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Goussin, Fanny; Cordier, Carole; Riel, Nicolas; Guillot, Stéphane; Boulvais, Philippe; Roperch, Pierrick; Replumaz, Anne; Schulmann, Karel; Dupont-Nivet, Guillaume; Rosas, Filipe; Zhaojie, Guo (2020): Whole-rock major and trace elements data, and whole-rock and carbonate isotope data, for the potassic and ultrapotassic rocks from Nangqian basin (Eastern Tibet) [dataset]. PANGAEA, https://doi.org/10.1594/PANGAEA.910772, In: Goussin, F et al. (2020): Whole-rock and mineral chemistry of magmatic rocks from the Nangqian basin (Eastern Tibet) [dataset publication series]. PANGAEA, https://doi.org/10.1594/PANGAEA.910791

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Published: 2020-01-14DOI registered: 2020-02-06

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Abstract:
Whole-rock major and trace elements data, and whole-rock and carbonate isotope data, for the Nangqian potassic and ultrapotassic rocks. Whole-rock major and trace elements were measured at ISTerre, University Grenoble Alpes. For major elements, 50 mg of rock powder were digested in HF/HNO3 mixture at 90 during five days. Excess HF was neutralized using boric acid and solutions were diluted with 250 mL of Milli-Q water. Major element contents were measured by Inductively Coupled Plasma - Atomic Spectrometry (ICP-AES) in Grenoble using the method given in Chauvel et al. (2011, doi:10.1111/j.1751-908X.2010.00086.x). For trace elements, 100mg of rock powder were digested with a mixture of concentrated HF and HNO3 at 150 for at least two weeks in steer Spar bombs. Excess Hf was neutralized with HNO3, using cycles of acid addition/evaporation. 300 mg of a spike containing Be, Ge, In, Tm and Bi were added to an aliquot of the rock solution corresponding to 8 mg of the initial powder. The solutions were then evaporated, diluted with 2% HNO3 (+ 1 drop of HF), and analysed by Inductively Coupled Plasma - Mass Spectrometry. During measurement, the signal was calibrated using the reference material BR24 (Chauvel et al., 2011, doi:10.1111/j.1751-908X.2010.00086.x), which was run every 4 or 5 analyses. Quality of the analytical procedure was checked by analysing blanks, international reference materials (BHVO2, BEN, BCR2), duplicate solutions and multiple runs of solutions. Only elements with external reproducibility < 15% are given. The SARM-CRPG in Nancy and SEDISOR in Brest performed the whole-rock Sr and Nd isotope analyses. Results were normalized to values of 143Nd/144Nd = 0.512110 for JNd-I reference material and 0.511850 for LaJolla, and to 87Sr/86Sr = 0.710250 for the reference material NIST SRM 987. Blanks were 74 pg for Nd and 137 pg for Sr. ε-Nd(T) ratios were calculated using the CHUR isotopic composition of Bouvier et al. (2008, doi:10.1016/j.epsl.2008.06.010). Stable isotope analysis of carbonates was carried out in the stable isotope laboratory of Geoscience Rennes, CNRS-University of Rennes I. Carbonates in whole-rock powders were selectively dissolved at 50 with anhydrous phosphoric acid H3PO4. The released CO2 gases were collected using a cryogenic extraction line, and their isotopic compositions were analyzed by a VG Optima triple collector mass spectrometer. Results were normalized to the values of the laboratory in-house standard Prolabo Rennes and the international standard NBS18. The analytical uncertainty is ±0.2 for δ18O carb, and ±0.1 for δ13C carb.
Keyword(s):
carbonate C-O isotopy; in-situ mineral geochemistry; Whole-rock geochemistry
Related to:
Goussin, Fanny; Cordier, Carole; Riel, Nicolas; Guillot, Stéphane; Boulvais, Philippe; Roperch, Pierrick; Replumaz, Anne; Schulmann, Karel; Dupont-Nivet, Guillaume; Rosas, Filipe; Zhaojie, Guo (2020): Carbonated inheritance in the Eastern Tibetan lithospheric mantle: petrological evidences and geodynamic implications. Geochemistry, Geophysics, Geosystems, 21(2), e2019GC008495, https://doi.org/10.1029/2019GC008495
Coverage:
Median Latitude: 32.181884 * Median Longitude: 96.478146 * South-bound Latitude: 32.068110 * West-bound Longitude: 96.405720 * North-bound Latitude: 32.287610 * East-bound Longitude: 96.604890
Event(s):
YU-14-07 * Latitude: 32.106970 * Longitude: 96.520500 * Location: Nangqian basin, Eastern Tibet * Comment: Phlogopite-bearing UK syenite
YU-14-15 * Latitude: 32.116810 * Longitude: 96.600720 * Location: Nangqian basin, Eastern Tibet * Method/Device: Rock sample (ROCK) * Comment: Trachyte
YU-14-18D * Latitude: 32.115470 * Longitude: 96.604890 * Location: Nangqian basin, Eastern Tibet * Method/Device: Rock sample (ROCK) * Comment: Trachyte
Comment:
#999: below detection limit
Parameter(s):
#NameShort NameUnitPrincipal InvestigatorMethod/DeviceComment
1Event labelEventGoussin, Fanny
2Latitude of eventLatitudeGoussin, Fanny
3Longitude of eventLongitudeGoussin, Fanny
4Rock typeRockGoussin, Fanny
5Silicon dioxideSiO2%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)
6Titanium dioxideTiO2%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)
7Aluminium oxideAl2O3%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)
8Iron oxide, Fe2O3Fe2O3%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)total
9Manganese oxideMnO%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)
10Magnesium oxideMgO%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)
11Calcium oxideCaO%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)
12Sodium oxideNa2O%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)
13Potassium oxideK2O%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)
14Phosphorus pentoxideP2O5%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)
15Loss on ignitionLOI%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)
16Elements, totalTotal%Goussin, FannyInductively coupled plasma atomic emission spectroscopy (ICP-AES)Major elements
17Magnesium numberMg#Goussin, FannyCalculatedMg / (Mg+Fe)
18LithiumLimg/kgGoussin, FannyICP-MSppm
19ScandiumScmg/kgGoussin, FannyICP-MSppm
20TitaniumTimg/kgGoussin, FannyICP-MSppm
21VanadiumVmg/kgGoussin, FannyICP-MSppm
22ChromiumCrmg/kgGoussin, FannyICP-MSppm
23CobaltComg/kgGoussin, FannyICP-MSppm
24NickelNimg/kgGoussin, FannyICP-MSppm
25CopperCumg/kgGoussin, FannyICP-MSppm
26ZincZnmg/kgGoussin, FannyICP-MSppm
27RubidiumRbmg/kgGoussin, FannyICP-MSppm
28StrontiumSrmg/kgGoussin, FannyICP-MSppm
29YttriumYmg/kgGoussin, FannyICP-MSppm
30ZirconiumZrmg/kgGoussin, FannyICP-MSppm
31NiobiumNbmg/kgGoussin, FannyICP-MSppm
32CaesiumCsmg/kgGoussin, FannyICP-MSppm
33BariumBamg/kgGoussin, FannyICP-MSppm
34LanthanumLamg/kgGoussin, FannyICP-MSppm
35CeriumCemg/kgGoussin, FannyICP-MSppm
36PraseodymiumPrmg/kgGoussin, FannyICP-MSppm
37NeodymiumNdmg/kgGoussin, FannyICP-MSppm
38SamariumSmmg/kgGoussin, FannyICP-MSppm
39EuropiumEumg/kgGoussin, FannyICP-MSppm
40GadoliniumGdmg/kgGoussin, FannyICP-MSppm
41TerbiumTbmg/kgGoussin, FannyICP-MSppm
42DysprosiumDymg/kgGoussin, FannyICP-MSppm
43HolmiumHomg/kgGoussin, FannyICP-MSppm
44ErbiumErmg/kgGoussin, FannyICP-MSppm
45YtterbiumYbmg/kgGoussin, FannyICP-MSppm
46LutetiumLumg/kgGoussin, FannyICP-MSppm
47HafniumHfmg/kgGoussin, FannyICP-MSppm
48TantalumTamg/kgGoussin, FannyICP-MSppm
49LeadPbmg/kgGoussin, FannyICP-MSppm
50ThoriumThmg/kgGoussin, FannyICP-MSppm
51UraniumUmg/kgGoussin, FannyICP-MSppm
52Strontium-87/Strontium-86 ratio87Sr/86SrRevillon, SidonieSARM-CRPG Nancy and SEDISOR Brestmeasured
53Strontium-87/Strontium-86 ratio, standard deviation87Sr/86Sr std dev±Revillon, SidonieSARM-CRPG Nancy and SEDISOR Brestmeasured
54Rubidium-87/Strontium-86 ratio87Rb/86SrGoussin, FannySARM-CRPG Nancy and SEDISOR Brestrecalculated using whole-rock Rb and Sr contents
55Strontium-87/Strontium-86 ratio (T)87Sr/86Sr(T)Goussin, Fannyrecalculated at T=35 Ma
56Neodymium-143/Neodymium-144 ratio143Nd/144NdRevillon, SidonieSARM-CRPG Nancy and SEDISOR Brestmeasured
57Neodymium-143/Neodymium-144 ratio, standard deviation143Nd/144Nd std dev±Revillon, SidonieSARM-CRPG Nancy and SEDISOR Brestmeasured
58Samarium-147/Neodymium-144 ratio147Sm/144NdGoussin, FannySARM-CRPG Nancy and SEDISOR Brestrecalculated using whole-rock Sm and Nd contents
59Neodymium-143/Neodymium-144 ratio (T)143Nd/144Nd(T)Goussin, Fannyrecalculated
60ε-Neodymium (T)ε-Nd(T)Goussin, Fannyafter Bouvier et al., 2008εNd(t)= [(143Nd/144Nd)(t)/(143Nd/144Nd)CHUR(t) - 1] x 10.000
61δ13C, carbonateδ13C carb‰ PDBGoussin, FannyIsotope ratio mass spectrometrywhole-rock carbonates
62δ18O, carbonateδ18O carb‰ SMOWGoussin, FannyMass spectrometer Optima-Isogas triple collectorwhole-rock carbonates
Size:
898 data points

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