<?xml version="1.0" encoding="UTF-8"?><resource xsi:schemaLocation="http://datacite.org/schema/kernel-4 http://schema.datacite.org/meta/kernel-4.3/metadata.xsd" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" xmlns="http://datacite.org/schema/kernel-4"><identifier identifierType="DOI">10.1594/PANGAEA.811050</identifier><creators><creator><creatorName>Li, Rongxi</creatorName><givenName>Rongxi</givenName><familyName>Li</familyName></creator><creator><creatorName>Dong, Shuwen</creatorName><givenName>Shuwen</givenName><familyName>Dong</familyName><nameIdentifier schemeURI="http://orcid.org/" nameIdentifierScheme="ORCID">0000-0002-3374-5389</nameIdentifier></creator><creator><creatorName>Lehrmann, Daniel</creatorName><givenName>Daniel</givenName><familyName>Lehrmann</familyName></creator><creator><creatorName>Duan, Lizhi</creatorName><givenName>Lizhi</givenName><familyName>Duan</familyName></creator></creators><titles><title>(Table 1) Geochemical and geothermometry data from fibrous calcite vein fills in the Dabashan Fold Belt, China</title></titles><publisher>PANGAEA</publisher><publicationYear>2013</publicationYear><subjects><subject subjectScheme="Parameter">Sample code/label</subject><subject subjectScheme="Parameter">LATITUDE</subject><subject subjectScheme="Parameter">LONGITUDE</subject><subject subjectScheme="Parameter">Lithology/composition/facies</subject><subject subjectScheme="Parameter">Homogenization temperature</subject><subject subjectScheme="Parameter">Freezing point depression</subject><subject subjectScheme="Parameter">Maximal reflectance of bitumen</subject><subject subjectScheme="Parameter">δ13C, organic matter</subject><subject subjectScheme="Parameter">δ18O, organic matter</subject><subject subjectScheme="Parameter">Silicon dioxide</subject><subject subjectScheme="Parameter">Aluminium oxide</subject><subject subjectScheme="Parameter">Sodium oxide</subject><subject subjectScheme="Parameter">Potassium oxide</subject><subject subjectScheme="Parameter">Magnesium oxide</subject><subject subjectScheme="Parameter">Calcium oxide</subject><subject subjectScheme="Parameter">Manganese oxide</subject><subject subjectScheme="Parameter">Iron oxide, FeO</subject><subject subjectScheme="Parameter">Phosphorus pentoxide</subject><subject subjectScheme="Parameter">Sulfite</subject><subject subjectScheme="Parameter">Titanium dioxide</subject><subject subjectScheme="Method">Sampling by hand</subject><subject subjectScheme="Method">Linkam THMS600 microscope stage</subject><subject subjectScheme="Method">Microphotometer LEITZ MPV-3</subject><subject subjectScheme="Method">Mass spectrometer Finnigan MAT 251EM</subject><subject subjectScheme="Method">Electron microprobe (EMP)</subject></subjects><dates><date dateType="Collected">2008-06-04T00:00:00/2008-07-19T00:00:00</date></dates><resourceType resourceTypeGeneral="Dataset">Supplementary Dataset</resourceType><relatedIdentifiers><relatedIdentifier relatedIdentifierType="DOI" relationType="IsSupplementTo">10.1016/j.jseaes.2013.07.026</relatedIdentifier></relatedIdentifiers><sizes><size>726 data points</size></sizes><formats><format>text/tab-separated-values</format></formats><rightsList><rights rightsURI="https://creativecommons.org/licenses/by/3.0/" schemeURI="https://spdx.org/licenses/" rightsIdentifierScheme="SPDX" rightsIdentifier="CC-BY-3.0">Creative Commons Attribution 3.0 Unported</rights></rightsList><descriptions><description descriptionType="Abstract">Fibrous calcite veins with organic inclusions have been widely considered as indicators of oil and gas generation and migration under overpressure. Abundant fibrous calcite veins containing organic-bearing inclusions occur in faulted Lower Paleozoic through Triassic hydrocarbon source rocks in the Dabashan Foreland Belt (DBF). d13CPDB and d18OPDB values of the fibrous calcite range from - 4.8 to -1.9 to per mil and - 12.8 to - 8.4 per mil respectively, which is lighter than that of associated carbonate host rocks ranging from - 1.7 to + 3.1 per mil and - 8.7 to - 4.5 per mil. A linear relationship between d13CPDB and d18OPDB indicates that the calcite veins were precipitated from a mixture of basinal and surface fluids. The fibrous calcite contains a variety of inclusions, such as solid bitumen, methane bearing all-liquid inclusions, and vapor-liquid aqueous inclusions. Homogenization temperatures of aqueous inclusions range from 140 to 196° with an average of 179°. Salinities of aqueous inclusions average 9.7 wt% NaCl. Independent temperatures from bitumen reflectance and inclusion phase relationships of aqueous and methane inclusions were used to determine fluid pressures. Results indicate high pressures, elevated above typical lithostatic confining pressure, from 150 to 200 MPa. The elevated salinity and high temperature and pressure conditions of the fibrous calcite veins argue against an origin solely from burial overpressure resulting from clay transformation and dehydration reactions. Instead fluid inclusion P-T data and geochemistry results and regional geology indicate abnormally high pressures during fluid migration. These findings indicate that tectonic stress generated fracture and fault fluid pathways and caused migration of organic bearing fluids from the DBF during the Yanshan orogeny.</description><description descriptionType="Other">Supplement to: Li, Rongxi; Dong, Shuwen; Lehrmann, Daniel; Duan, Lizhi (2013): Tectonically driven organic fluid migration in the Dabashan Foreland Belt: evidenced by geochemistry and geothermometry of vein-filling fibrous calcite with organic inclusions. Journal of Asian Earth Sciences, 75, 202-212</description></descriptions><geoLocations><geoLocation><geoLocationBox><westBoundLongitude>107.6175</westBoundLongitude><eastBoundLongitude>108.6435</eastBoundLongitude><southBoundLatitude>31.35</southBoundLatitude><northBoundLatitude>32.52250000000001</northBoundLatitude></geoLocationBox></geoLocation><geoLocation><geoLocationPlace>Sichuan, Shaanxi, China</geoLocationPlace></geoLocation></geoLocations></resource>