| Jiajika, filon n° X03 Chine | −0,72 ± 0,66 ‰ | −1,8 / 0,4 ‰ | 15 | roche totale, pegmatite à albite et spodumène (forages ZK701 et ZK702) | Liu et al. (2019), New Data on Lithium Isotopic Geochemistry of the No. X03 Lithium Vein … |
| Keliber (Ostrobotnie centrale) Finlande | 1,1 ± 0,4 ‰ | | | concentré de spodumène | Desaulty et al. (2022), Tracing the origin of lithium in Li-ion batteries using lithium i… |
| Renli-Chuanziyuan (batholite de Mufushan) Chine | 4,66 ± 2,63 ‰ | 2,1 / 9 ‰ | 5 | roche totale, pegmatite pauvre en lithium, sans spodumène (Renli) | Ye et al. (2023), Lithium isotopic systematics and numerical simulation for highly-fracti… |
| Renli-Chuanziyuan (batholite de Mufushan) Chine | −3,43 ± 1,93 ‰ | −6,4 / −0,7 ‰ | 8 | roche totale, pegmatite riche en lithium, à spodumène (Chuanziyuan) | Ye et al. (2023), Lithium isotopic systematics and numerical simulation for highly-fracti… |
| Renli-Chuanziyuan (batholite de Mufushan) Chine | −3,99 ± 2,42 ‰ | −6,78 / −2,54 ‰ | 3 | spodumène des pegmatites de Chuanziyuan | Ye et al. (2023), Lithium isotopic systematics and numerical simulation for highly-fracti… |
| Renli-Chuanziyuan (batholite de Mufushan) Chine | −2,48 ± 0,4 ‰ | −2,81 / −1,83 ‰ | 5 | muscovite des pegmatites (Renli et Chuanziyuan) | Ye et al. (2023), Lithium isotopic systematics and numerical simulation for highly-fracti… |
| Renli-Chuanziyuan (batholite de Mufushan) Chine | 5,54 ± 6,83 ‰ | −1,83 / 14,08 ‰ | 5 | quartz des pegmatites (Renli et Chuanziyuan) | Ye et al. (2023), Lithium isotopic systematics and numerical simulation for highly-fracti… |
| Renli-Chuanziyuan (batholite de Mufushan) Chine | 1,01 ± 6,34 ‰ | −5,88 / 10,64 ‰ | 5 | feldspath des pegmatites (Renli et Chuanziyuan) | Ye et al. (2023), Lithium isotopic systematics and numerical simulation for highly-fracti… |
| Renli-Chuanziyuan (batholite de Mufushan) Chine | −0,39 ± 0,74 ‰ | −1,4 / 0,7 ‰ | 10 | roche totale, granite à muscovite de Mufushan (Crétacé inférieur) | Ye et al. (2023), Lithium isotopic systematics and numerical simulation for highly-fracti… |
| Renli-Chuanziyuan (batholite de Mufushan) Chine | −1,83 ± 0,79 ‰ | −2,8 / −0,9 ‰ | 4 | roche totale, granite à biotite de Mufushan (Jurassique supérieur) | Ye et al. (2023), Lithium isotopic systematics and numerical simulation for highly-fracti… |
| Renli-Chuanziyuan (batholite de Mufushan) Chine | −1,55 ± 1,2 ‰ | −2,4 / −0,7 ‰ | 2 | roche totale, micaschiste encaissant du Groupe de Lengjiaxi | Ye et al. (2023), Lithium isotopic systematics and numerical simulation for highly-fracti… |
| Yashan (gisement de Ta-Nb-Li de Yichun) Chine | −1,3 ‰ | −1,3 / −1,3 ‰ | 2 | roche totale, granite à protolithionite | Li et al. (2018), Lithium isotope fractionation during magmatic differentiation and hydro… |
| Yashan (gisement de Ta-Nb-Li de Yichun) Chine | −1 ± 0,71 ‰ | −1,5 / −0,5 ‰ | 2 | roche totale, granite à mica lithinifère | Li et al. (2018), Lithium isotope fractionation during magmatic differentiation and hydro… |
| Yashan (gisement de Ta-Nb-Li de Yichun) Chine | 1,3 ± 0,28 ‰ | 1,1 / 1,5 ‰ | 2 | roche totale, granite à topaze et lépidolite (minerai à Ta-Nb-Li) | Li et al. (2018), Lithium isotope fractionation during magmatic differentiation and hydro… |
| Yashan (gisement de Ta-Nb-Li de Yichun) Chine | 13,96 ± 5,07 ‰ | 9,7 / 19,8 ‰ | 5 | quartz des granites | Li et al. (2018), Lithium isotope fractionation during magmatic differentiation and hydro… |
| Yashan (gisement de Ta-Nb-Li de Yichun) Chine | −0,28 ± 1,63 ‰ | −2 / 2 ‰ | 5 | micas des granites (protolithionite, mica lithinifère, lépidolite) | Li et al. (2018), Lithium isotope fractionation during magmatic differentiation and hydro… |
| Yashan (gisement de Ta-Nb-Li de Yichun) Chine | 2,08 ± 1,54 ‰ | −0,4 / 3,6 ‰ | 5 | feldspaths des granites | Li et al. (2018), Lithium isotope fractionation during magmatic differentiation and hydro… |
