo-mineral mixture at 120 days
32Leachate, tareLeachate taregCalogiuri, TulliaWeighedMass of the container (= tare weight) to collect the leachate
33Leachate, grossLeachate grossgCalogiuri, TulliaWeighedMass of the container (= tare weight) and the leachate collected (= net weight) = gross wight
34Leachate, netLeachate netgCalogiuri, TulliaCalculatedTotal leachate mass collected (= net weight)
35Alkalinity, totalATmmol(eq)/lCalogiuri, TulliapH meter; after titration with 0.02 M HCl until reached pH = 4.5Alkalinity measured in the leachate
36Carbon, inorganic, dissolvedDICmg/lCalogiuri, TulliaSegmented Flow Analyzer (SFA), Skalar Analytical B.V., San++ Automated Wet Chemistry AnalyzerDissolved organic carbon measured in the leachate
37Carbon, total dissolvedTDCmg/lCalogiuri, TulliaSegmented Flow Analyzer (SFA), Skalar Analytical B.V., San++ Automated Wet Chemistry AnalyzerDissolved total carbon measured in the leachate
38Carbon, organic, dissolvedDOCmg/lCalogiuri, TulliaCalculatedDissolved organic carbon in the leachate; as the difference between dissolved total carbon (TDC) and dissolved inorganic carbon (DIC)
39ConductivityCondmS/cmCalogiuri, TulliaMulti-parameter portable meter, WTW, MultiLine® 2630 IDS
40pHpHCalogiuri, TulliaMulti-parameter portable meter, WTW, MultiLine® 2630 IDSpH measured in the leachate
41CalciumCamg/lCalogiuri, TulliaICP-OES, Thermo Scientific, iCAP 6500 dual viewCalcium concentration measured in the leachate
42IronFemg/lCalogiuri, TulliaICP-OES, Thermo Scientific, iCAP 6500 dual viewIron concentration measured in the leachate
43PotassiumKmg/lCalogiuri, TulliaICP-OES, Thermo Scientific, iCAP 6500 dual viewPotassium concentration measured in the leachate
44MagnesiumMgmg/lCalogiuri, TulliaICP-OES, Thermo Scientific, iCAP 6500 dual viewMagnesium concentration measured in the leachate
45SodiumNamg/lCalogiuri, TulliaICP-OES, Thermo Scientific, iCAP 6500 dual viewSodium concentration measured in the leachate
46PhosphorusPmg/lCalogiuri, TulliaICP-OES, Thermo Scientific, iCAP 6500 dual viewPhopshorus concentration measured in the leachate
47SiliconSimg/lCalogiuri, TulliaICP-OES, Thermo Scientific, iCAP 6500 dual viewSilicon concentration measured in the leachate
48Atom percent, 13C, dissolved total carbonAt perc 13C TDC%Calogiuri, TulliaElemental Analyzer, Elementar Analysensysteme GmbH, Langenselbold, Germany, Elementar vario MICRO cube; coupled with Isotope Ratio Mass Spectrometer, Sercon, Europa 20-2013C isotopic signature measured in total dissolved carbon (TDC)
49Atom percent, 13C, dissolved organic carbonAt perc 13C DOC%Calogiuri, TulliaElemental Analyzer, Elementar Analysensysteme GmbH, Langenselbold, Germany, Elementar vario MICRO cube; coupled with Isotope Ratio Mass Spectrometer, Sercon, Europa 20-2013C isotopic signature measured in dissolved organic carbon (DOC)
Status:
Curation Level: Enhanced curation (CurationLevelC)
Size:
1636 data points

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