The global demand for mineral resources is increasing every year, with now even a strong push for green and high-tech technologies. Considering the ever-increasing hope of exploring these resources at depth, particularly at near mines or near existing infrastructures, new and improved approaches for integrating available data and use them to optimize exploration and mining are required. In this work, we have revisited an existing legacy active-source 2D seismic data acquired over Garpenberg volcanic-hosted massive sulphide (VMS) deposit. Given the strong noise contamination observed in the active-source data, we argue an approach involving the use of active-and passive-seismic data recording would be optimal for deep exploration and characterization of the top of the orebody illustrating its potential for targeting even steep geometry mineralized zones. The reprocessing reveals a strong reflection that may be associated with a VMS mineralization or contact that hosts the mineralization.


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  1. Ahmadi, O., Juhlin, C., Malehmir, A., and Munck, M.
    [2013] High-resolution 2D seismic imaging and forward modeling of polymetallic sulfide deposit at Garpenberg, central Sweden. Geophysics, 78(6), B339–B350.
    [Google Scholar]
  2. Allen, R, Bull, S., Ripa, M., and Jonsson, R.
    [2003] Regional stratigraphy, basin evolution, and the setting of stratigraphy Zn-Pb-Cu-Ag-Au deposits in Bergslagen, Sweden. Sveriges geologiska undersökning unpublished report 03-1203/99, 78 pp.
    [Google Scholar]
  3. Allen, R., Jansson, N., and Ripa, M.
    [2013] Excursion Guidebook SWE4 - Bergslagen: geology of the volcanic- and limestone-hosted base metal and iron oxide deposits. Geological Survey of Sweden, Uppsala, 1–102.
    [Google Scholar]
  4. Bellefleur, G., Schetselaar, E., White, D., Miah, K., and Dueck, P.
    [2015] 3D seismic imaging of the Lalor volcanogenic massive sulphide deposit, Manitoba, Canada. Geophysical Prospecting, 63, 813–832.
    [Google Scholar]
  5. Cheraghi, S., Craven, J.A., and Bellefleur, G.
    [2015] Feasibility of virtual source reflection seismology using interferometry for mineral exploration: A test study in the Lalor Lake volcanogenic massive sulphides mining area, Manitoba, Canada. Geophysical Prospecting, 63(4), 833–846.
    [Google Scholar]
  6. Halada, K., Masanori, S., and Kiyoshi, I.
    [(2008] Forecasting of the Consumption of Metals up to 2050. Materials Transactions, 49(3), 402–410.
    [Google Scholar]
  7. JanssonN., and AllenR.
    [2011] Timing of volcanism, hydrothermal alteration and ore deformation at Garpenberg, Bergslagen, Sweden. GFF, 133, 3–18.
    [Google Scholar]
  8. Malehmir, A., Durrheim, R., Bellefleur, G., Urosevic, M., Juhlin, C., White, D.J., Milkereit, B., and Campbell, G.
    [2012] Seismic methods in mineral exploration and mine planning: A general overview of past and present case histories and a look into the future. Geophysics, 77(5), WC173–WC190.
    [Google Scholar]
  9. Oliver, G., Brenguier, F., Campolli, M., Lynch, R., and Roux, P.
    [2015] Body-wave reconstruction from ambient seismic noise correlations in an underground mine, Geophysics, 80(3), KS11–KS25.
    [Google Scholar]
  10. Zepf, V., Reller, A., Rennie, C., Ashfield, M., Simmons, J. and BP
    [2014] Materials Critical to be Energy Industry - An Introduction, 2nd edition. BP, London, 1–94.
    [Google Scholar]

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