| Lagunazo ash waste collector (LZ-3) Spain | −0.08 ± 0.12 ‰ | | | | Viers et al. (2018), Are Cu isotopes a useful tool to trace metal sources and processes i… |
| Guadiana waste collector (CO-7) Spain | 0.27 ± 0.04 ‰ | | | | Viers et al. (2018), Are Cu isotopes a useful tool to trace metal sources and processes i… |
| Santa Bárbara waste collector (CO-4) Spain | −1.52 ± 0.04 ‰ | | | | Viers et al. (2018), Are Cu isotopes a useful tool to trace metal sources and processes i… |
| Waste rock seepage (Tharsis) Spain | 0.66 ‰ | | | filtered water (< 0.22 µm) | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Sabina gallery, south exit (Tharsis) Spain | −6.24 ‰ | | | filtered water (< 0.22 µm) | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Sabina gallery, south exit (Tharsis) Spain | −6.4 ‰ | | | filtered water (< 0.22 µm) | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Sabina gallery, south exit (Tharsis) Spain | −7 ‰ | | 2 | copper and aluminium sulfate precipitates | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Lagunazo black water lake (LZ-5) Spain | 0.19 ± 0.05 ‰ | | | | Viers et al. (2018), Are Cu isotopes a useful tool to trace metal sources and processes i… |
| Filón Centro pit lake (Tharsis) Spain | −3.71 ‰ | | | filtered water (< 0.22 µm) | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Filón Centro pit lake (Tharsis) Spain | −3.93 ‰ | | | filtered water (< 0.22 µm) | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Filón Centro pit lake (Tharsis) Spain | −3.73 ‰ | | | filtered water (< 0.22 µm) | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Filón Norte pit lake (Tharsis) Spain | 0.85 ‰ | | | filtered water (< 0.22 µm) | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Filón Norte pit lake (Tharsis) Spain | 0.68 ‰ | | | sulfate precipitate | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Filón Norte pit lake (Tharsis) Spain | 0.73 ‰ | | | sulfate precipitate | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Filón Sur pit lake (Tharsis) Spain | 0.88 ‰ | | | filtered water (< 0.22 µm) | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Filón Sur pit lake (Tharsis) Spain | 0.64 ‰ | | | filtered water (< 0.22 µm) | Viers et al. (2023), The use of copper isotopes for understanding metal transfer mechanis… |
| Guadiana open-pit lake (CO-2) Spain | 0.66 ± 0.02 ‰ | | | | Viers et al. (2018), Are Cu isotopes a useful tool to trace metal sources and processes i… |
| Lagunazo open-pit lake (LZ-1) Spain | 0.05 ± 0.12 ‰ | | | | Viers et al. (2018), Are Cu isotopes a useful tool to trace metal sources and processes i… |
| Santa Bárbara open-pit lake (CO-3) Spain | 0.77 ± 0.01 ‰ | | | | Viers et al. (2018), Are Cu isotopes a useful tool to trace metal sources and processes i… |
| Lagunazo pyrite-rich waste (LZ-2) Spain | −0.7 ± 0.03 ‰ | | | | Viers et al. (2018), Are Cu isotopes a useful tool to trace metal sources and processes i… |