| Binh Do Viêt Nam | −76.3 ± 4.1 ‰ | −82.4 / −70.5 ‰ | 6 | quartz fluid inclusion water | Huang et al. (2019), Genesis of the Binh Do Pb-Zn deposit in northern Vietnam: evidence f… |
| Chicote Bolivia | −67.3 ± 5.4 ‰ | −71.8 / −56.1 ‰ | 7 | fluid inclusion water in main-stage (a) quartz | Thorn (1988), Fluid inclusion and stable isotope studies at the Chicote tungsten deposit,… |
| Chicote Bolivia | −69.7 ± 4.1 ‰ | −73.3 / −65.3 ‰ | 3 | fluid inclusion water in late quartz and siderite | Thorn (1988), Fluid inclusion and stable isotope studies at the Chicote tungsten deposit,… |
| Dae Hwa Corée du Sud | −72 ± 7 ‰ | −78 / −65 ‰ | 3 | fluid inclusion water in quartz and wolframite | Shelton et al. (1987), Stable isotope studies of the Dae Hwa tungsten-molybdenum mine, Re… |
| Dae Hwa Corée du Sud | −65 ± 5 ‰ | −74 / −60 ‰ | 6 | fluid inclusion water in scheelite | Shelton et al. (1987), Stable isotope studies of the Dae Hwa tungsten-molybdenum mine, Re… |
| Dae Hwa Corée du Sud | −82 ± 16 ‰ | −101 / −71 ‰ | 3 | fluid inclusion water in late carbonates | Shelton et al. (1987), Stable isotope studies of the Dae Hwa tungsten-molybdenum mine, Re… |
| Dae Hwa Corée du Sud | −78 ‰ | | 1 | vein muscovite | Shelton et al. (1987), Stable isotope studies of the Dae Hwa tungsten-molybdenum mine, Re… |
| Dahutang (Shimensi ore block) China | −71 ± 4 ‰ | −76 / −64 ‰ | 12 | fluid inclusion water in vein quartz | Wang et al. (2015), Sources of granitoids and ore-forming materials of Dahutang tungsten … |
| Lawn Hill discordant Zn-Pb-Ag lodes Australia | −65 ‰ | | 1 | fluid inclusion water in Lilydale galena (LG2) | Polito et al. (2006), Zinc deposits and related mineralization of the Burketown mineral f… |
| Flat Tyre Australia | −68 ± 2 ‰ | −71 / −66 ‰ | 4 | fluid inclusion water in quartz (FQ1) | Polito et al. (2006), Zinc deposits and related mineralization of the Burketown mineral f… |
| Flat Tyre Australia | −66 ± 2 ‰ | −68 / −65 ‰ | 2 | fracture illite (FI1) | Polito et al. (2006), Zinc deposits and related mineralization of the Burketown mineral f… |
| Mole Granite (Torrington district) Australia | −130 ± 24 ‰ | −147 / −113 ‰ | 2 | granite biotite | Sun and Eadington (1987), Oxygen isotope evidence for the mixing of magmatic and meteoric… |
| Mole Granite (Torrington district) Australia | −134 ± 14 ‰ | −144 / −124 ‰ | 2 | hydrothermal pegmatite biotite | Sun and Eadington (1987), Oxygen isotope evidence for the mixing of magmatic and meteoric… |
| Hukeng China | −52 ± 3 ‰ | −58 / −49 ‰ | 8 | fluid inclusion water in vein quartz | Liu et al. (2011), Geology, geochemistry and age of the Hukeng tungsten deposit, Southern… |
| Jiaoxi China | −78.6 ± 8.9 ‰ | −88.2 / −60.7 ‰ | 17 | fluid inclusion water in oxide-stage quartz | Wang et al. (2021), Constraining the genesis of tungsten mineralization in the Jiaoxi dep… |
| Jiaoxi China | −80.3 ± 4.9 ‰ | −85.9 / −77.1 ‰ | 3 | fluid inclusion water in sulfide-stage quartz | Wang et al. (2021), Constraining the genesis of tungsten mineralization in the Jiaoxi dep… |
| Jiaoxi China | −66.7 ± 8 ‰ | −75.2 / −59.3 ‰ | 3 | fluid inclusion water in fluorite (late stage) | Wang et al. (2021), Constraining the genesis of tungsten mineralization in the Jiaoxi dep… |
| Maoping (tungsten, Jiangxi) China | −68 ± 12 ‰ | −83 / −43 ‰ | 8 | fluid inclusion water in quartz (zones I, III, IV and V) | Chen et al. (2018), The link between fluid evolution and vertical zonation at the Maoping… |
| Maoping (tungsten, Jiangxi) China | −57 ± 7 ‰ | −64 / −45 ‰ | 8 | fluid inclusion water in wolframite (zones III to V) | Chen et al. (2018), The link between fluid evolution and vertical zonation at the Maoping… |
| San Rafael Peru | −74 ± 1 ‰ | −75 / −73 ‰ | 4 | tourmaline (early and main stages) | Wagner et al. (2009), Stable isotope constraints on ore formation at the San Rafael tin-c… |
| San Rafael Peru | −84 ± 5 ‰ | −88 / −81 ‰ | 2 | main-stage chlorite | Wagner et al. (2009), Stable isotope constraints on ore formation at the San Rafael tin-c… |
| Shangfang China | −64.8 ± 6.5 ‰ | −76.3 / −57.1 ‰ | 6 | fluid inclusion water in ore-bearing quartz | Zhu et al. (2019), Origin of the Shangfang tungsten deposit in the Fujian Province of Sou… |
| Tungsten Queen United States | −52 ± 21 ‰ | −77 / −29 ‰ | 6 | vein sericite | Casadevall and Rye (1980), The Tungsten Queen deposit, Hamme district, Vance County, Nort… |
| Tungsten Queen United States | −49 ± 5 ‰ | −55 / −44 ‰ | 7 | fluid inclusion water in vein fluorite and quartz | Casadevall and Rye (1980), The Tungsten Queen deposit, Hamme district, Vance County, Nort… |
| Watson's Lode Australia | −73 ± 12 ‰ | −89 / −58 ‰ | 5 | fluid inclusion water in sphalerite (WS1 and WS2) | Polito et al. (2006), Zinc deposits and related mineralization of the Burketown mineral f… |
| Watson's Lode Australia | −54 ± 10 ‰ | −61 / −47 ‰ | 2 | fluid inclusion water in quartz (WQ2 and WQ6) | Polito et al. (2006), Zinc deposits and related mineralization of the Burketown mineral f… |
| Xihuashan China | −68 ± 6 ‰ | −74 / −58 ‰ | 6 | fluid inclusion water in quartz (main stage) | Yang et al. (2019), Metal source and wolframite precipitation process at the Xihuashan tu… |
| Xihuashan China | −76 ± 7 ‰ | −82 / −64 ‰ | 5 | fluid inclusion water in wolframite (main stage) | Yang et al. (2019), Metal source and wolframite precipitation process at the Xihuashan tu… |
| Yangjiashan China | −87 ‰ | | 1 | fluid inclusion water in stage I quartz | Xie et al. (2019), Granite-related Yangjiashan tungsten deposit, southern China, Minerali… |
| Yangjiashan China | −73 ± 5 ‰ | −85 / −68 ‰ | 7 | fluid inclusion water in stage II quartz | Xie et al. (2019), Granite-related Yangjiashan tungsten deposit, southern China, Minerali… |
