journal article·2022-06-20Open access

Vanadium and Cobalt Occurrence in the Fe-Ti-V Oxide Deposits Related to Mesoproterozoic AMCG Complex in NE Poland

Stanisław Z. Mikulski, Katarzyna Sadłowska, Janina Wiszniewska, Rafał Małek

Applied Sciences· Volume 12· Issue 12

Abstract

On the basis of geochemical whole-rock and mineralogical point analyses, the concentrations of V and Co were determined in magnetite-ilmenite oxide ores, associated with sulphides, at the Krzemianka and Udryn deposits in the Mesoproterozoic Suwałki Anorthosite Massif (SAM) in NE Poland. EPMA analyses showed that the main carrier of vanadium was magnetite (mean = 0.42 wt%) and, to a lesser extent, ilmenite (mean = 0.14 wt%) and minor Al-spinels (mean = 0.04 wt%). In turn, cobalt was found mainly in the form of isomorphic substitutions in magmatic sulphides such as pentlandite (mean = 4.41 wt% Co), pyrrhotite (mean = 0.16 wt%), and chalcopyrite (mean = 0.11 wt%). Moreover, Co-enrichments were also recognized in the secondary sulphides, such as pyrite and bravoite, replacing pyrrhotite (means = 1.6 and 2.7 wt% Co, respectively), and in the form of different thiospinels ((Fe, Ni) (Co, Ni)2S4), mainly siegenite (mean = 22.0 wt% Co), replacing pyrrhotite and pentlandite. Vanadium cations were substituted in Fe, Ti oxide minerals in place of Fe+3 cations, and in the case of cobalt, Fe+2 cations were substituted in sulphides and thiospinels. Vanadium and cobalt showed high Person’s correlation coefficients (r = 0.70), indicating their close spatial coexistence and a common source, which was parental anorthosite-norite magma of the SAM suites. The common magma genesis of magnetite-ilmenite and sulphide mineralization was also confirmed by the very similar shapes of the curves of REE content in the oxide-sulphide ores in relation to chondrite, in which negative Eu anomalies and positive Sm anomalies are clearly visible. Although the average contents of vanadium and cobalt were low (arithmetic means = 960 ppm, and 122 ppm, respectively), the resources of these metals were estimated to be large due to the enormous reserves of magnetite-ilmenite ores hosted by the SAM. However, the Fe-Ti-V ores associated with Fe, Ni, Co, and Cu sulphides were considered to be sub-economic because of their depth of occurrence (mainly 1.0 km below the surface level); their metal contents, which were usually too low; and additionally the fact that the location is in a highly environmentally protected landscape and lake area.
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Research context

OpenAlex topics: Geological and Geochemical Analysis · Geochemistry and Geologic Mapping · High-pressure geophysics and materials

SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.

Affiliations

Polish Geological Institute—National Research Institute, Rakowiecka 4, 00-975 Warszawa, Poland

Funding

European Union’s Horizon 2020 research and innovation programme · Geological Surveys and national funds allocated for science within the period 2018–2021 · PGI-NRI

References (66)

Show source-provided references
1. Moss, R.L., Tzimas, E., Kara, H., Willis, P., and Kooroshy, J. (2011). Critical metals in strategic energy technologies. Assessing rare metals as Supply-chain bottlenecks in low-carbon energy technologies. European Commission Joint Research Centre Institute for Energy and Transport, Publication Office of the European Union.
2. The critical metals: An overview and opportunities and concerns for the future
3. Communication from the Commission to the European Parliament, The Council, and The European Economic and Social Committee and the Committee of the Regions (2020). Critical Raw Materials Resilience: Charting a Path towards Greater Security and Sustainability, European Commission. COM(2020)474 Final.
4. Alves Dias, P., Blagodeva, D., Pavel, C., and Arvanititdis, N. (2018). Cobalt: Demand-supply balances in the transition to electric mobility. EUR 29381 EN. Science for Policy Report 2018, Joint Research Centre.
5. Quantifying the recoverable resources of by-product metals: The case of cobalt10.1016/j.oregeorev.2013.04.010 ↗
6. US Geological Survey (2021). Mineral Commodity Summaries 2021. Cobalt, 50–51. Vanadium, 180–181.
7. Bolewski, A. (1984). Mineral Resources of the World, Nickel—Ni, Cobalt—Co, Wyd. Geol.. (In Polish).
8. Bolewski, A. (1982). Mineral Resources of the World, Vanadium—V, Titanium—Ti, Zirconium—Zr, Hafnium—Hf, Wyd. Geol.. (In Polish).
9. Internal structure of the buried Suwałki Anorthosite Massif (East European Craton, NE Poland) based on borehole, magnetic and gravity data combined with new petrological results
10. Occurrence, structure and mineral diversity of rocks from the Suwałki Anorthosite Massif
11. Ryka, W., Subieta, M., Kubicki, S., and Kurbiel, H. (1982). The Geological Map of the Suwałki Intrusion. 1:100,000, Wyd. Geol.
12. Geological position of the Suwałki Anorthosite Massif
13. Krzemińska, E., Krzemiński, L., Petecki, Z., Wiszniewska, J., Salwa, S., Żaba, J., Gaidzik, K., Williams, I.S., Rosowiecka, O., and Taran, L. (2017). Geological Map of Crystalline Basement in the Polish Part of the East European Platform 1:1,000,000.
14. Ferro-potassic A-type granites and related rocks in NE Poland and S Lithuania: West of the East European Craton10.1016/S0301-9268(03)00090-1 ↗
15. Advances in geochronology in the Suwałki Anorthosite Massif and subsequent granite veins, northeastern Poland10.1016/j.precamres.2021.106265 ↗
16. The north-eastern Polish anorthosite massifs: Petrological, geochemical and isotopic evidence for a crustal derivation10.1046/j.1365-3121.2002.00443.x ↗
17. Mineralogic and geochemical study of ore-bearing apatite rocks (nelsonites) from the Suwałki Massif (NE Poland)
18. Suwałki nelsonites: New mineralogical and geochemical data
19. The nelsonite problem: The origin by melt immiscibility
20. The origin of nelsonite and high-Zr ferrodiorite associated with Proterozoic anorthosite10.1016/j.oregeorev.2015.05.005 ↗
21. Geophysical studies of the Suwałki Anorthosite Massif
22. Tectonics of the Suwałki Anorthosite Massif in the light of the analysis of satellite images and geophysical data
23. Ore mineralization of the Suwałki Basic Massif
24. Minerals, exsolution features and geochemistry of Fe-Ti ores of the Suwałki district (northeast Poland)10.1007/BF00204302 ↗
25. Genetic aspects of ore minerals texture and structure in the Suwałki Massif
26. Mineralogy of the Fe-Ti-V ores of the Suwałki anorthosite massif
27. The regularity of occurrence of ore mineralization in selected complexes of the crystalline basement of north-eastern Poland
28. Geological structure of Krzemianka and Udryn deposits
29. An age and genesis of Fe-Ti-V ores and associated rocks in the Suwałki Anorthosite Massif (NE Poland)
30. Szuflicki, M., Malon, A., and Tymiński, M. (2018). Metallic Raw Materials, The Balance of Mineral Resources Deposits in Poland as of 31.12.2018, (In Polish).
31. Geo-economic evaluation of vanadiferous titanomagnetite deposits in Suwałki massif in Poland
32. Trace elements of the Suwałki Anorthosite Massif
33. The occurrence of associated and critical elements in selected documented Zn-Pb, Cu-Ag, Fe-Ti-V, Mo-Cu-W, Sn, Au-As and Ni deposits in Poland10.5604/01.3001.0012.7113 ↗
34. New results of polymetallic, PGE and REE mineralizations research in the Suwałki Anorthosite massif (NE Poland)10.5604/01.3001.0012.6933 ↗
35. Electron microprobe study of V, Co, Ni and Au substitutions in ore minerals from Fe-Ti-V deposits (NE Poland)
36. Mikulski, S.Z., and Sadłowska, K. (2019, January 27–30). Critical The critical elements (V, Co, Ga, Sc, REE) enrichment of Fe-Ti-V oxide deposits related to Mesoproterozoic AMCG complex in Poland. Proceedings of the 15th SGA Biennial Meeting, Glasgow, UK.
37. Re-Os study of Fe-Ti-V Oxide and Fe-Cu-Ni sulphide deposits, Suwałki Anorthosite Massif. Northeast Poland10.1007/s001260050251 ↗
38. A Re-Os study of the Suwałki anorthosite massif, northeast Poland
39. Magmatic ores
40. Ti substitution mechanisms in phlogopites from the Suwalki massif-type anorthosite, NE Poland10.1127/0935-1221/2009/0021-1894 ↗
41. Geochemical and mineralogical study of sulphide minerals occurring in magnetite rocks of NE Poland
42. The Shaytor Apatite-Magnetite Deposit in the Kashmar-Kerman Tectonic Zone (Central Iran): A Kirun-Type iron deposit10.4236/ojg.2016.68068 ↗
43. The composition of the Earth10.1016/0009-2541(94)00140-4 ↗
44. The plagioclase-magma density paradox re-examined and crystallization of Proterozoic anorthosites10.1093/petrology/41.5.627 ↗
45. Magma chamber processes in the Tellnes ilmenite deposit (Rogaland anorthosite province; SW Norway) and the formation of Fe-Ti ores in massif-type anorthosites10.1016/j.chemgeo.2006.05.007 ↗
46. Cumulate origin and polybaric crystallization of Fe-Ti oxide ores in the Suwałki anorthosite, northeastern Poland10.2113/gsecongeo.104.2.205 ↗
47. Origin of the giant Allard Lake ilmenite ore deposit (Canada) by fractional crystallization, multiple magma pulses and mixing10.1016/j.lithos.2010.02.009 ↗
48. Origin of certain iron-titanium oxide and apatite rocks10.2113/gsecongeo.62.3.303 ↗
49. Stress-driven melt segregation in partially molten feldspathic rocks
50. Structural evolution of the Precambrian Bjerkreim–Sokndal intrusion, South Norway
51. Cawthorn, R.G. (1996). The Bjerkreim-Sokndal layered intrusion, Southwest Norway. Layered Intrusions, Elsevier.
52. Hydrothermal mineralization and fluid inclusion study on the Heishan iron deposit, Chengde County, Hebei Province, China
53. The crustal tongue melting model and the origin of massive anorthosites10.1046/j.1365-3121.1999.00232.x ↗
54. Iron-titanium oxide minerals in the Bjerkrem-Sogndal Massif, South-western Norway10.1093/petrology/13.1.57 ↗
55. Michot, J., and Demaiffe, D. (1996). Liquid ilmenite or liquidus ilmenite: A comment on the nature of ilmenite vein deposits. Petrology and Geochemistry of Magmatic Suites of Rocks in the Continental and Oceanic Crusts, Royal Museum for Central Africa (Tervuren).
56. The titanomagnetite-ilmenite equilibrium: New experimental data and thermo-oxybarometric application to the crystallization of basic to intermediate rocks10.1093/petrology/egn021 ↗
57. Views of the origin of the Suwałki Anorthosite Massif
58. Barbalance, K. (2021, November 19). Periodic Table of Elements. Available online: https://environmentalchemistry.com/yogi/periodic.
59. Mikulski, S.Z. (2022, January 28–31). Cobalt potential from the metallic deposits in Poland. Proceedings of the 16th SGA Biennial Meeting, Rotorua, New Zealand.
60. Cox, D., and Singer, J. (1986). Descriptive model of anorthosite Ti, Mineral Deposit Models, USGS Bull 1693.
61. Vanadium-bearing titaniferous iron ores of the Rooiwater complex in the North-Eastern Transval
62. Temporal evolution and nature of Ti-Fe-P mineralization in the anorthosite-mangerite-charnockite-granite (AMCG) suites of the south-central Grenville Province, Saguenay-Lac St. Jean area, Quebec, Canada10.1139/e05-050 ↗
63. The Kunene anorthosite complex, Namibia, and its satellite intrusions: Geochemistry, geochronology, and economic potential10.2113/econgeo.108.5.953 ↗
64. Fe-Ti-V-P ore deposits associated with Proterozoic massif-type anorthosites and related rocks10.1016/j.earscirev.2014.11.005 ↗
65. Villanova-de-Benavent, C., Torro, L., Castillo-Oliver, M., Campeny, M., Melgarejo, J.C., Llovet, X., Gali, S., and Goncalves, A.O. (2017). Fe-Ti(-V) oxide deposits of the Kunene Anorthosite Complex (SW Angola): Mineralogy and Thermo-Oxybarometry. Minerals, 7.10.3390/min7120246 ↗
66. Goodfellow, W.D. (2007). Prospective metallogenic settings of the Grenville Province. Mineral Deposits of Canada: A Synthesis of Major Deposit-Types, District Metallogeny, the Evolution of Geological Provinces, and Exploration Methods, Mineral Deposits Division, Geological Survey of Canada.