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Cannington Mine, McKinlay, McKinlay Shire, Queensland, Australiai
| Regional Level Types | |
|---|---|
| Cannington Mine | Mine |
| McKinlay | - not defined - |
| McKinlay Shire | Shire |
| Queensland | State |
| Australia | Country |
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Latitude & Longitude (WGS84):
21° 51' 45'' South , 140° 54' 58'' East
Latitude & Longitude (decimal):
Type:
Köppen climate type:
Other/historical names associated with this locality:
Cannington deposit; South32 Cannington
The Cannington silver-rich lead-zinc mine is an underground mine located in north-west Queensland, in the Shire of McKinlay, about 200 kilometres (124 miles) southeast of Mount Isa, near the township of McKinlay.
The Broken Hill-type deposit (Walters & Bailey, 1998) was discovered by BHP Minerals in 1990 and the mine was commissioned in 1997 at a cost of some AUS $ 450m. Full production was achieved in early 1999, since then capacity has been expanded from 1.5 Mt/y of ore to over 3 Mt/y.
The deposit was discovered by Broken Hill Proprietary Company (BHP) in 1990. Although sitework and underground mining began in 1997, full production was not achieved until early 1999, with 1.5 million tons of ore processed in 1999. Production since has reached 3 million tons of ore per year. As of 2010 it was the largest and lowest cost silver and lead mine in the world. The expected life of the Cannington mine is 25 years.
On August 19, 2014, the mine's owner BHP Billiton announced it was splitting the company in two. A newly formed entity called South32 now houses BHP Billiton's non-core businesses including the Cannington Mine.
Cannington is the world's largest single silver producer, representing about 6% of the world's primary silver production, while its lead production represents about 7% of the world's primary lead output. The lead concentrate contains 70% lead and over 3,000g/t silver with low levels of impurities. Cannington is an underground mine accessed via a 5,250m-long, 5.2m-high by 5.5m-wide decline. The main, thicker hanging-wall orebodies of the deposit are mined by transverse, longhole open sloping.
Cannington lies in the south-east corner of the Proterozoic Mount Isa Block, within the metamorphics of the lower middle Proterozoic eastern succession and overlain by 60 m of younger sediments. It is divided by faulting into a shallow, low-grade Northern Zone and a deeper, higher grade Southern Zone. Cannington’s major economic sulphides are galena and sphalerite. The silver occurs mainly as freibergite (as inclusions in galena), but is also present in solid solution within galena.
At the end of 2005, the orebody contained proved sulphide ore reserves of 18.0 Mt grading 477 g/t silver, 10.7% lead and 3.9% zinc. Measured resources totalled 2.3 Mt at 536 g/t Ag, 11.94% Pb and 4.49% Zn. The metallurgical recovery rates for zinc, lead and silver were 66%, 88% and 84% respectively.
Synchronous deformation and metamorphism at the Cannington Ag–Pb–Zn deposit involved a phase of Ca and Mn mobilization that accounts for the distribution of pyroxene-bearing and garnet-bearing rocks, which were selectively overprinted by sulfide mineralization. Garnet composition and its textural association in relation to three generations of planar fabric (S1 to S3) show that skarn-related grossular-rich garnet formed in the last garnet-stable event, D3. The D3 Cl-rich biotite in the gneiss is intergrown with garnet in veins, and within skarn rocks is continuous along strike with veins of garnet ± pyroxmangite, hedenbergite or amphibole, which indicates a period of anhydrous through to hydrous metasomatism. Compositional maps show that infiltration extended from alteration fronts through fractures, which indicates the high permeability of S3; these maps and XGrt profiles across skarn–gneiss contacts show that there was large-scale transport of mass by infiltration and varying degrees of hydrodynamic dispersion. Precipitation of oscillatory Ca- and Mn-zoned grossular-rich garnet in veins parallel to veins filled with Cl-rich biotite, in conjunction with the distribution of biotite-filled veins across the deposit, suggest that the mass transfer during D3 may be responsible for deposit-scale Ca–Mn skarn-like zoning.
The deposit is in Paleoproterozoic to Mesoproterozoic (2500–1000 Mya) metamorphosed sedimentary rocks, known as the "Soldier's Cap Group", and is overlain by approximately 60 metres (197 ft) of Cretaceous and more recent overburden. The deposit was discovered as result of an aeromagnetic survey of the Soldiers Cap Group in the eastern Mount Isa inlier. The area was selected for survey based upon extrapolations from known prospects and associated lithostratigraphy. In other words, the rocks were the same as other known prospects, only slightly more deeply buried. The aeromagnetic survey pinpointed Cannington as a potential site and subsequent drilling proved it out.
The theory of formation of the Cannington deposit, and the related deposits at McArthur River, Century, Mt Isa, Hilton, and George Fisher, is explored in a 2005 paper by Large et al. (2005). They are considered to be sedimentary exhalative deposits, with Cannington later undergoing high grade metamorphism.
The Broken Hill-type deposit (Walters & Bailey, 1998) was discovered by BHP Minerals in 1990 and the mine was commissioned in 1997 at a cost of some AUS $ 450m. Full production was achieved in early 1999, since then capacity has been expanded from 1.5 Mt/y of ore to over 3 Mt/y.
The deposit was discovered by Broken Hill Proprietary Company (BHP) in 1990. Although sitework and underground mining began in 1997, full production was not achieved until early 1999, with 1.5 million tons of ore processed in 1999. Production since has reached 3 million tons of ore per year. As of 2010 it was the largest and lowest cost silver and lead mine in the world. The expected life of the Cannington mine is 25 years.
On August 19, 2014, the mine's owner BHP Billiton announced it was splitting the company in two. A newly formed entity called South32 now houses BHP Billiton's non-core businesses including the Cannington Mine.
Cannington is the world's largest single silver producer, representing about 6% of the world's primary silver production, while its lead production represents about 7% of the world's primary lead output. The lead concentrate contains 70% lead and over 3,000g/t silver with low levels of impurities. Cannington is an underground mine accessed via a 5,250m-long, 5.2m-high by 5.5m-wide decline. The main, thicker hanging-wall orebodies of the deposit are mined by transverse, longhole open sloping.
Cannington lies in the south-east corner of the Proterozoic Mount Isa Block, within the metamorphics of the lower middle Proterozoic eastern succession and overlain by 60 m of younger sediments. It is divided by faulting into a shallow, low-grade Northern Zone and a deeper, higher grade Southern Zone. Cannington’s major economic sulphides are galena and sphalerite. The silver occurs mainly as freibergite (as inclusions in galena), but is also present in solid solution within galena.
At the end of 2005, the orebody contained proved sulphide ore reserves of 18.0 Mt grading 477 g/t silver, 10.7% lead and 3.9% zinc. Measured resources totalled 2.3 Mt at 536 g/t Ag, 11.94% Pb and 4.49% Zn. The metallurgical recovery rates for zinc, lead and silver were 66%, 88% and 84% respectively.
Synchronous deformation and metamorphism at the Cannington Ag–Pb–Zn deposit involved a phase of Ca and Mn mobilization that accounts for the distribution of pyroxene-bearing and garnet-bearing rocks, which were selectively overprinted by sulfide mineralization. Garnet composition and its textural association in relation to three generations of planar fabric (S1 to S3) show that skarn-related grossular-rich garnet formed in the last garnet-stable event, D3. The D3 Cl-rich biotite in the gneiss is intergrown with garnet in veins, and within skarn rocks is continuous along strike with veins of garnet ± pyroxmangite, hedenbergite or amphibole, which indicates a period of anhydrous through to hydrous metasomatism. Compositional maps show that infiltration extended from alteration fronts through fractures, which indicates the high permeability of S3; these maps and XGrt profiles across skarn–gneiss contacts show that there was large-scale transport of mass by infiltration and varying degrees of hydrodynamic dispersion. Precipitation of oscillatory Ca- and Mn-zoned grossular-rich garnet in veins parallel to veins filled with Cl-rich biotite, in conjunction with the distribution of biotite-filled veins across the deposit, suggest that the mass transfer during D3 may be responsible for deposit-scale Ca–Mn skarn-like zoning.
The deposit is in Paleoproterozoic to Mesoproterozoic (2500–1000 Mya) metamorphosed sedimentary rocks, known as the "Soldier's Cap Group", and is overlain by approximately 60 metres (197 ft) of Cretaceous and more recent overburden. The deposit was discovered as result of an aeromagnetic survey of the Soldiers Cap Group in the eastern Mount Isa inlier. The area was selected for survey based upon extrapolations from known prospects and associated lithostratigraphy. In other words, the rocks were the same as other known prospects, only slightly more deeply buried. The aeromagnetic survey pinpointed Cannington as a potential site and subsequent drilling proved it out.
The theory of formation of the Cannington deposit, and the related deposits at McArthur River, Century, Mt Isa, Hilton, and George Fisher, is explored in a 2005 paper by Large et al. (2005). They are considered to be sedimentary exhalative deposits, with Cannington later undergoing high grade metamorphism.
Select Mineral List Type
Standard Detailed Gallery Strunz Chemical ElementsCommodity List
This is a list of exploitable or exploited mineral commodities recorded at this locality.Mineral List
44 valid minerals.
Rock Types Recorded
Select Rock List Type
Alphabetical List Tree DiagramDetailed Mineral List:
| ⓘ Acanthite Formula: Ag2S |
| ⓘ Allargentum Formula: (Ag1-xSbx) |
| ⓘ Almandine Formula: Fe2+3Al2(SiO4)3 |
| ⓘ 'Amphibole Supergroup' Formula: AB2C5(T8O22)W2 |
| ⓘ 'Apatite' Formula: Ca5(PO4)3A |
| ⓘ Arsenopyrite Formula: FeAsS |
| ⓘ 'Biotite' Formula: K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| ⓘ Bismuthinite Formula: Bi2S3 |
| ⓘ Calcite Formula: CaCO3 References: Greg Dainty collection.Identification: XRD |
| ⓘ Chalcopyrite Formula: CuFeS2 |
| ⓘ 'Chlorite Group' |
| ⓘ Chrysocolla Formula: Cu2-xAlx(H2-xSi2O5)(OH)4 · nH2O, x < 1 |
| ⓘ Dyscrasite Formula: Ag3Sb |
| ⓘ Fayalite Formula: Fe2+2(SiO4) |
| ⓘ 'Fayalite-Forsterite Series' References: |
| ⓘ Fluorite Formula: CaF2 |
| ⓘ 'Freibergite Subgroup' Formula: (Ag6,[Ag6]4+)(Cu4 C2+2)Sb4S12S0-1 |
| ⓘ Gahnite Formula: ZnAl2O4 |
| ⓘ Galena Formula: PbS |
| ⓘ Galena var. Silver-bearing Galena Formula: PbS with Ag |
| ⓘ 'Garnet Group' Formula: X3Z2(SiO4)3 Description: Grossular-rich. |
| ⓘ Graphite Formula: C |
| ⓘ Grunerite Formula: ◻Fe2+2Fe2+5(Si8O22)(OH)2 |
| ⓘ Gudmundite Formula: FeSbS |
| ⓘ Hedenbergite Formula: CaFe2+Si2O6 |
| ⓘ 'Hornblende Root Name Group' Formula: ◻Ca2(C2+4C3+)(AlSi7O22)W2 |
| ⓘ Ilmenite Formula: Fe2+TiO3 |
| ⓘ Ilvaite Formula: CaFe3+Fe2+2(Si2O7)O(OH) |
| ⓘ Jamesonite Formula: Pb4FeSb6S14 |
| ⓘ 'K Feldspar' |
| ⓘ Launayite ? Formula: Cu2Pb20(Sb,As)26S60 Description: A review of this mineral by Topa et al. (2025) noted that launayite from the Cannington Mine appears in a reference included in a symposium presentation (Bodon, 2018). However, no further details on this work were available to the authors of the present study. Overall, none of the reported localities provide clear evidence for the presence of launayite and are questionable at best. References: Walters, Stephen, Bailey, Andrew (1998) Geology and mineralization of the Cannington Ag-Pb-Zn deposit; an example of Broken Hill-type mineralization in the eastern succession, Mount Isa Inlier, Australia. Economic Geology, 93 (8) 1307-1329 doi:10.2113/gsecongeo.93.8.1307 Topa, D.; Stoeger, B.; Keutsch, F. N.; Ilinca, G. (2025) The crystal structure of launayite from Taylor Pit, Madoc, Ontario, Canada: crystal chemistry, modulated superstructures, and parent modular structure compared with rouxelite. European Journal of Mineralogy, 37 (6). 971-994 doi:10.5194/ejm-37-971-2025 |
| ⓘ Löllingite Formula: FeAs2 |
| ⓘ Magnetite Formula: Fe2+Fe3+2O4 |
| ⓘ Marcasite Formula: FeS2 |
| ⓘ Microcline Formula: K(AlSi3O8) |
| ⓘ Microcline var. Amazonite Formula: K(AlSi3O8) |
| ⓘ Muscovite Formula: KAl2(AlSi3O10)(OH)2 |
| ⓘ Muscovite var. Sericite Formula: KAl2(AlSi3O10)(OH)2 |
| ⓘ Native Silver Formula: Ag |
| ⓘ Native Silver var. Antimonial Silver Formula: (Ag,Sb) |
| ⓘ Opal Formula: SiO2 · nH2O |
| ⓘ Proustite Formula: Ag3AsS3 |
| ⓘ Pyrargyrite Formula: Ag3SbS3 |
| ⓘ Pyrite Formula: FeS2 |
| ⓘ Pyrosmalite-(Fe) Formula: Fe2+8Si6O15(OH,Cl)10 References: |
| ⓘ 'Pyrosmalite-(Fe)-Pyrosmalite-(Mn) Series' |
| ⓘ Pyroxferroite Formula: (Fe,Mn,Ca)SiO3 |
| ⓘ Pyroxmangite Formula: Mn2+SiO3 |
| ⓘ Pyrrhotite Formula: Fe1-xS |
| ⓘ Quartz Formula: SiO2 |
| ⓘ Siderite Formula: FeCO3 |
| ⓘ Sillimanite Formula: Al2(SiO4)O References: |
| ⓘ Sphalerite Formula: ZnS |
| ⓘ Stephanite Formula: Ag5SbS4 |
| ⓘ Sternbergite Formula: AgFe2S3 |
| ⓘ Talc Formula: Mg3Si4O10(OH)2 |
| ⓘ 'Tetrahedrite Subgroup' Formula: Cu6(Cu4C2+2)Sb4S12S |
| ⓘ Titanite Formula: CaTiO(SiO4) |
| ⓘ Veenite Formula: Pb16Sb9-xAs7+xS40, x ~ 0-0.5 |
Gallery:
List of minerals arranged by Strunz 10th Edition classification
| Group 1 - Elements | |||
|---|---|---|---|
| ⓘ | Native Silver var. Antimonial Silver | 1.AA.05 | (Ag,Sb) |
| ⓘ | 1.AA.05 | Ag | |
| ⓘ | Graphite | 1.CB.05a | C |
| Group 2 - Sulphides and Sulfosalts | |||
| ⓘ | Allargentum | 2.AA.30 | (Ag1-xSbx) |
| ⓘ | Dyscrasite | 2.AA.35 | Ag3Sb |
| ⓘ | Acanthite | 2.BA.35 | Ag2S |
| ⓘ | Sphalerite | 2.CB.05a | ZnS |
| ⓘ | Chalcopyrite | 2.CB.10a | CuFeS2 |
| ⓘ | Sternbergite | 2.CB.65 | AgFe2S3 |
| ⓘ | Pyrrhotite | 2.CC.10 | Fe1-xS |
| ⓘ | Galena | 2.CD.10 | PbS |
| ⓘ | var. Silver-bearing Galena | 2.CD.10 | PbS with Ag |
| ⓘ | Bismuthinite | 2.DB.05 | Bi2S3 |
| ⓘ | Pyrite | 2.EB.05a | FeS2 |
| ⓘ | Marcasite | 2.EB.10a | FeS2 |
| ⓘ | Löllingite | 2.EB.15a | FeAs2 |
| ⓘ | Arsenopyrite | 2.EB.20 | FeAsS |
| ⓘ | Gudmundite | 2.EB.20 | FeSbS |
| ⓘ | Proustite | 2.GA.05 | Ag3AsS3 |
| ⓘ | Pyrargyrite | 2.GA.05 | Ag3SbS3 |
| ⓘ | 'Freibergite Subgroup' | 2.GB.05 | (Ag6,[Ag6]4+)(Cu4 C2+2)Sb4S12S0-1 |
| ⓘ | 'Tetrahedrite Subgroup' | 2.GB.05 | Cu6(Cu4C2+2)Sb4S12S |
| ⓘ | Stephanite | 2.GB.10 | Ag5SbS4 |
| ⓘ | Jamesonite | 2.HB.15 | Pb4FeSb6S14 |
| ⓘ | Veenite | 2.HC.05d | Pb16Sb9-xAs7+xS40, x ~ 0-0.5 |
| ⓘ | Launayite ? | 2.LB.30 | Cu2Pb20(Sb,As)26S60 |
| Group 3 - Halides | |||
| ⓘ | Fluorite | 3.AB.25 | CaF2 |
| Group 4 - Oxides and Hydroxides | |||
| ⓘ | Gahnite | 4.BB.05 | ZnAl2O4 |
| ⓘ | Magnetite | 4.BB.05 | Fe2+Fe3+2O4 |
| ⓘ | Ilmenite | 4.CB.05 | Fe2+TiO3 |
| ⓘ | Quartz | 4.DA.05 | SiO2 |
| ⓘ | Opal | 4.DA.10 | SiO2 · nH2O |
| Group 5 - Nitrates and Carbonates | |||
| ⓘ | Calcite | 5.AB.05 | CaCO3 |
| ⓘ | Siderite | 5.AB.05 | FeCO3 |
| Group 9 - Silicates | |||
| ⓘ | Fayalite | 9.AC.05 | Fe2+2(SiO4) |
| ⓘ | Almandine | 9.AD.25 | Fe2+3Al2(SiO4)3 |
| ⓘ | Sillimanite | 9.AF.05 | Al2(SiO4)O |
| ⓘ | Titanite | 9.AG.15 | CaTiO(SiO4) |
| ⓘ | Ilvaite | 9.BE.07 | CaFe3+Fe2+2(Si2O7)O(OH) |
| ⓘ | Hedenbergite | 9.DA.15 | CaFe2+Si2O6 |
| ⓘ | Grunerite | 9.DE.05 | ◻Fe2+2Fe2+5(Si8O22)(OH)2 |
| ⓘ | Pyroxferroite | 9.DO.05 | (Fe,Mn,Ca)SiO3 |
| ⓘ | Pyroxmangite | 9.DO.05 | Mn2+SiO3 |
| ⓘ | Talc | 9.EC.05 | Mg3Si4O10(OH)2 |
| ⓘ | Muscovite | 9.EC.15 | KAl2(AlSi3O10)(OH)2 |
| ⓘ | var. Sericite | 9.EC.15 | KAl2(AlSi3O10)(OH)2 |
| ⓘ | Chrysocolla | 9.ED.20 | Cu2-xAlx(H2-xSi2O5)(OH)4 · nH2O, x < 1 |
| ⓘ | Pyrosmalite-(Fe) | 9.EE.10 | Fe2+8Si6O15(OH,Cl)10 |
| ⓘ | Microcline var. Amazonite | 9.FA.30 | K(AlSi3O8) |
| ⓘ | 9.FA.30 | K(AlSi3O8) | |
| Unclassified | |||
| ⓘ | 'Amphibole Supergroup' | - | AB2C5(T8O22)W2 |
| ⓘ | 'Biotite' | - | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| ⓘ | 'Chlorite Group' | - | |
| ⓘ | 'Fayalite-Forsterite Series' | - | |
| ⓘ | 'Hornblende Root Name Group' | - | ◻Ca2(C2+4C3+)(AlSi7O22)W2 |
| ⓘ | 'Pyrosmalite-(Fe)-Pyrosmalite-(Mn) Series' | - | |
| ⓘ | 'K Feldspar' | - | |
| ⓘ | 'Garnet Group' | - | X3Z2(SiO4)3 |
| ⓘ | 'Apatite' | - | Ca5(PO4)3A |
List of minerals for each chemical element
| H | Hydrogen | |
|---|---|---|
| H | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| H | ⓘ Chrysocolla | Cu2-xAlx(H2-xSi2O5)(OH)4 · nH2O, x < 1 |
| H | ⓘ Pyrosmalite-(Fe) | Fe82+Si6O15(OH,Cl)10 |
| H | ⓘ Grunerite | ◻Fe22+Fe52+(Si8O22)(OH)2 |
| H | ⓘ Ilvaite | CaFe3+Fe22+(Si2O7)O(OH) |
| H | ⓘ Muscovite | KAl2(AlSi3O10)(OH)2 |
| H | ⓘ Opal | SiO2 · nH2O |
| H | ⓘ Talc | Mg3Si4O10(OH)2 |
| H | ⓘ Pyrosmalite-(Fe)-Pyrosmalite-(Mn) Series | |
| H | ⓘ Muscovite var. Sericite | KAl2(AlSi3O10)(OH)2 |
| C | Carbon | |
| C | ⓘ Calcite | CaCO3 |
| C | ⓘ Graphite | C |
| C | ⓘ Siderite | FeCO3 |
| O | Oxygen | |
| O | ⓘ Microcline var. Amazonite | K(AlSi3O8) |
| O | ⓘ Amphibole Supergroup | AB2C5(T8O22)W2 |
| O | ⓘ Almandine | Fe32+Al2(SiO4)3 |
| O | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| O | ⓘ Calcite | CaCO3 |
| O | ⓘ Chrysocolla | Cu2-xAlx(H2-xSi2O5)(OH)4 · nH2O, x < 1 |
| O | ⓘ Fayalite | Fe22+(SiO4) |
| O | ⓘ Pyrosmalite-(Fe) | Fe82+Si6O15(OH,Cl)10 |
| O | ⓘ Gahnite | ZnAl2O4 |
| O | ⓘ Grunerite | ◻Fe22+Fe52+(Si8O22)(OH)2 |
| O | ⓘ Hedenbergite | CaFe2+Si2O6 |
| O | ⓘ Ilmenite | Fe2+TiO3 |
| O | ⓘ Ilvaite | CaFe3+Fe22+(Si2O7)O(OH) |
| O | ⓘ Magnetite | Fe2+Fe23+O4 |
| O | ⓘ Microcline | K(AlSi3O8) |
| O | ⓘ Muscovite | KAl2(AlSi3O10)(OH)2 |
| O | ⓘ Opal | SiO2 · nH2O |
| O | ⓘ Pyroxferroite | (Fe,Mn,Ca)SiO3 |
| O | ⓘ Pyroxmangite | Mn2+SiO3 |
| O | ⓘ Quartz | SiO2 |
| O | ⓘ Siderite | FeCO3 |
| O | ⓘ Sillimanite | Al2(SiO4)O |
| O | ⓘ Talc | Mg3Si4O10(OH)2 |
| O | ⓘ Titanite | CaTiO(SiO4) |
| O | ⓘ Fayalite-Forsterite Series | |
| O | ⓘ Hornblende Root Name Group | ◻Ca2(C42+C3+)(AlSi7O22)W2 |
| O | ⓘ Pyrosmalite-(Fe)-Pyrosmalite-(Mn) Series | |
| O | ⓘ Muscovite var. Sericite | KAl2(AlSi3O10)(OH)2 |
| O | ⓘ Garnet Group | X3Z2(SiO4)3 |
| O | ⓘ Apatite | Ca5(PO4)3A |
| F | Fluorine | |
| F | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| F | ⓘ Fluorite | CaF2 |
| Mg | Magnesium | |
| Mg | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| Mg | ⓘ Talc | Mg3Si4O10(OH)2 |
| Mg | ⓘ Fayalite-Forsterite Series | |
| Al | Aluminium | |
| Al | ⓘ Microcline var. Amazonite | K(AlSi3O8) |
| Al | ⓘ Almandine | Fe32+Al2(SiO4)3 |
| Al | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| Al | ⓘ Chrysocolla | Cu2-xAlx(H2-xSi2O5)(OH)4 · nH2O, x < 1 |
| Al | ⓘ Gahnite | ZnAl2O4 |
| Al | ⓘ Microcline | K(AlSi3O8) |
| Al | ⓘ Muscovite | KAl2(AlSi3O10)(OH)2 |
| Al | ⓘ Sillimanite | Al2(SiO4)O |
| Al | ⓘ Hornblende Root Name Group | ◻Ca2(C42+C3+)(AlSi7O22)W2 |
| Al | ⓘ Muscovite var. Sericite | KAl2(AlSi3O10)(OH)2 |
| Si | Silicon | |
| Si | ⓘ Microcline var. Amazonite | K(AlSi3O8) |
| Si | ⓘ Almandine | Fe32+Al2(SiO4)3 |
| Si | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| Si | ⓘ Chrysocolla | Cu2-xAlx(H2-xSi2O5)(OH)4 · nH2O, x < 1 |
| Si | ⓘ Fayalite | Fe22+(SiO4) |
| Si | ⓘ Pyrosmalite-(Fe) | Fe82+Si6O15(OH,Cl)10 |
| Si | ⓘ Grunerite | ◻Fe22+Fe52+(Si8O22)(OH)2 |
| Si | ⓘ Hedenbergite | CaFe2+Si2O6 |
| Si | ⓘ Ilvaite | CaFe3+Fe22+(Si2O7)O(OH) |
| Si | ⓘ Microcline | K(AlSi3O8) |
| Si | ⓘ Muscovite | KAl2(AlSi3O10)(OH)2 |
| Si | ⓘ Opal | SiO2 · nH2O |
| Si | ⓘ Pyroxferroite | (Fe,Mn,Ca)SiO3 |
| Si | ⓘ Pyroxmangite | Mn2+SiO3 |
| Si | ⓘ Quartz | SiO2 |
| Si | ⓘ Sillimanite | Al2(SiO4)O |
| Si | ⓘ Talc | Mg3Si4O10(OH)2 |
| Si | ⓘ Titanite | CaTiO(SiO4) |
| Si | ⓘ Fayalite-Forsterite Series | |
| Si | ⓘ Hornblende Root Name Group | ◻Ca2(C42+C3+)(AlSi7O22)W2 |
| Si | ⓘ Pyrosmalite-(Fe)-Pyrosmalite-(Mn) Series | |
| Si | ⓘ Muscovite var. Sericite | KAl2(AlSi3O10)(OH)2 |
| Si | ⓘ Garnet Group | X3Z2(SiO4)3 |
| P | Phosphorus | |
| P | ⓘ Apatite | Ca5(PO4)3A |
| S | Sulfur | |
| S | ⓘ Acanthite | Ag2S |
| S | ⓘ Arsenopyrite | FeAsS |
| S | ⓘ Bismuthinite | Bi2S3 |
| S | ⓘ Chalcopyrite | CuFeS2 |
| S | ⓘ Freibergite Subgroup | (Ag6,[Ag6]4+)(Cu4 C22+)Sb4S12S0-1 |
| S | ⓘ Galena | PbS |
| S | ⓘ Gudmundite | FeSbS |
| S | ⓘ Jamesonite | Pb4FeSb6S14 |
| S | ⓘ Launayite | Cu2Pb20(Sb,As)26S60 |
| S | ⓘ Marcasite | FeS2 |
| S | ⓘ Proustite | Ag3AsS3 |
| S | ⓘ Pyrargyrite | Ag3SbS3 |
| S | ⓘ Pyrite | FeS2 |
| S | ⓘ Pyrrhotite | Fe1-xS |
| S | ⓘ Sphalerite | ZnS |
| S | ⓘ Stephanite | Ag5SbS4 |
| S | ⓘ Sternbergite | AgFe2S3 |
| S | ⓘ Tetrahedrite Subgroup | Cu6(Cu4C22+)Sb4S12S |
| S | ⓘ Veenite | Pb16Sb9-xAs7+xS40, x ~ 0-0.5 |
| S | ⓘ Galena var. Silver-bearing Galena | PbS with Ag |
| Cl | Chlorine | |
| Cl | ⓘ Pyrosmalite-(Fe) | Fe82+Si6O15(OH,Cl)10 |
| Cl | ⓘ Pyrosmalite-(Fe)-Pyrosmalite-(Mn) Series | |
| K | Potassium | |
| K | ⓘ Microcline var. Amazonite | K(AlSi3O8) |
| K | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| K | ⓘ Microcline | K(AlSi3O8) |
| K | ⓘ Muscovite | KAl2(AlSi3O10)(OH)2 |
| K | ⓘ Muscovite var. Sericite | KAl2(AlSi3O10)(OH)2 |
| Ca | Calcium | |
| Ca | ⓘ Calcite | CaCO3 |
| Ca | ⓘ Fluorite | CaF2 |
| Ca | ⓘ Hedenbergite | CaFe2+Si2O6 |
| Ca | ⓘ Ilvaite | CaFe3+Fe22+(Si2O7)O(OH) |
| Ca | ⓘ Pyroxferroite | (Fe,Mn,Ca)SiO3 |
| Ca | ⓘ Titanite | CaTiO(SiO4) |
| Ca | ⓘ Hornblende Root Name Group | ◻Ca2(C42+C3+)(AlSi7O22)W2 |
| Ca | ⓘ Apatite | Ca5(PO4)3A |
| Ti | Titanium | |
| Ti | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| Ti | ⓘ Ilmenite | Fe2+TiO3 |
| Ti | ⓘ Titanite | CaTiO(SiO4) |
| Mn | Manganese | |
| Mn | ⓘ Pyroxferroite | (Fe,Mn,Ca)SiO3 |
| Mn | ⓘ Pyroxmangite | Mn2+SiO3 |
| Mn | ⓘ Pyrosmalite-(Fe)-Pyrosmalite-(Mn) Series | |
| Fe | Iron | |
| Fe | ⓘ Arsenopyrite | FeAsS |
| Fe | ⓘ Almandine | Fe32+Al2(SiO4)3 |
| Fe | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| Fe | ⓘ Chalcopyrite | CuFeS2 |
| Fe | ⓘ Fayalite | Fe22+(SiO4) |
| Fe | ⓘ Pyrosmalite-(Fe) | Fe82+Si6O15(OH,Cl)10 |
| Fe | ⓘ Grunerite | ◻Fe22+Fe52+(Si8O22)(OH)2 |
| Fe | ⓘ Gudmundite | FeSbS |
| Fe | ⓘ Hedenbergite | CaFe2+Si2O6 |
| Fe | ⓘ Ilmenite | Fe2+TiO3 |
| Fe | ⓘ Ilvaite | CaFe3+Fe22+(Si2O7)O(OH) |
| Fe | ⓘ Jamesonite | Pb4FeSb6S14 |
| Fe | ⓘ Löllingite | FeAs2 |
| Fe | ⓘ Magnetite | Fe2+Fe23+O4 |
| Fe | ⓘ Marcasite | FeS2 |
| Fe | ⓘ Pyrite | FeS2 |
| Fe | ⓘ Pyroxferroite | (Fe,Mn,Ca)SiO3 |
| Fe | ⓘ Pyrrhotite | Fe1-xS |
| Fe | ⓘ Siderite | FeCO3 |
| Fe | ⓘ Sternbergite | AgFe2S3 |
| Fe | ⓘ Fayalite-Forsterite Series | |
| Fe | ⓘ Pyrosmalite-(Fe)-Pyrosmalite-(Mn) Series | |
| Cu | Copper | |
| Cu | ⓘ Chalcopyrite | CuFeS2 |
| Cu | ⓘ Chrysocolla | Cu2-xAlx(H2-xSi2O5)(OH)4 · nH2O, x < 1 |
| Cu | ⓘ Freibergite Subgroup | (Ag6,[Ag6]4+)(Cu4 C22+)Sb4S12S0-1 |
| Cu | ⓘ Launayite | Cu2Pb20(Sb,As)26S60 |
| Cu | ⓘ Tetrahedrite Subgroup | Cu6(Cu4C22+)Sb4S12S |
| Zn | Zinc | |
| Zn | ⓘ Gahnite | ZnAl2O4 |
| Zn | ⓘ Sphalerite | ZnS |
| As | Arsenic | |
| As | ⓘ Arsenopyrite | FeAsS |
| As | ⓘ Launayite | Cu2Pb20(Sb,As)26S60 |
| As | ⓘ Löllingite | FeAs2 |
| As | ⓘ Proustite | Ag3AsS3 |
| As | ⓘ Veenite | Pb16Sb9-xAs7+xS40, x ~ 0-0.5 |
| Ag | Silver | |
| Ag | ⓘ Acanthite | Ag2S |
| Ag | ⓘ Allargentum | (Ag1-xSbx) |
| Ag | ⓘ Native Silver var. Antimonial Silver | (Ag,Sb) |
| Ag | ⓘ Dyscrasite | Ag3Sb |
| Ag | ⓘ Freibergite Subgroup | (Ag6,[Ag6]4+)(Cu4 C22+)Sb4S12S0-1 |
| Ag | ⓘ Proustite | Ag3AsS3 |
| Ag | ⓘ Pyrargyrite | Ag3SbS3 |
| Ag | ⓘ Native Silver | Ag |
| Ag | ⓘ Stephanite | Ag5SbS4 |
| Ag | ⓘ Sternbergite | AgFe2S3 |
| Ag | ⓘ Galena var. Silver-bearing Galena | PbS with Ag |
| Sb | Antimony | |
| Sb | ⓘ Allargentum | (Ag1-xSbx) |
| Sb | ⓘ Native Silver var. Antimonial Silver | (Ag,Sb) |
| Sb | ⓘ Dyscrasite | Ag3Sb |
| Sb | ⓘ Freibergite Subgroup | (Ag6,[Ag6]4+)(Cu4 C22+)Sb4S12S0-1 |
| Sb | ⓘ Gudmundite | FeSbS |
| Sb | ⓘ Jamesonite | Pb4FeSb6S14 |
| Sb | ⓘ Launayite | Cu2Pb20(Sb,As)26S60 |
| Sb | ⓘ Pyrargyrite | Ag3SbS3 |
| Sb | ⓘ Stephanite | Ag5SbS4 |
| Sb | ⓘ Tetrahedrite Subgroup | Cu6(Cu4C22+)Sb4S12S |
| Sb | ⓘ Veenite | Pb16Sb9-xAs7+xS40, x ~ 0-0.5 |
| Pb | Lead | |
| Pb | ⓘ Galena | PbS |
| Pb | ⓘ Jamesonite | Pb4FeSb6S14 |
| Pb | ⓘ Launayite | Cu2Pb20(Sb,As)26S60 |
| Pb | ⓘ Veenite | Pb16Sb9-xAs7+xS40, x ~ 0-0.5 |
| Pb | ⓘ Galena var. Silver-bearing Galena | PbS with Ag |
| Bi | Bismuth | |
| Bi | ⓘ Bismuthinite | Bi2S3 |
Other Regions, Features and Areas containing this locality
Australia
- Eromanga BasinBasin
- North Australian ElementCraton
- Queensland
- Mount Isa OrogenOrogen
- Kuridala-Selwyn DomainDomain
- Mount Isa OrogenOrogen
Australian PlateTectonic Plate
- North Australian Craton
- Mount Isa ProvinceShield
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References
Walters, Stephen, Bailey, Andrew (1998) Geology and mineralization of the Cannington Ag-Pb-Zn deposit; an example of Broken Hill-type mineralization in the eastern succession, Mount Isa Inlier, Australia. Economic Geology, 93 (8) 1307-1329 doi:10.2113/gsecongeo.93.8.1307
Roache, T. J., Williams, P. J., Richmond, J. M., Chapman, L. H. (2005) Vein and skarn formation at the Cannington Ag-Pb-Zn deposit, northeastern Australia. The Canadian Mineralogist, 43 (1). 241-262 doi:10.2113/gscanmin.43.1.241