Grguric, B.A., Roberts, M.P., Raven, M.D., Martyn, K. (2021) Luzonite and associated Cu-excess tennantite from the Levant Sn-Cu deposit, Cornwall, England: Evidence for a high sulphidation hydrothermal event. Transactions of the Institutes of Mining and Metallurgy-B. DOI: 10.1080/25726838.2021.1888614

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Reference Type	- plain text -
Year	2021
Original Entry	Grguric, B.A., Roberts, M.P., Raven, M.D., Martyn, K. (2021) Luzonite and associated Cu-excess tennantite from the Levant Sn-Cu deposit, Cornwall, England: Evidence for a high sulphidation hydrothermal event. Transactions of the Institutes of Mining and Metallurgy-B. DOI: 10.1080/25726838.2021.1888614
Mindat Ref. ID	16091523	Long-form Identifier	mindat:1:5:16091523:1
GUID	0
Full Reference	Grguric, B.A., Roberts, M.P., Raven, M.D., Martyn, K. (2021) Luzonite and associated Cu-excess tennantite from the Levant Sn-Cu deposit, Cornwall, England: Evidence for a high sulphidation hydrothermal event. Transactions of the Institutes of Mining and Metallurgy-B. DOI: 10.1080/25726838.2021.1888614
Plain Text	Grguric, B.A., Roberts, M.P., Raven, M.D., Martyn, K. (2021) Luzonite and associated Cu-excess tennantite from the Levant Sn-Cu deposit, Cornwall, England: Evidence for a high sulphidation hydrothermal event. Transactions of the Institutes of Mining and Metallurgy-B. DOI: 10.1080/25726838.2021.1888614

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Locality	Citation Details
Levant Mine, Trewellard, St Just, Cornwall, England, UK

Mineral Occurrences

Locality	Mineral(s)
Levant Mine, Trewellard, St Just, Cornwall, England, UK	ⓘ Covellite, ⓘ Luzonite

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	Allibone, A. (1998) Synchronous deformation and hydrothermal activity in the shear zone hosted high-sulphidation Au-Cu deposit at Peak Hill, NSW, Australia. Mineralium Deposita, 33 (5) 495-512 doi:10.1007/s001260050165
	Loladze, N.T., Tserodze, M.P., Avalishvili, Z.A., Dzidzishvili, Iu.G. (2021) Features of the Sintering of Fe–Cu–Sn–Ni and Cu–Ti–Sn–Ni Powders during Hot Pressing. Powder Metallurgy and Metal Ceramics, 60 (5) 377-384 doi:10.1007/s11106-021-00250-0
	Miettinen, J., Vassilev, G. (2012) Thermodynamic re-optimization of the Cu-Mg-Sn system at the Cu-Mg side. Journal of Mining and Metallurgy, Section B: Metallurgy, 48 (1). 53-62 doi:10.2298/jmmb110731008m
	Oleinik, K. I., Bykov, A. S. (2019) Calorimetric Study of the Formation of Liquid Ag–Cu–Sn Alloys. Enthalpy of Mixing for the Boundary Binary Cu–Ag, Cu–Sn, and Ag–Sn Systems at 1150°C. Russian Metallurgy (Metally), 2019. 131-134 doi:10.1134/s0036029519020186
	Zhu, Jiang, Peng, Sanguo, Peng, Lianhong (2016) U-Pb Dating of Hydrothermal Zircons from the Neoproterozoic Liushanyan VMS Cu-Zn Deposit, Central China: Evidence for a Triassic Deformation Event. Resource Geology, 66 (3) 227-239 doi:10.1111/rge.12103
	Grguric, B.A. (1992) The petrology, geochemistry and fluid history of calc-silicate rocks and associated primary Cu-Co mineralisation in the Ethiudna Mines area, Olary Province, South Australia. Unpublished Honours thesis, University of Adelaide.
	Holjevac-Grguric, T., Manasijevic, D., Kozuh, S., Ivanic, I., Balanovic, Lj., Anzel, I., Kosec, B., Bizjak, M., Knezevic, M., Gojic, M. (2017) Phase transformation and microstructure study of the as-cast Cu-rich Cu-Al-Mn ternary alloys. Journal of Mining and Metallurgy, Section B: Metallurgy, 53 (3). 413-422 doi:10.2298/jmmb170809039h
	Fu, Bin, Mernagh, Terrence P., Kita, Noriko T., Kemp, Anthony I.S., Valley, John W. (2009) Distinguishing magmatic zircon from hydrothermal zircon: A case study from the Gidginbung high-sulphidation Au–Ag–(Cu) deposit, SE Australia. Chemical Geology, 259 (3) 131-142 doi:10.1016/j.chemgeo.2008.10.035
	Georgieva, S. & Velinova, N. (2012): Alunite from the advanced argillic alterations in the Chelopech high-sulphidation epithermal Cu-Au deposit, Bulgaria: Chemistry, morphology and genetic significance. Geochemistry, Mineralogy and Petrology 49, 17-31.
	Kouzmanov, K., Ramboz, C., Bailly, L., Bogdanov, K. (2004) Genesis of high sulfidation vinciennite-bearing Cu-As-Sn (±Au) assemblage from the Radka epithermal copper deposit, Bulgaria: Evidence from mineralogy and infrared microthermometry of enargite. The Canadian Mineralogist, 42 (5) 1501-1521 doi:10.2113/gscanmin.42.5.1501

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