Состав и условия формирования благороднометалльных руд Койкарско-Святнаволокского силла (Республика Карелия)

6. Котов, С.Р. и Котова, И. (2003). Жидкостная и кристаллизационная дифференциация как процессы, определяющие структуру контрастной расслоенности массива Кивакка (Сев. Карелия). Вестник СПбГУ. Сер. 7. Геология и география, 46-63.

7. Михайлова, В. и Аминова, В., под ред. (2005). Минерально-сырьевая база Республики Карелия. Кн. 1. Петрозаводск: Карельский научный центр РАН.

8. Рёддер, Э. (1983). Ликвация силикатных магм. В: Эволюция изверженных пород. М.: Мир, 24-66.

9. Сереброва, Е.Л., Филиппов, Н.Б., Губко, М.Г., Франк-Каменецкий, Д.А. (1995). Платинои золотометалльная минерализация в титаномагнетитовых габбро-диабазах Карелии. Вестник СПбГУ. Сер. 7. Геология и география, 1, 18-26.

10. Трофимов, Н.Н. (1995). Механизм формирования стратиформного золото-платино-палладиевого и титаномагнетитового оруденения в габбродолеритовых интрузиях нижнего протерозоя Карелии. В: Благородные металлы и алмазы Севера Европейской части России. Петрозаводск, 97-98.

11. Трофимов, Н.Н. и Голубев, А.И. (1996). Генезис комплексного благороднометалльного и титаномагнетитового оруденения в дифференцированных габбродолеритовых интрузиях Карелии. В: Крупные и уникальные месторождения редких и благородных металлов (проблемы генезиса и освоения). СПб.: 162-164.

12. Трофимов, Н.Н. и Голубев, А.И. (2008). Пудожгорское благороднометалльное титаномагнетитовое месторождение. Петрозаводск: Карельский научный центр РАН.

13. Филиппов, Н.Б., Трофимов, Н.Н., Голубев, А.И., Сергеев, С.А., Хухма, Х.(2007). Новые геохронологические данные по Койкарско-Святнаволокскому и Пудожгорскому габбро-долеритовым интрузивам. Геология и полезные ископаемые Карелии, 10, 49-68.

14. Шарков, Е.В. и Богатиков, О.А. (1998). Механизмы концентрирования элементов платиновой группы в расслоенных интрузивах Карело-Кольского региона. Геология рудных месторождений, 40, 419-439.

15. Юдовская, М.А., Киннэйрд, Д.А., Удачина, Л.В., Дистлер, В.В., Кузьмин, Д.В. (2014). Роль магматического и флюидного концентрирования при формировании платиновой минерализации нижней зоны и Платрифа по данным составов флогопита, кумулусных силикатов и сульфидного расплава (северный лимб комплекса Бушвельд). Геология рудных месторождений, 56, 509-538.

16. Bogaerts, M. and Schmidt, M.W. (2006). Experiments on silicate melt immiscibility in the system Fe2SiO4KAlSi3O8-SiO2-CaO-MgO-TiO2-P2O5 and implications for natural magmas. Contrib Mineral Petrol, 152, 257-274.

17. Burnham, C. (1975). Thermodynamics of melting in experimental silicate-volatile systems. In: IMA-Papers 9^th Meeting. Berlin; Regensburg, 101-118.

18. Charlier, B. and Grove, T.L. (2012). Experiments on liquid immiscibility along tholeiitic liquid lines of descent. Contrib Mineral Petrol, 164, 27-44.

19. Charlier, B., Namur, O., Toplis, M.J., Schiano, P, Cluzel, N., Higgins, M.D. (2011). Large-scale silicate liquid immiscibility during differentiation of tholeiitic basalt to granite and the origin of the Daly gap. Geology, 39 (10), 207-210.

20. Dong, H., Xing, C., Wang, C.Y. (2013). Textures and mineral compositions of the Xinjie layered intrusion, SW China: Implications for the origin of magnetite and fractionation process of Fe-Ti-rich basaltic magmas. Geoscience Frontiers, 4 (5), 503-515.

21. Godel, B., Maier, W.D., Barnes, S.J. (2008). Platinum-group elements in the merensky and J-M reefs: A review of recent studies. Journal of the Geological Society of India, 72 (5), 595-608.

22. Henry, D.J. and Guidotti, C.V. (2002). Titanium in biotite from metapelitic rocks: Temperature effects, crystal-chemical controls, and petrologic applications. American Mineralogist, 87 (4), 375-382.

23. Hess, P (1977). Structure of silicate melts | The Canadian Mineralogist | GeoScienceWorld [WWW Document]. Canadian Mineralogist. [online]

24. Holness, M.B., Stripp, G., Humphreys, M.C.S., Veksler, I.V, Nielsen, T.F.D., Tegner, C. (2011). Silicate liquid immiscibility within the crystal mush: late-stage magmatic microstructures in the skaergaard intrusion, east greenland. Journal of Petrology, 52 (1).

25. Humphreys, M.C.S. (2011). Silicate liquid immiscibility within the crystal mush: Evidence from Ti in plagioclase from the Skaergaard intrusion. Journal of Petrology, 52 (1), 147-174.

26. Jakobsen, J.K., Veksler, I.V, Tegner, C., Brooks, C.K. (2005). Immiscible ironand silica-rich melts in basalts petrogenesis documented in the Skaergaard intrusion. Geology 33.

27. Kanitpanyacharoen, W. and Boudreau, A.E. (2013). Sulfide-associated mineral assemblages in the Bushveld Complex, South Africa: Platinum-group element enrichment by vapor refining by chloride-carbonate fluids. Mineralium Deposita, 48, 193-210.

28. Klein, E.L. and Koppe, J.C. (2000). Chlorite geotermometry and physicochemical conditions of gold mineralization in the Paleoproterozoic Caxias deposit, Sao Luis craton, Northern Brazil. Geochimica Brasiliensis, 219-232.

29. Lindsley, D.H. and Spencer, K.J. (1982). Fe-Ti oxide geothermometry: Reducing analyses of coexisting Ti-magnetite (Mt) and ilmenite (Ilm). In: AGU1982 Spring Meeting Eos Transactions, 63 (18).

30. McBirney, A.R. (1975). Differentiation of the Skaergaard intrusion. Nature, 253, 691-694.

31. McBirney, A.R. and Nakamura, Y. (1974). Immiscibility in latestage magmas of the Skaergaard intrusion. Washingt: Carnegie Inst. Year Book, 348-352.

32. Mungall, J.E., Long, K., Brenan, J.M., Smythe, D., Naslund, H.R. (2018). Immiscible shoshonitic and FeP-oxide melts preserved in unconsolidated tephra at El Laco volcano, Chile. Geology, 46, 255-258.

33. Roedder, E. and Weiblen, P.W. (1971). Petrology of silicate melt inclusions, Apollo 11 and Apollo 12 and terrestrials equivalents. In: Proceedings of the Second Lunar Science Conference, 507-528.

34. Schmidt, M.W. (1992). Amphibole composition in tonalite as a function of pressure: an experimental calibration of the Al-in-hornblende barometer. Contributions to Mineralogy and Petrology, 110, 304-310.

35. Schmidt, M.W., Connolly, J.A.D., Gunther, D., Bogaerts, M. (2006). Element partitioning: The role of melt structure and composition. Science, 312, 1646-1650.

36. Serebrova, E.L., Filippov, N.B., Gubko, M.G., Frank-Kamenetskii, D.A. (1995). Platinumand gold-metal mineralization in titanomagnetite gabbro-diabases of Karelia. Vestnik of Saint Petersburg University. Series 7. Geology and geography, 1, 18-26. (In Russian)

37. Velasco, F., Tornos, F., Hanchar, J. M. (2016). Immiscible ironand silica-rich melts and magnetite geochemistry at the El Laco volcano (northern Chile): Evidence for a magmatic origin for the magnetite deposits. Ore Geology Reviews, 79, 346-366.

References

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2. Bogaerts, M. and Schmidt, M.W. (2006). Experiments on silicate melt immiscibility in the system Fe₂SiO₄KAlSi₃O₈-SiO₂-CaO-MgO-TiO₂-P₂O₅ and implications for natural magmas. Contrib Mineral Petrol, 152, 257-274.

3. Burnham, C. (1975). Thermodynamics of melting in experimental silicate-volatile systems. In: IMA-Papers 9^th Meeting. Berlin; Regensburg, 101-118.

4. Charlier, B. and Grove, T.L. (2012). Experiments on liquid immiscibility along tholeiitic liquid lines of descent. Contrib Mineral Petrol, 164, 27-44.

5. Charlier, B., Namur, O., Toplis, M.J., Schiano, P., Cluzel, N., Higgins, M.D. (2011). Large-scale silicate liquid immiscibility during differentiation of tholeiitic basalt to granite and the origin of the Daly gap. Geology, 39 (10), 207-210.

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7. Dong, H., Xing, C., Wang, C.Y. (2013). Textures and mineral compositions of the Xinjie layered intrusion, SW China: Implications for the origin of magnetite and fractionation process of Fe-Ti-rich basaltic magmas. Geoscience Frontiers, 4 (5), 503-515.

8. Filippov, N.B., Trofimov, N.N., Golubev, A.I., Sergeev, S.A., Khukhma, K. (2007). New geochronological data on the Koikar-Svyatnavolok and Pudozhgorsk gabbro-dolerite intrusions. Geologiia i poleznye iskopaemye Karelii, 49-68. (In Russian)

9. Godel, B., Maier, W.D., Barnes, S.J. (2008). Platinum-group elements in the merensky and J-M reefs: A review of recent studies. Journal of the Geological Society of India, 72 (5), 595-608.

10. Golubev, A.I., Trofimov, N.N., Petrov, S.V, Filippov, N.B. (2001). Precious metal mineralization of titanomagnetite ores of the Pudozhgorskoye deposit: technological characteristics, mineralogy. Geologiia i poleznye iskopaemye Karelii. Petrozavodsk, 4, 48-53. (In Russian)

11. Henry, D.J. and Guidotti, C.V. (2002). Titanium in biotite from metapelitic rocks: Temperature effects, crystal-chemical controls, and petrologic applications. American Mineralogist, 87 (4), 375-382.

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13. Holness, M.B., Stripp, G., Humphreys, M.C.S., Veksler, I.V, Nielsen, T.F.D., Tegner, C. (2011). Silicate liquid immiscibility within the crystal mush: late-stage magmatic microstructures in the skaergaard intrusion, east greenland. Journal of Petrology, 52 (1).

14. Humphreys, M.C.S. (2011). Silicate liquid immiscibility within the crystal mush: Evidence from Ti in plagioclase from the Skaergaard intrusion. Journal of Petrology, 52 (1), 147-174.

15. Iudovskaia, M.A., Kinneird, D.A., Udachina, L.V, Distler, V.V., Kuz'min, D.V. (2014). The role of magmatic and fluid concentration in the formation of platinum mineralization of the lower zone and Platreef according to the composition of phlogopite, cumulus silicates and sulfide melt (northern limb of the Bushveld Complex). Geologiia rudnyh mestorozhdenii, 56, 509-538. (In Russian)

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18. Kanitpanyacharoen, W and Boudreau, A.E. (2013). Sulfide-associated mineral assemblages in the Bushveld Complex, South Africa: Platinum-group element enrichment by vapor refining by chloride-carbonate fluids. Mineralium Deposita, 48, 193-210.

19. Klein, E.L. and Koppe, J.C. (2000). Chlorite geotermometry and physicochemical conditions of gold mineralization in the Paleoproterozoic Caxias deposit, Sao Luis craton, Northern Brazil. Geochimica Brasiliensis, 219-232.

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23. McBirney, A.R. (1975). Differentiation of the Skaergaard intrusion. Nature, 253, 691-694.

24. McBirney, A.R. and Nakamura, Y. (1974). Immiscibility in latestage magmas of the Skaergaard intrusion. Washingt: Carnegie Inst. Year Book, 348-352.

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28. Roedder, E. and Weiblen, P.W (1971). Petrology of silicate melt inclusions, Apollo 11 and Apollo 12 and terrestrials' equivalents. In: Proceedings of the Second Lunar Science Conference, 507-528.

29. Schmidt, M.W (1992). Amphibole composition in tonalite as a function of pressure: an experimental calibration of the Al-in-hornblende barometer. Contributions to Mineralogy and Petrology, 110, 304-310.

30. Schmidt, M.W, Connolly, J.A.D., Gunther, D., Bogaerts, M. (2006). Element partitioning: The role of melt structure and composition. Science, 312, 1646-1650.

31. Serebrova, E.L., Filippov, N.B., Gubko, M.G., Frank-Kamenetskii, D.A. (1995). Platinumand gold-metal mineralization in titanomagnetite gabbro-diabases of Karelia. Vestnik of Saint Petersburg University. Series 7. Geology and geography 1, 18-26. (In Russian)

32. Sharkov, E.V and Bogatikov, O.A. (1998). Mechanisms of concentration of elements of the platinum group in layered intrusions of the Karelian-Kola region. Geologiia rudnykh mestorozhdenii, 40, 419-439. (In Russian)

33. Trofimov, N.N. (1995). Mechanism of formation of stratiform gold-platinum-palladium and titanomagnetite mineralization in gabbrodolerite intrusions of the Lower Proterozoic of Karelia. In: Blagorodnye metally i almazy Severa Evropeiskoi chasti Rossii. Petrozavodsk, 97-98. (In Russian)

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36. Velasco, F., Tornos, F., Hanchar, J.M. (2016). Immiscible ironand silica-rich melts and magnetite geochemistry at the El Laco volcano (northern Chile): Evidence for a magmatic origin for the magnetite deposits. Ore Geology Reviews, 79, 346-366.

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