Petrology of an intrusion-related high-grade migmatite: implications for partial melting of metasedimentary rocks and leucosome-forming processes
Intrusion‐related migmatites comprise a substantial part of the high‐grade part of the southern Damara orogen, Namibia which is dominated by Al‐rich metasedimentary rocks and various granites. Migmatites consist of melanosomes with biotite+sillimanite+garnet+cordierite+hercynite and leucosomes are g...
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Published in | Journal of metamorphic geology Vol. 16; no. 3; pp. 425 - 445 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
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Oxford, UK
Blackwell Science Ltd
01.05.1998
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Abstract | Intrusion‐related migmatites comprise a substantial part of the high‐grade part of the southern Damara orogen, Namibia which is dominated by Al‐rich metasedimentary rocks and various granites. Migmatites consist of melanosomes with biotite+sillimanite+garnet+cordierite+hercynite and leucosomes are garnet‐ and cordierite‐bearing. Metamorphic grade throughout the area is in the upper amphibolite to lower granulite facies (5–6 kbar at 730–750 °C). Field evidence, petrographic observations, chemical data and mass balance calculations suggest that intrusion of granitic magmas and concomitant partial melting of metasedimentary units were the main processes for the generation of the migmatites. The intruding melts were significantly modified by magma mixing with in situ partial melts, accumulation of mainly feldspar and contamination with garnet from the wall rocks. However, it is suggested that these melts originally represented disequilibrium melts from a metasedimentary protolith. The occurrence of LILE‐, HFSE‐ and LREE‐enriched and ‐depleted residues within the leucosomes implies that both quartzo‐feldspathic and pelitic rocks were subjected to partial melting. Isotope ratios of the leucosomes are rather constant (143Nd/144Nd (500 Ma): 0.511718–0.511754, ε Nd (500 Ma): −3.54 to −5.11) and Sr (87Sr/86Sr (500 Ma): 0.714119–0.714686), the metasedimentary units have rather constant Nd isotope ratios (143Nd/144Nd (500 Ma): 0.511622–0.511789, ε Nd (500 Ma): −3.70 to −6.93) but variable Sr isotope ratios Sr (87Sr/86Sr (500 Ma): 0.713527–0.722268). The most restitic melanosome MEL 4 has a Sr isotopic composition of 87Sr/86Sr (500 Ma): 0.729380. Oxygen isotopes do not mirror the proposed contamination process, due to the equally high δ18O contents of metasediments and crustal melts. However, the most LILE‐depleted residue MEL 4 shows the lowest δ18O value (<10). Mass balance calculations suggest high degrees of partial melting (20–40%). It is concluded that partial melting was promoted by heat transfer and release of a fluid phase from the intruding granites. High degrees of partial melting can be reached as long as the available H2O, derived from the crystallization of the intruding granites, is efficiently recycled within the rock volume. Due to the limited amounts of in situ melting, it seems likely that such regional migmatite terranes are not the sources for large intrusive granite bodies. The high geothermal gradient inferred from the metamorphic conditions was probably caused by exhumation of deep crustal rocks and contemporaneous intrusion of huge masses of granitoid magmas. The Davetsaub area represents an example of migmatites formed at moderate pressures and high temperatures, and illustrates some of the reactions that may modify leucosome compositions. The area provides constraints on melting processes operating in high‐grade metasedimentary rocks. |
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AbstractList | Intrusion‐related migmatites comprise a substantial part of the high‐grade part of the southern Damara orogen, Namibia which is dominated by Al‐rich metasedimentary rocks and various granites. Migmatites consist of melanosomes with biotite+sillimanite+garnet+cordierite+hercynite and leucosomes are garnet‐ and cordierite‐bearing. Metamorphic grade throughout the area is in the upper amphibolite to lower granulite facies (5–6 kbar at 730–750 °C). Field evidence, petrographic observations, chemical data and mass balance calculations suggest that intrusion of granitic magmas and concomitant partial melting of metasedimentary units were the main processes for the generation of the migmatites. The intruding melts were significantly modified by magma mixing with
in situ
partial melts, accumulation of mainly feldspar and contamination with garnet from the wall rocks. However, it is suggested that these melts originally represented disequilibrium melts from a metasedimentary protolith. The occurrence of LILE‐, HFSE‐ and LREE‐enriched and ‐depleted residues within the leucosomes implies that both quartzo‐feldspathic and pelitic rocks were subjected to partial melting. Isotope ratios of the leucosomes are rather constant (
143
Nd/
144
Nd (500 Ma): 0.511718–0.511754, ε Nd (500 Ma): −3.54 to −5.11) and Sr (
87
Sr/
86
Sr (500 Ma): 0.714119–0.714686), the metasedimentary units have rather constant Nd isotope ratios (
143
Nd/
144
Nd (500 Ma): 0.511622–0.511789, ε Nd (500 Ma): −3.70 to −6.93) but variable Sr isotope ratios Sr (
87
Sr/
86
Sr (500 Ma): 0.713527–0.722268). The most restitic melanosome MEL 4 has a Sr isotopic composition of
87
Sr/
86
Sr (500 Ma): 0.729380. Oxygen isotopes do not mirror the proposed contamination process, due to the equally high δ
18
O contents of metasediments and crustal melts. However, the most LILE‐depleted residue MEL 4 shows the lowest δ
18
O value (<10). Mass balance calculations suggest high degrees of partial melting (20–40%). It is concluded that partial melting was promoted by heat transfer and release of a fluid phase from the intruding granites. High degrees of partial melting can be reached as long as the available H
2
O, derived from the crystallization of the intruding granites, is efficiently recycled within the rock volume. Due to the limited amounts of
in situ
melting, it seems likely that such regional migmatite terranes are not the sources for large intrusive granite bodies. The high geothermal gradient inferred from the metamorphic conditions was probably caused by exhumation of deep crustal rocks and contemporaneous intrusion of huge masses of granitoid magmas. The Davetsaub area represents an example of migmatites formed at moderate pressures and high temperatures, and illustrates some of the reactions that may modify leucosome compositions. The area provides constraints on melting processes operating in high‐grade metasedimentary rocks. Intrusion‐related migmatites comprise a substantial part of the high‐grade part of the southern Damara orogen, Namibia which is dominated by Al‐rich metasedimentary rocks and various granites. Migmatites consist of melanosomes with biotite+sillimanite+garnet+cordierite+hercynite and leucosomes are garnet‐ and cordierite‐bearing. Metamorphic grade throughout the area is in the upper amphibolite to lower granulite facies (5–6 kbar at 730–750 °C). Field evidence, petrographic observations, chemical data and mass balance calculations suggest that intrusion of granitic magmas and concomitant partial melting of metasedimentary units were the main processes for the generation of the migmatites. The intruding melts were significantly modified by magma mixing with in situ partial melts, accumulation of mainly feldspar and contamination with garnet from the wall rocks. However, it is suggested that these melts originally represented disequilibrium melts from a metasedimentary protolith. The occurrence of LILE‐, HFSE‐ and LREE‐enriched and ‐depleted residues within the leucosomes implies that both quartzo‐feldspathic and pelitic rocks were subjected to partial melting. Isotope ratios of the leucosomes are rather constant (143Nd/144Nd (500 Ma): 0.511718–0.511754, ε Nd (500 Ma): −3.54 to −5.11) and Sr (87Sr/86Sr (500 Ma): 0.714119–0.714686), the metasedimentary units have rather constant Nd isotope ratios (143Nd/144Nd (500 Ma): 0.511622–0.511789, ε Nd (500 Ma): −3.70 to −6.93) but variable Sr isotope ratios Sr (87Sr/86Sr (500 Ma): 0.713527–0.722268). The most restitic melanosome MEL 4 has a Sr isotopic composition of 87Sr/86Sr (500 Ma): 0.729380. Oxygen isotopes do not mirror the proposed contamination process, due to the equally high δ18O contents of metasediments and crustal melts. However, the most LILE‐depleted residue MEL 4 shows the lowest δ18O value (<10). Mass balance calculations suggest high degrees of partial melting (20–40%). It is concluded that partial melting was promoted by heat transfer and release of a fluid phase from the intruding granites. High degrees of partial melting can be reached as long as the available H2O, derived from the crystallization of the intruding granites, is efficiently recycled within the rock volume. Due to the limited amounts of in situ melting, it seems likely that such regional migmatite terranes are not the sources for large intrusive granite bodies. The high geothermal gradient inferred from the metamorphic conditions was probably caused by exhumation of deep crustal rocks and contemporaneous intrusion of huge masses of granitoid magmas. The Davetsaub area represents an example of migmatites formed at moderate pressures and high temperatures, and illustrates some of the reactions that may modify leucosome compositions. The area provides constraints on melting processes operating in high‐grade metasedimentary rocks. |
Author | MEZGER, K. HOFFER, E. JUNG, S. MASBERG, P. HOERNES, S. |
Author_xml | – sequence: 1 givenname: S. surname: JUNG fullname: JUNG, S. organization: 1 Institut für Mineralogie, Kristallographie & Petrologie, Philipps-Universität Marburg, 35032 Marburg, Germany, 2 Max-Planck-Institut für Chemie, Abt. Geochemie, Postfach 3060, 55020 Mainz, Germany (email: sjung@geobar.mpch-mainz.mpg.de), 3 Mineralogisch-Petrologisches Institut der Universität Bonn, Poppelsdorfer Schloß, 53115 Bonn, Germany – sequence: 2 givenname: K. surname: MEZGER fullname: MEZGER, K. organization: 1 Institut für Mineralogie, Kristallographie & Petrologie, Philipps-Universität Marburg, 35032 Marburg, Germany, 2 Max-Planck-Institut für Chemie, Abt. Geochemie, Postfach 3060, 55020 Mainz, Germany (email: sjung@geobar.mpch-mainz.mpg.de), 3 Mineralogisch-Petrologisches Institut der Universität Bonn, Poppelsdorfer Schloß, 53115 Bonn, Germany – sequence: 3 givenname: P. surname: MASBERG fullname: MASBERG, P. organization: 1 Institut für Mineralogie, Kristallographie & Petrologie, Philipps-Universität Marburg, 35032 Marburg, Germany, 2 Max-Planck-Institut für Chemie, Abt. Geochemie, Postfach 3060, 55020 Mainz, Germany (email: sjung@geobar.mpch-mainz.mpg.de), 3 Mineralogisch-Petrologisches Institut der Universität Bonn, Poppelsdorfer Schloß, 53115 Bonn, Germany – sequence: 4 givenname: E. surname: HOFFER fullname: HOFFER, E. organization: 1 Institut für Mineralogie, Kristallographie & Petrologie, Philipps-Universität Marburg, 35032 Marburg, Germany, 2 Max-Planck-Institut für Chemie, Abt. Geochemie, Postfach 3060, 55020 Mainz, Germany (email: sjung@geobar.mpch-mainz.mpg.de), 3 Mineralogisch-Petrologisches Institut der Universität Bonn, Poppelsdorfer Schloß, 53115 Bonn, Germany – sequence: 5 givenname: S. surname: HOERNES fullname: HOERNES, S. organization: 1 Institut für Mineralogie, Kristallographie & Petrologie, Philipps-Universität Marburg, 35032 Marburg, Germany, 2 Max-Planck-Institut für Chemie, Abt. Geochemie, Postfach 3060, 55020 Mainz, Germany (email: sjung@geobar.mpch-mainz.mpg.de), 3 Mineralogisch-Petrologisches Institut der Universität Bonn, Poppelsdorfer Schloß, 53115 Bonn, Germany |
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N.1982;Origin and evolution of a migmatiteContributions to Mineralogy and Petrology, 79 114-123 Holdaway M. J. & Lee S. M.1977;Fe-Mg cordierite stability in high grade pelitic rocks based on experimental, theoretical and natural observations.Contributions to Mineralogy and Petrology, 63 175-198 Kretz R.1983;Symbols for rock forming minerals.American Mineralogist, 68 277-279 Bea F.Pereira M. D. & Stroh A.1994;Mineral/leucosome trace-element partitioning in a peraluminous migmatite (a laser ablation-ICP-MS-study).Chemical Geology, 117 291-312 Whitney D. L. & Irving A. J.1994;Origin of K-poor leucosomes in a metasedimentary migmatite complex by ultrametamorphism, syn-metamorphic magmatism and subsolidus processes.Lithos, 32 173-192 Watt G. R. & Harley S. L.1993;Accessory phase controls on the geochemistry of crustal melts and restites produced during water-undersaturated partial melting.Contributions to Mineralogy and Petrology, 114 550-566 Harris N.1981;The application of spinel-bearing metapelites to P/T determinations: An example from South India.Contributions to Mineralogyand Petrology, 76 229-233 Sun S. S. & McDounough W. F.1989;Chemical and isotopic systematics of ocean basalts: implications for mantle composition and processes. In:Magmatism in the ocean basins, 42 313-345 Phillips G. N.Groves D. I. & Reed K.1989;Geochemistry of the Kuiseb metasediments around Windhoek, Namibia.Communications of the Geological Survey, Namibia, 5 19-30 Clayton R. N. & Mayeda T. D.1963;The use of bromine pentaflouride in the extraction of oxygen from oxides and silicates for isotope analysis.Geochimica et Cosmochimica Acta, 27 43-52 Hartmann O.Hoffer E. & Haack U.1983;Regional metamorphism in the Damara orogen: Interaction of crustal motion and heat transfer. In:Evolution of the Damara orogen, 11 233-241 Vielzeuf D.1983;The spinel and quartz associations in high grade xenoliths from Tallante (S.E. Spain) and their potential use in geothermometry and barometry.Contributions to Mineralogy and Petrology, 82 301-311 Finger F. & Clemens J. D.1995;Migmatization and 'secondary' granitic magmas: effect of emplacement and crystallization of 'primary' granitoids in Southern Bohemia, Austria.Contributions to Mineralogy and Petrology, 120 311-326 Kukla P. A.1992;Tectonics and sedimentation of a late Proterozoic Damaran convergent continental margin, Khomas Hochland, Central Namibia.Memoirs of the Geological Survey, Namibia, 12 Bühn B.Häussinger H.Kramm U.Kukla C.Kukla P. A. & Stanistreet I. G.1994;Tectonometamorphic patterns developed dur 1989; 42 1984; 25 1976; 61 1965; 50 1994; 66 1977; 63 1978; 1 1992; 55 1996; 37 1992; 12 1983; 16 1983; 11 1977 1976; 276 1987; 86 1989; 101 1990 1992; 110 1973; 273 1983; 64 1985 1994; 36 1985; 90 1983 1995; 122 1985; 93 1995; 120 1981; 76 1983; 68 1992; 83 1994; 32 1982; 79 1990; 31 1989; 5 1963; 27 1990; 32 1986; 92 1994; 117 1987; 95 1993; 88 1995; 10 1981; 7 1988; 98 1988; 99 1977; 43 1991; 9 1991; 7 1985; 49 1982; 282 1990; 83 1993; 15 1971; 33 1980; 50 1988; 6 1980; 8 1983; 82 1985; 74 1993; 114 1990; 311 1971; 271 1987; 28 1977; 8 1994; 54 1994; 6 1976; 19 Phillips G. N. (e_1_2_1_54_2) 1989; 5 Bühn B. (e_1_2_1_8_2) 1994; 54 Nieberding F. (e_1_2_1_51_2) 1976; 19 e_1_2_1_64_2 e_1_2_1_66_2 e_1_2_1_22_2 e_1_2_1_45_2 e_1_2_1_60_2 e_1_2_1_43_2 e_1_2_1_49_2 e_1_2_1_24_2 e_1_2_1_68_2 e_1_2_1_28_2 Jung S. (e_1_2_1_35_2) 1995; 10 Kukla C. (e_1_2_1_40_2) 1991; 7 Chappel B. W. (e_1_2_1_10_2) 1977; 8 e_1_2_1_6_2 e_1_2_1_75_2 e_1_2_1_4_2 Kretz R. (e_1_2_1_37_2) 1983; 68 e_1_2_1_56_2 e_1_2_1_77_2 e_1_2_1_2_2 e_1_2_1_12_2 e_1_2_1_33_2 Kukla P. A. (e_1_2_1_41_2) 1992; 12 e_1_2_1_50_2 e_1_2_1_71_2 e_1_2_1_31_2 e_1_2_1_52_2 e_1_2_1_73_2 e_1_2_1_16_2 e_1_2_1_14_2 Sun S. S. (e_1_2_1_62_2) 1989; 42 e_1_2_1_79_2 e_1_2_1_18_2 Sawyer E. W. (e_1_2_1_58_2) 1981; 7 e_1_2_1_65_2 Wones D. R. (e_1_2_1_80_2) 1965; 50 e_1_2_1_67_2 e_1_2_1_23_2 e_1_2_1_44_2 e_1_2_1_61_2 e_1_2_1_21_2 e_1_2_1_42_2 e_1_2_1_63_2 e_1_2_1_27_2 e_1_2_1_25_2 e_1_2_1_46_2 e_1_2_1_69_2 e_1_2_1_29_2 Miller R. McG. (e_1_2_1_47_2) 1983; 11 Miller R. McG. (e_1_2_1_48_2) 1983; 11 e_1_2_1_70_2 Hartmann O. (e_1_2_1_26_2) 1983; 11 e_1_2_1_30_2 e_1_2_1_53_2 e_1_2_1_76_2 e_1_2_1_7_2 e_1_2_1_55_2 e_1_2_1_78_2 e_1_2_1_5_2 e_1_2_1_11_2 Ghent E. D. (e_1_2_1_20_2) 1976; 61 e_1_2_1_34_2 e_1_2_1_72_2 e_1_2_1_3_2 e_1_2_1_32_2 e_1_2_1_74_2 e_1_2_1_15_2 e_1_2_1_38_2 e_1_2_1_13_2 e_1_2_1_36_2 e_1_2_1_19_2 e_1_2_1_57_2 e_1_2_1_17_2 Kukla C. (e_1_2_1_39_2) 1993; 15 e_1_2_1_59_2 e_1_2_1_9_2 |
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Title | Petrology of an intrusion-related high-grade migmatite: implications for partial melting of metasedimentary rocks and leucosome-forming processes |
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