XXXI International Mineral Processing Congress 2024 Proceedings/Washington, DC/Sep 29–Oct 3 1441
Lahtinen, R., Hölttä, P., Kontinen, A., Niiranen, T.,
Nironen, M., Saalmann, K., and Sorjonen-Ward, P.
2011. Tectonic and metallogenic evolution of the
Fennoscandian Shield. Key questions with emphasis
on Finland. Espoo, Geological Survey of Finland.
Lund, C. 2013. Mineralogical, chemical and textural char-
acterisation of the Malmberget iron ore deposit for a
geometallurgical model. Doctoral Dissertation, Luleå
University of Technology, Sweden. 190 p.
Lundberg, B. and Smellie, J. 1979. Painirova and Mertainen
iron ores two deposits of the Kiruna iron ore type in
northern Sweden. Economic Geology 74(5): 1131–1152.
Månbro, C., Kolodziejczyk, J., Krolop, P., Öberg, E. and
Parian, M. 2023. Characterisation of apatitebearing
magnetite ore indrillcores using µ-XRF. SGA 2023,
Zurich, Switzerland.
Martinsson, O. 2015. Genesis of the Per Geijer apatite iron
ores, Kiruna area, northern Sweden. In Abstract vol-
ume, SGA 2015, Nancy, France.
Martinsson, O., Billström, K., Broman, C., Weihed, P.,
and Wanhainen, C. 2016. Metallogeny of the north-
ern Norrbotten ore province, northern Fennoscandian
Shield with emphasis on IOCG and apatite-iron ore
deposits. Ore Geology Reviews, 78: 447–492.
Mellqvist, C., Öhlander, B., Skiöld, T. and Wikström, A.
1999. The Archaean–Proterozoic.
Palaeoboundary in the Luleå area, northern Sweden: field
and isotope geochemical evidence for a sharp terrane
boundary. Precambrian Research, 96(3–4): 225–243.
Miles J., Allen R.L., Krolop P. 2023. An alternative for-
mation environment for Kiruna-type iron deposits: an
example from the Per Geijer IOA deposit, northern
Sweden. SEG 2023, London, UK.
Niiranen, K. 2015. Characterization of the Kiirunavaara
iron ore deposit for mineral processing with the focus
on the high silica ore type B2. Doctoral Dissertation,
Montanuniversität Leoben, Austria. 195 p. Parak, T.
1975. Kiruna iron ores are not” intrusive-magmatic
ores of the Kiruna type.” Economic Geology 70 (7):
1242–1258.
Schulz, C. 2022. Geochemical comparison of magnetite
with emphasis on magnetite from South African iron
rich ultramafic pegmatites and the Kiruna District,
northern Sweden. M.Sc. Thesis TU Bergakademie
Freiberg. Germany, 234 p.
Skiöld, T., Öhlander, B., Markkula, H., Widenfalk, L. and
Claesson, L.Å. 1993. Chronology of.
Proterozoic orogenic processes at the Archaean continen-
tal margin in northern Sweden. Precambrian Research,
64(1–4): 225–238.
Weihed, P., Bergman, J., and Bergström, U. 1992.
Metallogeny and tectonic evolution of the Early
Proterozoic Skellefte district, northern Sweden.
Precambrian Research, 58(1–4): 143–167.
Lahtinen, R., Hölttä, P., Kontinen, A., Niiranen, T.,
Nironen, M., Saalmann, K., and Sorjonen-Ward, P.
2011. Tectonic and metallogenic evolution of the
Fennoscandian Shield. Key questions with emphasis
on Finland. Espoo, Geological Survey of Finland.
Lund, C. 2013. Mineralogical, chemical and textural char-
acterisation of the Malmberget iron ore deposit for a
geometallurgical model. Doctoral Dissertation, Luleå
University of Technology, Sweden. 190 p.
Lundberg, B. and Smellie, J. 1979. Painirova and Mertainen
iron ores two deposits of the Kiruna iron ore type in
northern Sweden. Economic Geology 74(5): 1131–1152.
Månbro, C., Kolodziejczyk, J., Krolop, P., Öberg, E. and
Parian, M. 2023. Characterisation of apatitebearing
magnetite ore indrillcores using µ-XRF. SGA 2023,
Zurich, Switzerland.
Martinsson, O. 2015. Genesis of the Per Geijer apatite iron
ores, Kiruna area, northern Sweden. In Abstract vol-
ume, SGA 2015, Nancy, France.
Martinsson, O., Billström, K., Broman, C., Weihed, P.,
and Wanhainen, C. 2016. Metallogeny of the north-
ern Norrbotten ore province, northern Fennoscandian
Shield with emphasis on IOCG and apatite-iron ore
deposits. Ore Geology Reviews, 78: 447–492.
Mellqvist, C., Öhlander, B., Skiöld, T. and Wikström, A.
1999. The Archaean–Proterozoic.
Palaeoboundary in the Luleå area, northern Sweden: field
and isotope geochemical evidence for a sharp terrane
boundary. Precambrian Research, 96(3–4): 225–243.
Miles J., Allen R.L., Krolop P. 2023. An alternative for-
mation environment for Kiruna-type iron deposits: an
example from the Per Geijer IOA deposit, northern
Sweden. SEG 2023, London, UK.
Niiranen, K. 2015. Characterization of the Kiirunavaara
iron ore deposit for mineral processing with the focus
on the high silica ore type B2. Doctoral Dissertation,
Montanuniversität Leoben, Austria. 195 p. Parak, T.
1975. Kiruna iron ores are not” intrusive-magmatic
ores of the Kiruna type.” Economic Geology 70 (7):
1242–1258.
Schulz, C. 2022. Geochemical comparison of magnetite
with emphasis on magnetite from South African iron
rich ultramafic pegmatites and the Kiruna District,
northern Sweden. M.Sc. Thesis TU Bergakademie
Freiberg. Germany, 234 p.
Skiöld, T., Öhlander, B., Markkula, H., Widenfalk, L. and
Claesson, L.Å. 1993. Chronology of.
Proterozoic orogenic processes at the Archaean continen-
tal margin in northern Sweden. Precambrian Research,
64(1–4): 225–238.
Weihed, P., Bergman, J., and Bergström, U. 1992.
Metallogeny and tectonic evolution of the Early
Proterozoic Skellefte district, northern Sweden.
Precambrian Research, 58(1–4): 143–167.