cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.5281/zenodo.17752149
title: Global Data Governance Solutions Market 2025 – 2034

description: Data Governance Solutions Market Size, Trends and Insights By Component (Services, Solution), By Application (Compliance Management, Risk Management, Audit Management, Incident Management, Others), By Deployment (On-Premises, Cloud), By Vertical (BFSI, Retail & Consumer, Government, Healthcare, Manufacturing, Telecom and IT, Transportation & Logistics, Other), and By Region - Global Industry Overview, Statistical Data, Competitive Analysis, Share, Outlook, and Forecast 2025 – 2034

As per the Data Governance Solutions Market size analysis conducted by the CMI Team, the global Data Governance Solutions Market is expected to record a CAGR of 21.8% from 2025 to 2034. In 2025, the market size is projected to reach a valuation of USD 3.8 Billion. By 2034, the valuation is anticipated to reach USD 15.8 Billion.

Click Here to Access a Free Sample Report of the Global Dairy Herd Management Market @ https://www.custommarketinsights.com/request-for-free-sample/?reportid=75239
DOI: 10.15468/dl.v39ys4
title: Occurrence Download

description: A dataset containing 11583 species occurrences available in GBIF matching the query:
{
 "and" : [
 "TaxonKey is Acacia ligulata",
 "HasCoordinate is true"
 ]
}

 The dataset includes 11583 records from 57 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0014288-251120083545085/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.17026/ar/rnhiaa
title: Archeologisch bureauonderzoek Kleidijk-Stationspad, Rhoon Gemeente Albrandswaard

description: &lt;p&gt;IDDS Archeologie heeft in oktober 2025 een archeologisch bureauonderzoek uitgevoerd voor een perceel op de hoek van de Kleidijk en het Stationspad in Rhoon, gemeente Albrandswaard. De doel- en vraagstelling van het bureauonderzoek is het opstellen van een gespecificeerde archeologische verwachting voor het plangebied.&lt;/p&gt;&lt;p&gt;
Uit het bureauonderzoek blijkt dat het plangebied een middelhoge archeologische verwachting heeft voor resten uit het Neolithicum en een lage archeologische verwachting heeft voor resten uit de IJzertijd, de Romeinse tijd en de (Late) Middeleeuwen. &lt;/p&gt;&lt;p&gt;Archeologische sporen uit het Neolithicum zijn te verwachten in de top van eventueel aanwezige stroomgordelsedimenten, maar deze afzettingen liggen onder het dikke veenpakket en worden zelden bereikt bij onderzoek of ingrepen. Archeologische sporen uit de IJzertijd, Romeinse tijd, die voorkomen in de top van het Hollandveen, zullen niet meer aanwezig zijn omdat de top van het veenpakket diep is geërodeerd (op basis van het milieuonderzoek). Ook resten uit de (Late) Middeleeuwen zijn niet aanwezig omdat de daarmee geassocieerde afzettingen niet meer aanwezig zijn. &lt;/p&gt;&lt;p&gt;Archeologische resten uit de Late Middeleeuwen en Nieuwe tijd aan het maaiveld worden niet meer verwacht omdat de bodem verstoord is tot ongeveer 1,0 m -mv. &lt;/p&gt;&lt;p&gt;
IDDS Archeologie adviseert om het plangebied, voor wat betreft het aspect archeologie, vrij te geven voor de voorgenomen civieltechnische werkzaamheden.&lt;/p&gt;
DOI: 10.15468/dl.grvvqf
title: Occurrence Download

description: A dataset containing 133 species occurrences available in GBIF matching the query:
{
 "and" : [
 "HasGeospatialIssue is false",
 "HasCoordinate is true",
 "OccurrenceStatus is Present",
 "BasisOfRecord is one of (Human Observation, Specimen)",
 "TaxonKey is Billbergia vittata"
 ]
}

 The dataset includes 133 records from 28 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0014290-251120083545085/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.5281/zenodo.16743896
title: RFX3 loss disrupts non-coding RNA networks in iPSC-derived pancreatic progenitors

description: Project manager(s): Essam M. Abdelalim (Sidra Medicine, Qatar)

Wild type iPSCs (WT-iPSCs) generated and fully characterized in our laboratory were used for RFX3 knockout iPSCs (RFX3 KO iPSCs) generation. WT-iPSCs and RFX3 KO iPSCs were differentiated into pancreatic progenitor cells to uncover RFX3’s role in regulating coding and non-coding RNA network at pancreatic progenitor stage as described in the article titled “RFX3 loss disrupts non-coding RNA networks in iPSC-derived pancreatic progenitors” by Aldous et al. The dataset represents small RNA-seq data generated from pancreatic progenitors (PPs) derived from WT-iPSCs and RFX3 KO iPSCs. 

The file name is: Sample name _overall sample number_read direction_001 where:

- PPs-WT-Rep1: pancreatic progenitors (PPs) derived from WT-iPSCs, replicate 1.

- PPs-WT-Rep2: pancreatic progenitors (PPs) derived from WT-iPSCs, replicate 2.

- PPs-WT-Rep3: pancreatic progenitors (PPs) derived from WT-iPSCs, replicate 3.

- PPs-KO1-Rep1: pancreatic progenitors (PPs) derived from RFX3 KO1 iPSCs, replicate 1.

- PPs-KO1-Rep2: pancreatic progenitors (PPs) derived from RFX3 KO1 iPSCs, replicate 2.

- PPs-KO1-Rep3: pancreatic progenitors (PPs) derived from RFX3 KO1 iPSCs, replicate 3.

- PPs-KO2-Rep1: pancreatic progenitors (PPs) derived from RFX3 KO2 iPSCs, replicate 1.

- PPs-KO2-Rep2: pancreatic progenitors (PPs) derived from RFX3 KO2 iPSCs, replicate 2.

- PPs-KO2-Rep3: pancreatic progenitors (PPs) derived from RFX3 KO2 iPSCs, replicate 3.

- Read direction: R1 (Forward).
DOI: 10.5281/zenodo.16743895
title: RFX3 loss disrupts non-coding RNA networks in iPSC-derived pancreatic progenitors

description: Project manager(s): Essam M. Abdelalim (Sidra Medicine, Qatar)

Wild type iPSCs (WT-iPSCs) generated and fully characterized in our laboratory were used for RFX3 knockout iPSCs (RFX3 KO iPSCs) generation. WT-iPSCs and RFX3 KO iPSCs were differentiated into pancreatic progenitor cells to uncover RFX3’s role in regulating coding and non-coding RNA network at pancreatic progenitor stage as described in the article titled “RFX3 loss disrupts non-coding RNA networks in iPSC-derived pancreatic progenitors” by Aldous et al. The dataset represents small RNA-seq data generated from pancreatic progenitors (PPs) derived from WT-iPSCs and RFX3 KO iPSCs. 

The file name is: Sample name _overall sample number_read direction_001 where:

- PPs-WT-Rep1: pancreatic progenitors (PPs) derived from WT-iPSCs, replicate 1.

- PPs-WT-Rep2: pancreatic progenitors (PPs) derived from WT-iPSCs, replicate 2.

- PPs-WT-Rep3: pancreatic progenitors (PPs) derived from WT-iPSCs, replicate 3.

- PPs-KO1-Rep1: pancreatic progenitors (PPs) derived from RFX3 KO1 iPSCs, replicate 1.

- PPs-KO1-Rep2: pancreatic progenitors (PPs) derived from RFX3 KO1 iPSCs, replicate 2.

- PPs-KO1-Rep3: pancreatic progenitors (PPs) derived from RFX3 KO1 iPSCs, replicate 3.

- PPs-KO2-Rep1: pancreatic progenitors (PPs) derived from RFX3 KO2 iPSCs, replicate 1.

- PPs-KO2-Rep2: pancreatic progenitors (PPs) derived from RFX3 KO2 iPSCs, replicate 2.

- PPs-KO2-Rep3: pancreatic progenitors (PPs) derived from RFX3 KO2 iPSCs, replicate 3.

- Read direction: R1 (Forward).
DOI: 10.5281/zenodo.17752059
title: Table 1 in Redescription of Astyanax obscurus (Hensel, 1870) and A. laticeps (Cope, 1894) (Teleostei: Characidae): two valid freshwater species originally described from rivers of Southern Brazil

description: Table 1. Morphometric data of Astyanax obscurus: syntypes (ZMB 7478, n = 3), and non-type specimens from rio Cadeia, tributary of rio Caí (A, n = 21), and from rio das Antas, rio Jacuí drainage (B, n = 33); and Astyanax laticeps: holotype (ANSP 21852), and paratypes (ANSP 21743, n = 4), Rio Grande do Sul, Brazil.
A. obscurusA. laticepsSyntypesABHolot.ParatypesRangeMeanRangeMeanRangeMeanRangeMeanStandard length (mm)46.5-57.853.139.3-76.461.842.1-88.365.754.138.0-50.844.1Percents of Standard lengthPredorsal distance55.1-57.256.051.9-55.854.051.9-56.154.256.056.2-58.257.4Prepelvic distance50.1-54.752.850.6-54.452.450.3-55.052.050.850.3-51.250.7Prepectoral distance26.5-28.928.026.8-29.228.125.0-28.426.729.528.5-30.429.3Preanal distance66.0-69.868.165.3-70.368.467.0-70.868.469.969.0-73.770.6Depth at dorsal-fin origin32.7-34.633.931.6-37.234.533.6-40.836.738.835.3-40.637.9Caudal-peduncle depth11.5-12.111.812.2-13.612.811.2-13.212.314.213.4-14.414.0Caudal-peduncle length14.4-15.815.314.4-17.015.812.4-16.314.211.59.2-11.910.8Anal-fin base length20.6-22.821.720.4-24.022.121.2-25.623.329.125.7-27.426.3Dorsal-fin length18.2-24.822.623.5-27.225.521.7-26.323.8-26.4-28.127.0Pelvic-fin length14.6-16.315.514.3-16.615.314.1-17.015.517.116.9-18.117.6Pectoral-fin length21.7-23.122.420.4-23.522.119.5-22.620.820.522.3-23.422.7Head length28.0-29.829.026.7-29.128.125.2-29.627.229.029.3-30.029.6Percents of Head lengthSnout length24.9-26.025.423.4-28.526.123.5-28.125.324.925.4-26.225.8Upper jaw length39.2-41.140.438.5-42.741.037.7-44.441.046.443.4-45.744.6Orbital diameter31.0-33.932.228.2-32.930.325.7-34.630.729.429.1-31.730.5Interorbital width26.4-28.627.428.1-32.530.127.7-34.029.936.836.5-37.536.9
description: Published as part of Bertaco, Vinicius A. & de Lucena, Carlos A. S., 2010, Redescription of Astyanax obscurus (Hensel, 1870) and A. laticeps (Cope, 1894) (Teleostei: Characidae): two valid freshwater species originally described from rivers of Southern Brazil, pp. 11 in Neotropical Ichthyology 8 (1) on page 11, DOI: 10.1590/S1679-62252010000100002, http://zenodo.org/record/12653496
DOI: 10.5281/zenodo.17752060
title: Table 1 in Redescription of Astyanax obscurus (Hensel, 1870) and A. laticeps (Cope, 1894) (Teleostei: Characidae): two valid freshwater species originally described from rivers of Southern Brazil

description: Table 1. Morphometric data of Astyanax obscurus: syntypes (ZMB 7478, n = 3), and non-type specimens from rio Cadeia, tributary of rio Caí (A, n = 21), and from rio das Antas, rio Jacuí drainage (B, n = 33); and Astyanax laticeps: holotype (ANSP 21852), and paratypes (ANSP 21743, n = 4), Rio Grande do Sul, Brazil.
A. obscurusA. laticepsSyntypesABHolot.ParatypesRangeMeanRangeMeanRangeMeanRangeMeanStandard length (mm)46.5-57.853.139.3-76.461.842.1-88.365.754.138.0-50.844.1Percents of Standard lengthPredorsal distance55.1-57.256.051.9-55.854.051.9-56.154.256.056.2-58.257.4Prepelvic distance50.1-54.752.850.6-54.452.450.3-55.052.050.850.3-51.250.7Prepectoral distance26.5-28.928.026.8-29.228.125.0-28.426.729.528.5-30.429.3Preanal distance66.0-69.868.165.3-70.368.467.0-70.868.469.969.0-73.770.6Depth at dorsal-fin origin32.7-34.633.931.6-37.234.533.6-40.836.738.835.3-40.637.9Caudal-peduncle depth11.5-12.111.812.2-13.612.811.2-13.212.314.213.4-14.414.0Caudal-peduncle length14.4-15.815.314.4-17.015.812.4-16.314.211.59.2-11.910.8Anal-fin base length20.6-22.821.720.4-24.022.121.2-25.623.329.125.7-27.426.3Dorsal-fin length18.2-24.822.623.5-27.225.521.7-26.323.8-26.4-28.127.0Pelvic-fin length14.6-16.315.514.3-16.615.314.1-17.015.517.116.9-18.117.6Pectoral-fin length21.7-23.122.420.4-23.522.119.5-22.620.820.522.3-23.422.7Head length28.0-29.829.026.7-29.128.125.2-29.627.229.029.3-30.029.6Percents of Head lengthSnout length24.9-26.025.423.4-28.526.123.5-28.125.324.925.4-26.225.8Upper jaw length39.2-41.140.438.5-42.741.037.7-44.441.046.443.4-45.744.6Orbital diameter31.0-33.932.228.2-32.930.325.7-34.630.729.429.1-31.730.5Interorbital width26.4-28.627.428.1-32.530.127.7-34.029.936.836.5-37.536.9
description: Published as part of Bertaco, Vinicius A. & de Lucena, Carlos A. S., 2010, Redescription of Astyanax obscurus (Hensel, 1870) and A. laticeps (Cope, 1894) (Teleostei: Characidae): two valid freshwater species originally described from rivers of Southern Brazil, pp. 11 in Neotropical Ichthyology 8 (1) on page 11, DOI: 10.1590/S1679-62252010000100002, http://zenodo.org/record/12653496
DOI: 10.5281/zenodo.17752064
title: Table 2 in Redescription of Astyanax obscurus (Hensel, 1870) and A. laticeps (Cope, 1894) (Teleostei: Characidae): two valid freshwater species originally described from rivers of Southern Brazil

description: Table 2. Morphometric data of populations of Astyanax laticeps. Laguna dos Patos system (n = 68), rio Tramandaí drainage (n = 77), rio Mampituba drainage (n = 26), rio Tubarão drainage (n = 16), rio Itajaí drainage (n = 25), rio Itapocu drainage (n = 15), and rio Cubatão Norte drainage (n = 44).
Laguna dos PatosTramandaíMampitubaTubarãoItajaíItapocuCubatão NorteRangeMeanRangeMeanRangeMeanRangeMeanRangeMeanRangeMeanRangeMeanStandard length (mm)45.6-109.766.946.5-94.270.936.4-81.451.636.6-97.159.2 44.2-105.966.747.8-92.269.246.6-97.366.7Percents of standard lengthPredorsal distance49.9-58.053.850.4-55.653.349.4-57.352.351.2-56.454.052.1-56.353.849.5-54.251.649.9-56.052.4Prepelvic distance43.9-52.748.245.1-51.347.946.1-51.248.344.5-50.748.246.4-50.849.144.5-50.948.545.8-50.647.8Prepectoral distance24.5-30.827.025.0-29.226.925.8-29.327.825.1-27.826.624.5-31.127.023.5-28.526.323.6-28.926.9Preanal distance61.4-71.266.762.8-70.466.562.2-69.765.764.7-68.566.863.4-72.768.264.2-68.866.562.7-69.866.0Depth at dorsal-fin origin30.6-38.934.130.7-39.935.130.5-38.232.631.7-37.834.531.4-39.036.232.9-38.735.433.7-39.136.0Caudal-peduncle depth11.4-13.712.711.2-14.212.710.7-12.811.610.7-13.311.910.8-13.012.010.3-12.211.210.0-12.711.8Caudal-peduncle length11.9-16.114.312.7-16.314.113.1-16.515.111.7-16.014.113.6-16.715.112.2-16.014.612.2-15.914.4Anal-fin base length20.8-30.125.522.1-27.524.921.3-27.524.522.0-27.524.721.4-26.523.423.6-28.025.722.7-28.726.3Dorsal-fin length20.4-26.323.621.9-27.024.623.4-28.025.520.0-26.323.121.0-28.224.122.1-25.824.221.9-28.025.6Pelvic-fin length14.9-21.317.414.5-20.617.314.8-18.816.914.6-19.617.215.2-18.916.916.3-19.817.914.3-21.818.2Pectoral-fin length18.5-24.321.117.8-24.320.919.4-22.921.119.5-23.621.118.4-23.920.920.2-24.822.620.1-26.722.9Head length23.4-31.126.724.5-29.327.025.2-30.828.524.6-29.527.324.6-31.727.424.2-28.526.425.1-29.627.5Percents of head lengthSnout length26.6-34.830.825.8-34.931.220.9-30.324.524.4-32.428.121.4-33.727.018.9-32.229.223.4-32.227.8Upper jaw length38.8-48.444.441.6-49.546.139.5-46.642.940.2-45.543.340.5-47.544.037.0-49.145.439.6-47.144.6Orbital diameter25.8-37.231.727.4-38.431.728.4-38.733.127.5-35.631.525.1-36.030.625.0-36.832.028.2-36.932.8Interorbital width28.6-40.234.230.0-38.134.429.7-38.033.027.4-40.132.330.7-38.735.026.8-37.534.330.3-36.734.6
description: Published as part of Bertaco, Vinicius A. & de Lucena, Carlos A. S., 2010, Redescription of Astyanax obscurus (Hensel, 1870) and A. laticeps (Cope, 1894) (Teleostei: Characidae): two valid freshwater species originally described from rivers of Southern Brazil, pp. 14 in Neotropical Ichthyology 8 (1) on page 14, DOI: 10.1590/S1679-62252010000100002, http://zenodo.org/record/12653496
DOI: 10.5281/zenodo.17752063
title: Table 2 in Redescription of Astyanax obscurus (Hensel, 1870) and A. laticeps (Cope, 1894) (Teleostei: Characidae): two valid freshwater species originally described from rivers of Southern Brazil

description: Table 2. Morphometric data of populations of Astyanax laticeps. Laguna dos Patos system (n = 68), rio Tramandaí drainage (n = 77), rio Mampituba drainage (n = 26), rio Tubarão drainage (n = 16), rio Itajaí drainage (n = 25), rio Itapocu drainage (n = 15), and rio Cubatão Norte drainage (n = 44).
Laguna dos PatosTramandaíMampitubaTubarãoItajaíItapocuCubatão NorteRangeMeanRangeMeanRangeMeanRangeMeanRangeMeanRangeMeanRangeMeanStandard length (mm)45.6-109.766.946.5-94.270.936.4-81.451.636.6-97.159.2 44.2-105.966.747.8-92.269.246.6-97.366.7Percents of standard lengthPredorsal distance49.9-58.053.850.4-55.653.349.4-57.352.351.2-56.454.052.1-56.353.849.5-54.251.649.9-56.052.4Prepelvic distance43.9-52.748.245.1-51.347.946.1-51.248.344.5-50.748.246.4-50.849.144.5-50.948.545.8-50.647.8Prepectoral distance24.5-30.827.025.0-29.226.925.8-29.327.825.1-27.826.624.5-31.127.023.5-28.526.323.6-28.926.9Preanal distance61.4-71.266.762.8-70.466.562.2-69.765.764.7-68.566.863.4-72.768.264.2-68.866.562.7-69.866.0Depth at dorsal-fin origin30.6-38.934.130.7-39.935.130.5-38.232.631.7-37.834.531.4-39.036.232.9-38.735.433.7-39.136.0Caudal-peduncle depth11.4-13.712.711.2-14.212.710.7-12.811.610.7-13.311.910.8-13.012.010.3-12.211.210.0-12.711.8Caudal-peduncle length11.9-16.114.312.7-16.314.113.1-16.515.111.7-16.014.113.6-16.715.112.2-16.014.612.2-15.914.4Anal-fin base length20.8-30.125.522.1-27.524.921.3-27.524.522.0-27.524.721.4-26.523.423.6-28.025.722.7-28.726.3Dorsal-fin length20.4-26.323.621.9-27.024.623.4-28.025.520.0-26.323.121.0-28.224.122.1-25.824.221.9-28.025.6Pelvic-fin length14.9-21.317.414.5-20.617.314.8-18.816.914.6-19.617.215.2-18.916.916.3-19.817.914.3-21.818.2Pectoral-fin length18.5-24.321.117.8-24.320.919.4-22.921.119.5-23.621.118.4-23.920.920.2-24.822.620.1-26.722.9Head length23.4-31.126.724.5-29.327.025.2-30.828.524.6-29.527.324.6-31.727.424.2-28.526.425.1-29.627.5Percents of head lengthSnout length26.6-34.830.825.8-34.931.220.9-30.324.524.4-32.428.121.4-33.727.018.9-32.229.223.4-32.227.8Upper jaw length38.8-48.444.441.6-49.546.139.5-46.642.940.2-45.543.340.5-47.544.037.0-49.145.439.6-47.144.6Orbital diameter25.8-37.231.727.4-38.431.728.4-38.733.127.5-35.631.525.1-36.030.625.0-36.832.028.2-36.932.8Interorbital width28.6-40.234.230.0-38.134.429.7-38.033.027.4-40.132.330.7-38.735.026.8-37.534.330.3-36.734.6
description: Published as part of Bertaco, Vinicius A. & de Lucena, Carlos A. S., 2010, Redescription of Astyanax obscurus (Hensel, 1870) and A. laticeps (Cope, 1894) (Teleostei: Characidae): two valid freshwater species originally described from rivers of Southern Brazil, pp. 14 in Neotropical Ichthyology 8 (1) on page 14, DOI: 10.1590/S1679-62252010000100002, http://zenodo.org/record/12653496
DOI: 10.15468/dl.qjqmp6
title: Occurrence Download

description: A dataset containing 61 species occurrences available in GBIF matching the query:
{
 "and" : [
 "TaxonKey is Acacia maxwellii",
 "HasCoordinate is true"
 ]
}

 The dataset includes 61 records from 8 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0014291-251120083545085/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.5281/zenodo.17752193
title: Weak Nuclear Force

description:  localizedinteraction is specifically responsible for driving the electron into the protoncloud, where it achieves a state of stabilization, thereby initiating a criticalstructural transition inside the proton itself.
DOI: 10.5281/zenodo.17752194
title: Weak Nuclear Force

description:  localizedinteraction is specifically responsible for driving the electron into the protoncloud, where it achieves a state of stabilization, thereby initiating a criticalstructural transition inside the proton itself.
DOI: 10.5281/zenodo.17752232
title: Cell types of Temporal Transcriptional Signatures in Tau-Expressing Zebrafish

description: Cell types of the zebrafish samples provided in the manuscript titled `Temporal Transcriptional Signatures in Tau-Expressing Zebrafish`.
DOI: 10.5281/zenodo.17752231
title: Cell types of Temporal Transcriptional Signatures in Tau-Expressing Zebrafish

description: Cell types of the zebrafish samples provided in the manuscript titled `Temporal Transcriptional Signatures in Tau-Expressing Zebrafish`.
DOI: 10.6084/m9.figshare.30644045
title: Assessment of ultralow emission standards and emission abatement potential of China’s coking industry via real-time monitoring data

description: These data represent the emission concentrations, emission factors, and absolute emissions of the Chinese coking industry from 2021 to 2023 by different regions, scales, and processes.
DOI: 10.6084/m9.figshare.30644045.v1
title: Assessment of ultralow emission standards and emission abatement potential of China’s coking industry via real-time monitoring data

description: These data represent the emission concentrations, emission factors, and absolute emissions of the Chinese coking industry from 2021 to 2023 by different regions, scales, and processes.
DOI: 10.25545/cigyqw/ilbzbc
title: Conventional tracer test_Berea_Bentheimer composite sample.tab

description: Conventional tracer data (Voltage vs time) for Bentheimer_Berea composite sample. The sample was initially saturated with 5 wt% brine. 10 wt% brine was injected into the core plug during the experiment.
DOI: 10.25545/cigyqw/qdenrm
title: Conventional tracer test_Buff Berea_ sample.tab

description: Conventional tracer data (Voltage vs time) for Buff Berea core plug. The sample was initially saturated with 5 wt% brine. 10 wt% brine was injected into the core plug during the experiment.
DOI: 10.25545/cigyqw/izb1go
title: Conventional tracer test_Nugget_Parallel to flow sample.tab

description: Conventional tracer data (Voltage vs time) for Nugget core plug with laminations parallel to the flow. The sample was initially saturated with 5 wt% brine. 10 wt% brine was injected into the core plug during the experiment.
DOI: 10.25545/cigyqw/8gznnn
title: Conventional tracer test_Nugget_Perpendicular to flow sample.tab

description: Conventional tracer data (Voltage vs time) for Nugget sample with laminations perpendicular to the flow. The sample was initially saturated with 5 wt% brine. 10 wt% brine was injected into the core plug during the experiment.
DOI: 10.25545/cigyqw/wto2di
title: Conventional tracer test_Bentheimer sample.tab

description: Conventional tracer data (Voltage vs time) for Bentheimer core plug. The sample was initially saturated with 3 wt% brine. 8 wt% brine was injected into the core plug during the experiment.
DOI: 10.25545/cigyqw/o9snbr
title: MRI Nugget_Parallel_profilescorrected.tab

description: Raw data of dispersion curve for Buff Berea plotted using MATLAB
First column: Position Data
First Row: Time Data
Second column, Second row to the end: SE SPI Data
DOI: 10.25545/cigyqw/irrdch
title: MRI Buff Berea_Profiles corrected.tab

description: Raw data of dispersion curve for Buff Berea plotted using MATLAB
First column: Position Data
First Row: Time Data
Second column, Second row to the end: SE SPI Data
DOI: 10.25545/cigyqw/1zkiz4
title: MRI Nugget_Perpendicular_Profilecorrected.tab

description: Raw data of dispersion curve for Buff Berea plotted using MATLAB
First column: Position Data
First Row: Time Data
Second column, Second row to the end: SE SPI Data
DOI: 10.25545/cigyqw/q4x86k
title: MRI Bentheimer_Berea_Profilescorrected.tab

description: Raw data of dispersion curve for Buff Berea plotted using MATLAB
First column: Position Data
First Row: Time Data
Second column, Second row to the end: SE SPI Data
DOI: 10.25545/cigyqw/bsqlqc
title: MRI Bentheimer_Profilescorrected.tab

description: Raw data of dispersion curve for Buff Berea plotted using MATLAB
First column: Position Data
First Row: Time Data
Second column, Second row to the end: SE SPI Data
DOI: 10.25545/cigyqw/mp0aj5
title: Data Description.docx
DOI: 10.25545/cigyqw
title: Spatially Resolved 23Na Magnetic Resonance Dispersion Measurement in Porous Media

description: raw data file of dispersion curves
DOI: 10.15468/dl.bpgnp2
title: Occurrence Download

description: A dataset containing 123 species occurrences available in GBIF matching the query:
{
 "and" : [
 "HasCoordinate is true",
 "HasGeospatialIssue is false",
 "TaxonKey is Cissus obovata"
 ]
}

 The dataset includes 123 records from 21 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0014292-251120083545085/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.