Mantle and Recycled Oceanic Crustal Components in Mantle Xenoliths From Northeastern China and their Mantle Sources

The subduction of the Paleo‐Pacific plate is widely credited for the destruction of the eastern North China Craton. However, how the Pacific plate subduction has affected the off‐craton lithospheric mantle in northeastern China is less clear, as few studies have focused on the lithospheric mantle‐de...

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Veröffentlicht in:Journal of geophysical research. Solid earth 2020-04, Vol.125 (4), p.n/a
Hauptverfasser: Guo, Peng, Ionov, Dmitri A., Xu, Wen‐Liang, Wang, Chun‐Guang, Luan, Jin‐Peng
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creator Guo, Peng
Ionov, Dmitri A.
Xu, Wen‐Liang
Wang, Chun‐Guang
Luan, Jin‐Peng
description The subduction of the Paleo‐Pacific plate is widely credited for the destruction of the eastern North China Craton. However, how the Pacific plate subduction has affected the off‐craton lithospheric mantle in northeastern China is less clear, as few studies have focused on the lithospheric mantle‐derived xenoliths in that region. We report petrography, mineral and rock chemistry, and in situ isotopic compositions of Sr in clinopyroxene and O in olivine for 20 peridotite and 11 pyroxenite xenoliths hosted by the Cenozoic volcanic rocks at Jiaohe and Shuangliao localities. The peridotites include lherzolites, harzburgites, and a wehrlite, many are metasomatized. Group 1 garnet pyroxenites have high Al2O3, Ni, and Mg#; positive Eu and Sr anomalies; and olivine δ18O values of 4.8–5.1‰, which we attribute to recycling of oceanic crustal components to the asthenosphere and their reactions with host peridotites. Groups 2 and 3 pyroxenites are garnet‐free and contain peridotite‐like pyroxenes; we argue that they were formed by reactions of lithospheric peridotites with evolved melts derived from recycled oceanic crust. In addition, one pyroxenite contains orthopyroxene surrounded by fine‐grained olivine and clinopyroxene, while another pyroxenite and the wehrlite contain zoned clinopyroxene with gradual increases in Na2O, (La/Yb)N, Sr, and 87Sr/86Sr ratios and decreases in Ti/Eu from core to rim. These characteristics record infiltration of a carbonatite melt shortly before the transport of the xenoliths. The inferred carbonatite melt has 87Sr/86Sr ≥ 0.70415 and mantle‐like olivine δ18O and originated from carbonated asthenosphere. Our results, together with previous studies on the host basalts, suggest that subducted crustal materials were initially transported to the asthenosphere beneath northeastern China to produce carbonate‐bearing domains. Upwelling of the carbonated asthenosphere produced carbonatite melts that migrated upward and metasomatized the overlying lithospheric mantle. Key Points Pyroxenites from northeastern China formed by reactions of peridotites with recycled oceanic crust‐derived silicate melts Infiltration of carbonated asthenosphere‐derived carbonatite melts into the lithospheric mantle produced wehrlite Upwelling of asthenosphere was the major factor in the evolution of the lithospheric mantle beneath northeastern China
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However, how the Pacific plate subduction has affected the off‐craton lithospheric mantle in northeastern China is less clear, as few studies have focused on the lithospheric mantle‐derived xenoliths in that region. We report petrography, mineral and rock chemistry, and in situ isotopic compositions of Sr in clinopyroxene and O in olivine for 20 peridotite and 11 pyroxenite xenoliths hosted by the Cenozoic volcanic rocks at Jiaohe and Shuangliao localities. The peridotites include lherzolites, harzburgites, and a wehrlite, many are metasomatized. Group 1 garnet pyroxenites have high Al2O3, Ni, and Mg#; positive Eu and Sr anomalies; and olivine δ18O values of 4.8–5.1‰, which we attribute to recycling of oceanic crustal components to the asthenosphere and their reactions with host peridotites. Groups 2 and 3 pyroxenites are garnet‐free and contain peridotite‐like pyroxenes; we argue that they were formed by reactions of lithospheric peridotites with evolved melts derived from recycled oceanic crust. In addition, one pyroxenite contains orthopyroxene surrounded by fine‐grained olivine and clinopyroxene, while another pyroxenite and the wehrlite contain zoned clinopyroxene with gradual increases in Na2O, (La/Yb)N, Sr, and 87Sr/86Sr ratios and decreases in Ti/Eu from core to rim. These characteristics record infiltration of a carbonatite melt shortly before the transport of the xenoliths. The inferred carbonatite melt has 87Sr/86Sr ≥ 0.70415 and mantle‐like olivine δ18O and originated from carbonated asthenosphere. Our results, together with previous studies on the host basalts, suggest that subducted crustal materials were initially transported to the asthenosphere beneath northeastern China to produce carbonate‐bearing domains. Upwelling of the carbonated asthenosphere produced carbonatite melts that migrated upward and metasomatized the overlying lithospheric mantle. Key Points Pyroxenites from northeastern China formed by reactions of peridotites with recycled oceanic crust‐derived silicate melts Infiltration of carbonated asthenosphere‐derived carbonatite melts into the lithospheric mantle produced wehrlite Upwelling of asthenosphere was the major factor in the evolution of the lithospheric mantle beneath northeastern China</description><identifier>ISSN: 2169-9313</identifier><identifier>EISSN: 2169-9356</identifier><identifier>DOI: 10.1029/2019JB018232</identifier><language>eng</language><publisher>Washington: Blackwell Publishing Ltd</publisher><subject>Aluminum oxide ; Anomalies ; Asthenosphere ; Basalt ; Carbonates ; Carbonation ; Cenozoic ; Components ; Cratons ; crustal recycling ; Earth Sciences ; Garnet ; Geochemistry ; Geophysics ; Isotope composition ; lithospheric mantle ; Magma ; Mantle ; mantle xenolith ; Melts ; metasomatism ; northeastern China ; Ocean circulation ; Oceanic crust ; Olivine ; Peridotite ; Petrography ; Petrology ; Plates ; Plates (tectonics) ; pyroxenite ; Ratios ; Sciences of the Universe ; Strontium ; Strontium 87 ; Strontium isotopes ; Subduction ; Upwelling ; Volcanic rocks</subject><ispartof>Journal of geophysical research. Solid earth, 2020-04, Vol.125 (4), p.n/a</ispartof><rights>2020. American Geophysical Union. 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Solid earth</title><description>The subduction of the Paleo‐Pacific plate is widely credited for the destruction of the eastern North China Craton. However, how the Pacific plate subduction has affected the off‐craton lithospheric mantle in northeastern China is less clear, as few studies have focused on the lithospheric mantle‐derived xenoliths in that region. We report petrography, mineral and rock chemistry, and in situ isotopic compositions of Sr in clinopyroxene and O in olivine for 20 peridotite and 11 pyroxenite xenoliths hosted by the Cenozoic volcanic rocks at Jiaohe and Shuangliao localities. The peridotites include lherzolites, harzburgites, and a wehrlite, many are metasomatized. Group 1 garnet pyroxenites have high Al2O3, Ni, and Mg#; positive Eu and Sr anomalies; and olivine δ18O values of 4.8–5.1‰, which we attribute to recycling of oceanic crustal components to the asthenosphere and their reactions with host peridotites. Groups 2 and 3 pyroxenites are garnet‐free and contain peridotite‐like pyroxenes; we argue that they were formed by reactions of lithospheric peridotites with evolved melts derived from recycled oceanic crust. In addition, one pyroxenite contains orthopyroxene surrounded by fine‐grained olivine and clinopyroxene, while another pyroxenite and the wehrlite contain zoned clinopyroxene with gradual increases in Na2O, (La/Yb)N, Sr, and 87Sr/86Sr ratios and decreases in Ti/Eu from core to rim. These characteristics record infiltration of a carbonatite melt shortly before the transport of the xenoliths. The inferred carbonatite melt has 87Sr/86Sr ≥ 0.70415 and mantle‐like olivine δ18O and originated from carbonated asthenosphere. Our results, together with previous studies on the host basalts, suggest that subducted crustal materials were initially transported to the asthenosphere beneath northeastern China to produce carbonate‐bearing domains. 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We report petrography, mineral and rock chemistry, and in situ isotopic compositions of Sr in clinopyroxene and O in olivine for 20 peridotite and 11 pyroxenite xenoliths hosted by the Cenozoic volcanic rocks at Jiaohe and Shuangliao localities. The peridotites include lherzolites, harzburgites, and a wehrlite, many are metasomatized. Group 1 garnet pyroxenites have high Al2O3, Ni, and Mg#; positive Eu and Sr anomalies; and olivine δ18O values of 4.8–5.1‰, which we attribute to recycling of oceanic crustal components to the asthenosphere and their reactions with host peridotites. Groups 2 and 3 pyroxenites are garnet‐free and contain peridotite‐like pyroxenes; we argue that they were formed by reactions of lithospheric peridotites with evolved melts derived from recycled oceanic crust. In addition, one pyroxenite contains orthopyroxene surrounded by fine‐grained olivine and clinopyroxene, while another pyroxenite and the wehrlite contain zoned clinopyroxene with gradual increases in Na2O, (La/Yb)N, Sr, and 87Sr/86Sr ratios and decreases in Ti/Eu from core to rim. These characteristics record infiltration of a carbonatite melt shortly before the transport of the xenoliths. The inferred carbonatite melt has 87Sr/86Sr ≥ 0.70415 and mantle‐like olivine δ18O and originated from carbonated asthenosphere. Our results, together with previous studies on the host basalts, suggest that subducted crustal materials were initially transported to the asthenosphere beneath northeastern China to produce carbonate‐bearing domains. Upwelling of the carbonated asthenosphere produced carbonatite melts that migrated upward and metasomatized the overlying lithospheric mantle. Key Points Pyroxenites from northeastern China formed by reactions of peridotites with recycled oceanic crust‐derived silicate melts Infiltration of carbonated asthenosphere‐derived carbonatite melts into the lithospheric mantle produced wehrlite Upwelling of asthenosphere was the major factor in the evolution of the lithospheric mantle beneath northeastern China</abstract><cop>Washington</cop><pub>Blackwell Publishing Ltd</pub><doi>10.1029/2019JB018232</doi><tpages>18</tpages><orcidid>https://orcid.org/0000-0002-5055-7339</orcidid><orcidid>https://orcid.org/0000-0002-5129-8586</orcidid><orcidid>https://orcid.org/0000-0002-8297-1243</orcidid><oa>free_for_read</oa></addata></record>
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source Wiley Online Library Journals Frontfile Complete; Wiley Free Content
subjects Aluminum oxide
Anomalies
Asthenosphere
Basalt
Carbonates
Carbonation
Cenozoic
Components
Cratons
crustal recycling
Earth Sciences
Garnet
Geochemistry
Geophysics
Isotope composition
lithospheric mantle
Magma
Mantle
mantle xenolith
Melts
metasomatism
northeastern China
Ocean circulation
Oceanic crust
Olivine
Peridotite
Petrography
Petrology
Plates
Plates (tectonics)
pyroxenite
Ratios
Sciences of the Universe
Strontium
Strontium 87
Strontium isotopes
Subduction
Upwelling
Volcanic rocks
title Mantle and Recycled Oceanic Crustal Components in Mantle Xenoliths From Northeastern China and their Mantle Sources
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