Musina, Musina Local Municipality, Vhembe District Municipality, Limpopo, South Africai
| Regional Level Types | |
|---|---|
| Musina | Town |
| Musina Local Municipality | Municipality |
| Vhembe District Municipality | Municipality |
| Limpopo | Province |
| South Africa | Country |
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Latitude & Longitude (WGS84):
22° 20' 31'' South , 30° 2' 29'' East
Latitude & Longitude (decimal):
Type:
Köppen climate type:
Other/historical names associated with this locality:
Messina
Other Languages:
French:
Messina, Musina, Vhembe, Limpopo, Afrique du Sud
German:
Musina, Musina, Vhembe, Limpopo, Südafrika
Italian:
Musina, Municipalità locale di Musina, Municipalità distrettuale di Vhembe, provincia del Limpopo, Sudafrica
Russian:
Мусина, Мусина, Вембе, Лимпопо, ЮАР
Simplified Chinese:
穆西納 , 穆西納地方自治市, 穆希姆貝區自治市, 林波波省, 南非
Spanish:
Musina, Provincia de Limpopo, Sudáfrica
Afrikaans:
Musina, Musina Plaaslike Munisipaliteit, Vhembe-distriksmunisipaliteit, Limpopo, Suid-Afrika
Arabic:
موسينا, ليمبوبو, جنوب أفريقيا
Bengali:
মুসিনা, লিম্পোপো, দক্ষিণ আফ্রিকা
Danish:
Musina, Limpopo, Sydafrika
Dutch:
Musina, Musina Local Municipality, Vhembe, Limpopo, Zuid-Afrika
Estonian:
Musina, Vhembe ringkond, Limpopo provints, Lõuna-Aafrika Vabariik
Finnish:
Musina, Limpopon provinssi, Etelä-Afrikka
Greek:
Μουσίνα, Λιμπόπο, Νότια Αφρική
Gujarati:
મુસિના, લિમ્પોપો, દક્ષિણ આફ્રિકા
Hindi:
मुसियाना, लिम्पोपो प्रान्त, दक्षिण अफ़्रीका
Indonesian:
Musina, Distrik Vhembe, Limpopo, Afrika Selatan
Japanese:
ムシナ, ベンベ郡, リンポポ州, 南アフリカ
Kannada:
ಮ್ಯುಸಿನ, ಲಿಂಪೊಪೋ, ದಕ್ಷಿಣ ಆಫ್ರಿಕಾ
Korean:
무시나, 림포포주, 남아프리카 공화국
Latin:
Musina, Limpopoënsis, Africa Australis
Latvian:
Musina, Limpopo, Dienvidāfrika
Lithuanian:
Musina, Limpopas, Pietų Afrikos Respublika
Luxembourgish:
Musina, Südafrika
Malay:
Musina, Limpopo, Afrika Selatan
Marathi:
म्युसीना, लिम्पोपो, दक्षिण आफ्रिका
Northern Sotho:
Musina, Musina Mmusogae, Mmasepala Setereke tša Vhembe, Limpopo, Afrika Borwa
Norwegian:
Musina, Limpopo, Sør-Afrika
Pennsylvania German:
Messina, Saut Afrikaa
Polish:
Musina, Musina, Vhembe, Limpopo, Republika Południowej Afryki
Portuguese:
Musina, Limpopo, África do Sul
Romanian:
Musina, Provincia Limpopo, Africa de Sud
Sinhalese:
මුසිනා, ලිම්පොපෝ, දකුණු අප්රිකාව
Swedish:
Musina, Limpopoprovinsen, Sydafrika
Tamil:
முஸினா, லிம்போபோ, தென்னாப்பிரிக்கா
Telugu:
ముసియానా, లింపోపో, దక్షిణ ఆఫ్రికా
Thai:
มูซีน่า, ลิมโปโป, แอฟริกาใต้
Turkish:
Musina, Limpopo, Güney Afrika
Ukrainian:
Мусіна, Вхембе, Лімпопо, Південно-Африканська Республіка
Urdu:
مسینا, لیمپوپو, جنوبی افریقا
Vietnamese:
Musina, Limpopo, Nam Phi
Note: The town, which was founded and settled by people of originally-European descent, was long-named Messina, in 2003, the Limpopo Government changed the name to Musina. However, the name of the mine is still registered as Messina and did not change when the town name changed.
Note: No. 5 shaft or Five Shaft is a local term used to distinguish this particular mine from others in the Messina mining area.
The following is an extract from Cairncross and Dixon (1995):
HISTORY
The copper deposits in the Limpopo river area were known to ancient indigenous African tribes for centuries. The word "Messina" is thought to be a corruption of the word "Musina", which was the name of one of the tribes that moved into the area from Mphumalanga. Prior to the arrival of these migratory tribes, the earlier inhabitants may have had tentative links with the groups that were associated with the Zimbabwe ruins in southern Zimbabwe. Ancient mine excavations have yielded stone hammers, soapstone artifacts and iron tools and wedges. "Musina" is believed to mean "Spoiler" because the small amounts of copper tended to spoil or down-grade the iron produced by the ancient miners. Ancient smelting sites are still known today along the high ridges and hills within 20 kilometres of the town of Messina and particularly from the nearby summit of Singelele Kop.
It was the tales of the ancient copper miners that led Lt. Colonel J.P. Grenfell to send a prospecting team to investigate the region in the years following the second Anglo-Boer war. The Digby, Harper and Campbell shafts are named after members of this exploration party. The outcome of the expedition was the registration of the Messina (Transvaal) Development Company in 1905. This had an initial capital of ,110 000 and ,50 000 in debentures. Emery (1930), provides some details on the Grenfell expedition:
"To the courage and foresight of Colonel J.P. Grenfell, the Messina mines owe their existence. The ancient workings at Messina which were some 80 feet deep (water level) and some 30 feet wide and which contained ... rich copper sulphides, were investigated by Colonel Grenfell in 1903".
In 1914 a reduction works was put into commission, and a small Welsh reverberating furnace turned low-grade concentrates into high-grade matte, which, together with the high-grade concentrations, was shipped overseas to Welsh refineries. In 1920, the Messina mines were closed down pending the erection of the new addition to the concentration plant, and the erection of the new smelting works.
Mining operations were resumed in 1922. Production statistics show that between 1938 and 1940, the Messina plant was producing 10 000 tonnes of copper annually. Ore reserves in 1939 were estimated at 2 811 605 tonnes at a grade of 2.09% Cu. Since the initial establishment of the Messina (Transvaal) Development Company, 40 million tonnes of ore have been mined yielding approximately 700 000 tonnes of copper. It is interesting to note that all of the modern shafts have been sunk on or next to ancient workings.
GEOLOGY
The copper deposits are hosted by various complexly folded gneisses of the Beit Bridge Complex which were metamorphosed to granulite grade. The position of the copper ores is controlled by two brittle shear zones, the Messina and the Dowe-Tokwe Faults, along which copper-bearing fluids were able to penetrate the country rocks. The copper mineralisation is generally found in veins, lodes and pipe-like breccia bodies. The exact age of the mineralisation around Messina is not known. One theory is that the ore was emplaced during Soutpansberg times (circa 1 900 million years ago), and then partly remobilised during Karoo igneous activity in Jurassic times. Another theory is that the copper mineralisation is genetically linked to the alkaline intrusions of the Nuanetsi Complex in southern Zimbabwe, which are also of Karoo age.
Copper is the only economic metal won from the ore bodies. It occurs in the primary sulphide minerals chalcopyrite, bornite and chalcocite. Chalcopyrite is present along the peripheries of ore bodies and is gradually replaced by bornite, chalcocite and native copper towards the centre and downwards. Host rock alteration follows the zonation of the sulphides by a general increase in hydration of silicate minerals, leaching of quartz and the development of albite, zoisite and epidote, leading to complete destruction of the host rock.
In a detailed study of the Artonvilla Mine, it has been observed that disseminated replacement bodies are best developed at this particular mine. Four separate lodes are developed where mineralisation is accompanied by intense hydrothermal alteration. These disseminated ore bodies, such as the Emery lode, show concentric zoning with respect to both the sulphides and the hydrothermal minerals; an outer zone of sericitisation is followed inward by zones of albitisation, chloritisation and epidotisation.
Accompanying these stages are changes in the sulphides which display a zonation from an outer pyrite zone, through chalcopyrite and bornite, to chalcocite and occasional native copper zones in the core. These minerals formed from an ore fluid that was introduced into the host rocks. This fluid entered the structural traps at temperatures in excess of 650C and passed through the rocks down a temperature gradient which reached about 400C at the outer extremity, resulting in well-developed mineral zonation. The central parts of the ore body indicate mineral associations which equilibrated at temperatures ranging from 140C to 280C.
There are five separate mines, located along an east-northeast trending line and are named the Artonvilla, Spence, Messina, Harper, and the Western Campbell mines. These mines show slight variation in their local geology and mineralisation. At the end of 1992 the Messina Mine (No. 5 Shaft) ended production and was closed down. This was the last remaining operating mine in the region and brought to a close 88 years of copper mining.
MINERALOGY
By far the most abundant and attractive mineral, from a collectors standpoint, is quartz. The habits and varieties of sizes and groups, together with several colourful secondary mineral inclusions, make the Messina mines quartz specimens interesting items. In particular, inclusions of shattuckite, papagoite and ajoite make spectacular specimens. Minerals that occur associated with the ore bodies and breccia zones are listed below. Due to the brecciation of the ore bodies, a multitude of cavities, vugs and fissures provided the space for growth of crystals, in some cases almost 1m long.
Several publications have documented the abundance and diversity of quartz crystals; for example: "a notable feature ... throughout the breccia pipe (Campbell mine) ... is the development of vugs which are often lined with well-formed crystals of quartz and calcite".
"The early stage of open space filling is dominated by the deposition of quartz which grew from the breccia fragment surfaces outwards, encrusting succeeding layers of quartz forming a typical 'cockade' (phantom) texture. In some cases, well-formed prismatic crystals are formed ... Where permeability of the breccia fragments was low and (sulphide) mineralisation scarce, open spaces ... contain well-terminated prismatic crystals".
The Messina Mine (No. 5 Shaft) is noted for its wealth of beautiful quartz crystals ranging from microscopic size to individual crystals half a metre long. Doubly terminated crystals over 10cm in length have been found in many vugs. The larger crystals are, almost without exception, zoned internally with over a dozen phantom layers occurring in some crystals. These zones can consist of minute inclusions of specular hematite, kaolinite, epidote and chlorite. It is common to find an outer layer of clear euhedral quartz that has grown on the zoned core after the latter has been coated by hematite, epidote, talc, sericite, chlorite, zeolites, malachite or azurite. The presence of flaky specular hematite imparts a striking sheen to the well-formed clear crystals. Hollow kaolinitic spherules are also sometimes incorporated in the core of quartz crystals.
Note: No. 5 shaft or Five Shaft is a local term used to distinguish this particular mine from others in the Messina mining area.
The following is an extract from Cairncross and Dixon (1995):
HISTORY
The copper deposits in the Limpopo river area were known to ancient indigenous African tribes for centuries. The word "Messina" is thought to be a corruption of the word "Musina", which was the name of one of the tribes that moved into the area from Mphumalanga. Prior to the arrival of these migratory tribes, the earlier inhabitants may have had tentative links with the groups that were associated with the Zimbabwe ruins in southern Zimbabwe. Ancient mine excavations have yielded stone hammers, soapstone artifacts and iron tools and wedges. "Musina" is believed to mean "Spoiler" because the small amounts of copper tended to spoil or down-grade the iron produced by the ancient miners. Ancient smelting sites are still known today along the high ridges and hills within 20 kilometres of the town of Messina and particularly from the nearby summit of Singelele Kop.
It was the tales of the ancient copper miners that led Lt. Colonel J.P. Grenfell to send a prospecting team to investigate the region in the years following the second Anglo-Boer war. The Digby, Harper and Campbell shafts are named after members of this exploration party. The outcome of the expedition was the registration of the Messina (Transvaal) Development Company in 1905. This had an initial capital of ,110 000 and ,50 000 in debentures. Emery (1930), provides some details on the Grenfell expedition:
"To the courage and foresight of Colonel J.P. Grenfell, the Messina mines owe their existence. The ancient workings at Messina which were some 80 feet deep (water level) and some 30 feet wide and which contained ... rich copper sulphides, were investigated by Colonel Grenfell in 1903".
In 1914 a reduction works was put into commission, and a small Welsh reverberating furnace turned low-grade concentrates into high-grade matte, which, together with the high-grade concentrations, was shipped overseas to Welsh refineries. In 1920, the Messina mines were closed down pending the erection of the new addition to the concentration plant, and the erection of the new smelting works.
Mining operations were resumed in 1922. Production statistics show that between 1938 and 1940, the Messina plant was producing 10 000 tonnes of copper annually. Ore reserves in 1939 were estimated at 2 811 605 tonnes at a grade of 2.09% Cu. Since the initial establishment of the Messina (Transvaal) Development Company, 40 million tonnes of ore have been mined yielding approximately 700 000 tonnes of copper. It is interesting to note that all of the modern shafts have been sunk on or next to ancient workings.
GEOLOGY
The copper deposits are hosted by various complexly folded gneisses of the Beit Bridge Complex which were metamorphosed to granulite grade. The position of the copper ores is controlled by two brittle shear zones, the Messina and the Dowe-Tokwe Faults, along which copper-bearing fluids were able to penetrate the country rocks. The copper mineralisation is generally found in veins, lodes and pipe-like breccia bodies. The exact age of the mineralisation around Messina is not known. One theory is that the ore was emplaced during Soutpansberg times (circa 1 900 million years ago), and then partly remobilised during Karoo igneous activity in Jurassic times. Another theory is that the copper mineralisation is genetically linked to the alkaline intrusions of the Nuanetsi Complex in southern Zimbabwe, which are also of Karoo age.
Copper is the only economic metal won from the ore bodies. It occurs in the primary sulphide minerals chalcopyrite, bornite and chalcocite. Chalcopyrite is present along the peripheries of ore bodies and is gradually replaced by bornite, chalcocite and native copper towards the centre and downwards. Host rock alteration follows the zonation of the sulphides by a general increase in hydration of silicate minerals, leaching of quartz and the development of albite, zoisite and epidote, leading to complete destruction of the host rock.
In a detailed study of the Artonvilla Mine, it has been observed that disseminated replacement bodies are best developed at this particular mine. Four separate lodes are developed where mineralisation is accompanied by intense hydrothermal alteration. These disseminated ore bodies, such as the Emery lode, show concentric zoning with respect to both the sulphides and the hydrothermal minerals; an outer zone of sericitisation is followed inward by zones of albitisation, chloritisation and epidotisation.
Accompanying these stages are changes in the sulphides which display a zonation from an outer pyrite zone, through chalcopyrite and bornite, to chalcocite and occasional native copper zones in the core. These minerals formed from an ore fluid that was introduced into the host rocks. This fluid entered the structural traps at temperatures in excess of 650C and passed through the rocks down a temperature gradient which reached about 400C at the outer extremity, resulting in well-developed mineral zonation. The central parts of the ore body indicate mineral associations which equilibrated at temperatures ranging from 140C to 280C.
There are five separate mines, located along an east-northeast trending line and are named the Artonvilla, Spence, Messina, Harper, and the Western Campbell mines. These mines show slight variation in their local geology and mineralisation. At the end of 1992 the Messina Mine (No. 5 Shaft) ended production and was closed down. This was the last remaining operating mine in the region and brought to a close 88 years of copper mining.
MINERALOGY
By far the most abundant and attractive mineral, from a collectors standpoint, is quartz. The habits and varieties of sizes and groups, together with several colourful secondary mineral inclusions, make the Messina mines quartz specimens interesting items. In particular, inclusions of shattuckite, papagoite and ajoite make spectacular specimens. Minerals that occur associated with the ore bodies and breccia zones are listed below. Due to the brecciation of the ore bodies, a multitude of cavities, vugs and fissures provided the space for growth of crystals, in some cases almost 1m long.
Several publications have documented the abundance and diversity of quartz crystals; for example: "a notable feature ... throughout the breccia pipe (Campbell mine) ... is the development of vugs which are often lined with well-formed crystals of quartz and calcite".
"The early stage of open space filling is dominated by the deposition of quartz which grew from the breccia fragment surfaces outwards, encrusting succeeding layers of quartz forming a typical 'cockade' (phantom) texture. In some cases, well-formed prismatic crystals are formed ... Where permeability of the breccia fragments was low and (sulphide) mineralisation scarce, open spaces ... contain well-terminated prismatic crystals".
The Messina Mine (No. 5 Shaft) is noted for its wealth of beautiful quartz crystals ranging from microscopic size to individual crystals half a metre long. Doubly terminated crystals over 10cm in length have been found in many vugs. The larger crystals are, almost without exception, zoned internally with over a dozen phantom layers occurring in some crystals. These zones can consist of minute inclusions of specular hematite, kaolinite, epidote and chlorite. It is common to find an outer layer of clear euhedral quartz that has grown on the zoned core after the latter has been coated by hematite, epidote, talc, sericite, chlorite, zeolites, malachite or azurite. The presence of flaky specular hematite imparts a striking sheen to the well-formed clear crystals. Hollow kaolinitic spherules are also sometimes incorporated in the core of quartz crystals.
Select Mineral List Type
Standard Detailed Gallery Strunz Chemical ElementsCommodity List
This is a list of exploitable or exploited mineral commodities recorded from this region.Mineral List
Mineral list contains entries from the region specified including sub-localities49 valid minerals.
Detailed Mineral List:
| ⓘ Actinolite Formula: ◻Ca2(Mg4.5-2.5Fe0.5-2.5)Si8O22(OH)2 |
| ⓘ Ajoite Formula: (K,Na)Cu7AlSi9O24(OH)6 · 3H2O Localities: |
| ⓘ Albite Formula: Na(AlSi3O8) Localities: Colour: Rust-red to mustard-brown to white Description: Albite is common in the alteration zones of the orebodies particularly at this mine as Messina & Harper mines have a higher degree of prehnitization and zoistization. The Emery lode shows an outer zone of sericite followed inward by zones of albite, chlorite and epidote.
The red colour in albite has been attributed to additions of ferrous ions to the structure after albite formed. |
| ⓘ Almandine Formula: Fe2+3Al2(SiO4)3 |
| ⓘ Analcime Formula: Na(AlSi2O6) · H2O Localities: |
| ⓘ Anhydrite Formula: CaSO4 Locality: Messina Mine, Musina, Musina Local Municipality, Vhembe District Municipality, Limpopo, South Africa Description: Crystals to 10 cm |
| ⓘ 'Apatite' Formula: Ca5(PO4)3A |
| ⓘ Azurite Formula: Cu3(CO3)2(OH)2 |
| ⓘ Baryte Formula: BaSO4 |
| ⓘ Beryl Formula: Be3Al2(Si6O18) Description: Several deposits found in the area. |
| ⓘ 'Biotite' Formula: K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 Localities: |
| ⓘ Bornite Formula: Cu5FeS4 Localities: |
| ⓘ Brucite Formula: Mg(OH)2 Colour: Green Description: At Messina it occurs as massive green lumps (Cairncross et al 1995) |
| ⓘ Calcite Formula: CaCO3 Localities: Description: Also present as an inclusion in quartz (Cairncross et al 1995) |
| ⓘ Chalcanthite Formula: CuSO4 · 5H2O Locality: Messina Mine, Musina, Musina Local Municipality, Vhembe District Municipality, Limpopo, South Africa References: |
| ⓘ Chalcocite Formula: Cu2S Localities: |
| ⓘ Chalcopyrite Formula: CuFeS2 Localities: |
| ⓘ 'Chlorite Group' Localities: |
| ⓘ Clausthalite Formula: PbSe Localities: |
| ⓘ Clinochlore Formula: Mg5Al(AlSi3O10)(OH)8 |
| ⓘ Clinozoisite Formula: (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) Localities: Description: Also present as an inclusion in quartz. Crystalline specimens to several mm have been recovered from the copper mines at Musina (Cairncross et al 1995) |
| ⓘ Cordierite Formula: Mg2Al4Si5O18 Localities: Description: In hand specimens it's grey-blue in colour but in areas where hydrothermal alteration has occurred it becomes distinctly greenish (Cairncross 1991) |
| ⓘ Covellite Formula: CuS Localities: Description: Small under 1cm crystalline platelets have been found but more usually found as films and masses (Cairncross et al 1995) |
| ⓘ Cuprite Formula: Cu2O Localities: Description: Bright red inclusions with native copper in quartz have been qualitatively identified by electron microprobe analysis. |
| ⓘ Cuprorivaite Formula: CaCuSi4O10 |
| ⓘ Digenite Formula: Cu9S5 Localities: Description: Found only as ex-solution lamellae in association with chalcocite and clausthalite (Cairncross 1991) |
| ⓘ Epidote Formula: (CaCa)(AlAlFe3+)O[Si2O7][SiO4](OH) Localities: |
| ⓘ Fluorapatite Formula: Ca5(PO4)3F |
| ⓘ 'Garnet Group' Formula: X3Z2(SiO4)3 |
| ⓘ Goethite Formula: Fe3+O(OH) Localities: Colour: Reddish, golden Description: Occasionally forms minute golden crystals included in quartz (Cairncross et al 1995) |
| ⓘ Hematite Formula: Fe2O3 Localities: Campbell Mine, Musina, Musina Local Municipality, Vhembe District Municipality, Limpopo, South Africa Harper Mine, Musina, Musina Local Municipality, Vhembe District Municipality, Limpopo, South Africa Messina Mine, Musina, Musina Local Municipality, Vhembe District Municipality, Limpopo, South Africa Musina, Musina Local Municipality, Vhembe District Municipality, Limpopo, South Africa Habit: Tabular Description: Iron oxide is scarce at this mine. Some lodes have hematite crystals up to 3cm diameter. |
| ⓘ 'Hornblende Root Name Group' Formula: ◻Ca2(C2+4C3+)(AlSi7O22)W2 |
| ⓘ Kaolinite Formula: Al2(Si2O5)(OH)4 |
| ⓘ Magnesite Formula: MgCO3 |
| ⓘ Magnetite Formula: Fe2+Fe3+2O4 Localities: Description: Magnetite is one of the primary constituents of the country rock and is not usually associated with the ore zones. |
| ⓘ Malachite Formula: Cu2(CO3)(OH)2 |
| ⓘ Molybdenite Formula: MoS2 Localities: Description: Reference below mentions Söhnge (1946) states he was told of molybdenite in the K Lode at the Messina mine and in Laing (1973) states that "in the foyer of the mine offices a molybdenite sample is indicated as coming from the 19th level of the West Lode, Campbell mine." |
| ⓘ Muscovite Formula: KAl2(AlSi3O10)(OH)2 Localities: |
| ⓘ Muscovite var. Fuchsite Formula: K(Al,Cr)3Si3O10(OH)2 Localities: Colour: Bright green Description: Occurs as micaceous crystals in all of the host rock meta-quartzites (Cairncross 1991) |
| ⓘ Muscovite var. Sericite Formula: KAl2(AlSi3O10)(OH)2 Localities: |
| ⓘ Native Copper Formula: Cu Localities: |
| ⓘ Papagoite Formula: CaCu[H3AlSi2O9] Localities: Description: Note: Colour alone is not indicative in identification between papagoite and shattuckite or in some cases ajoite (Debbie Woolf's conclusion after further discussions with author 25 years later). |
| ⓘ Pennantite Formula: Mn2+5Al(AlSi3O10)(OH)8 |
| ⓘ Piemontite Formula: (CaCa)(AlAlMn3+)O[Si2O7][SiO4](OH) |
| ⓘ 'Plagioclase' Formula: (Na,Ca)[(Si,Al)AlSi2]O8 |
| ⓘ Plancheite Formula: Cu8(Si8O22)(OH)4 · H2O |
| ⓘ Prehnite Formula: Ca2Al2Si3O10(OH)2 Localities: |
| ⓘ Pyrite Formula: FeS2 Localities: |
| ⓘ Pyrrhotite Formula: Fe1-xS |
| ⓘ Quartz Formula: SiO2 Localities: |
| ⓘ Quartz var. Carnelian Formula: SiO2 Description: Found in the area (Cairncross 1995) |
| ⓘ Quartz var. Chalcedony Formula: SiO2 Description: Found in the area (Cairncross 1995) |
| ⓘ Riebeckite Formula: ◻Na2(Fe2+3Fe3+2)Si8O22(OH)2 |
| ⓘ Sapphirine Formula: Mg4(Mg3Al9)O4[Si3Al9O36] |
| ⓘ Shattuckite Formula: Cu5(Si2O6)2(OH)2 Localities: Colour: Dark blue, royal blue, navy blue, when included in quartz Description: Also present as an inclusion in quartz (Cairncross 1991).
Note: Colour alone is not indicative in identification between shattuckite and papagoite or in some cases ajoite (Debbie Woolf's conclusion after further discussions with author 25 years later). |
| ⓘ Sphalerite Formula: ZnS Localities: |
| ⓘ Talc Formula: Mg3Si4O10(OH)2 |
| ⓘ Tangeite Formula: CaCu(VO4)(OH) |
| ⓘ Zoisite Formula: (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) Localities: Description: Also present as an inclusion in quartz (Cairncross et al 1995) |
Gallery:
List of minerals arranged by Strunz 10th Edition classification
| Group 1 - Elements | |||
|---|---|---|---|
| ⓘ | Native Copper | 1.AA.05 | Cu |
| Group 2 - Sulphides and Sulfosalts | |||
| ⓘ | Chalcocite | 2.BA.05 | Cu2S |
| ⓘ | Digenite | 2.BA.10 | Cu9S5 |
| ⓘ | Bornite | 2.BA.15 | Cu5FeS4 |
| ⓘ | Covellite | 2.CA.05a | CuS |
| ⓘ | Sphalerite | 2.CB.05a | ZnS |
| ⓘ | Chalcopyrite | 2.CB.10a | CuFeS2 |
| ⓘ | Pyrrhotite | 2.CC.10 | Fe1-xS |
| ⓘ | Clausthalite | 2.CD.10 | PbSe |
| ⓘ | Molybdenite | 2.EA.30 | MoS2 |
| ⓘ | Pyrite | 2.EB.05a | FeS2 |
| Group 4 - Oxides and Hydroxides | |||
| ⓘ | Goethite | 4.00. | Fe3+O(OH) |
| ⓘ | Cuprite | 4.AA.10 | Cu2O |
| ⓘ | Magnetite | 4.BB.05 | Fe2+Fe3+2O4 |
| ⓘ | Hematite | 4.CB.05 | Fe2O3 |
| ⓘ | Quartz var. Chalcedony | 4.DA.05 | SiO2 |
| ⓘ | 4.DA.05 | SiO2 | |
| ⓘ | var. Carnelian | 4.DA.05 | SiO2 |
| ⓘ | Brucite | 4.FE.05 | Mg(OH)2 |
| Group 5 - Nitrates and Carbonates | |||
| ⓘ | Calcite | 5.AB.05 | CaCO3 |
| ⓘ | Magnesite | 5.AB.05 | MgCO3 |
| ⓘ | Azurite | 5.BA.05 | Cu3(CO3)2(OH)2 |
| ⓘ | Malachite | 5.BA.10 | Cu2(CO3)(OH)2 |
| Group 7 - Sulphates, Chromates, Molybdates and Tungstates | |||
| ⓘ | Anhydrite | 7.AD.30 | CaSO4 |
| ⓘ | Baryte | 7.AD.35 | BaSO4 |
| ⓘ | Chalcanthite | 7.CB.20 | CuSO4 · 5H2O |
| Group 8 - Phosphates, Arsenates and Vanadates | |||
| ⓘ | Tangeite | 8.BH.35 | CaCu(VO4)(OH) |
| ⓘ | Fluorapatite | 8.BN.05 | Ca5(PO4)3F |
| Group 9 - Silicates | |||
| ⓘ | Almandine | 9.AD.25 | Fe2+3Al2(SiO4)3 |
| ⓘ | Clinozoisite | 9.BG.05a | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| ⓘ | Epidote | 9.BG.05a | (CaCa)(AlAlFe3+)O[Si2O7][SiO4](OH) |
| ⓘ | Piemontite | 9.BG.05a | (CaCa)(AlAlMn3+)O[Si2O7][SiO4](OH) |
| ⓘ | Zoisite | 9.BG.10 | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| ⓘ | Papagoite | 9.CE.05 | CaCu[H3AlSi2O9] |
| ⓘ | Beryl | 9.CJ.05 | Be3Al2(Si6O18) |
| ⓘ | Cordierite | 9.CJ.10 | Mg2Al4Si5O18 |
| ⓘ | Shattuckite | 9.DB.40 | Cu5(Si2O6)2(OH)2 |
| ⓘ | Actinolite | 9.DE.10 | ◻Ca2(Mg4.5-2.5Fe0.5-2.5)Si8O22(OH)2 |
| ⓘ | Riebeckite | 9.DE.25 | ◻Na2(Fe2+3Fe3+2)Si8O22(OH)2 |
| ⓘ | Sapphirine | 9.DH.45 | Mg4(Mg3Al9)O4[Si3Al9O36] |
| ⓘ | Prehnite | 9.DP.20 | Ca2Al2Si3O10(OH)2 |
| ⓘ | Plancheite | 9.DP.55 | Cu8(Si8O22)(OH)4 · H2O |
| ⓘ | Cuprorivaite | 9.EA.05 | CaCuSi4O10 |
| ⓘ | Ajoite | 9.EA.70 | (K,Na)Cu7AlSi9O24(OH)6 · 3H2O |
| ⓘ | Talc | 9.EC.05 | Mg3Si4O10(OH)2 |
| ⓘ | Muscovite var. Fuchsite | 9.EC.15 | K(Al,Cr)3Si3O10(OH)2 |
| ⓘ | 9.EC.15 | KAl2(AlSi3O10)(OH)2 | |
| ⓘ | var. Sericite | 9.EC.15 | KAl2(AlSi3O10)(OH)2 |
| ⓘ | Clinochlore | 9.EC.55 | Mg5Al(AlSi3O10)(OH)8 |
| ⓘ | Pennantite | 9.EC.55 | Mn2+5Al(AlSi3O10)(OH)8 |
| ⓘ | Kaolinite | 9.ED.05 | Al2(Si2O5)(OH)4 |
| ⓘ | Albite | 9.FA.35 | Na(AlSi3O8) |
| ⓘ | Analcime | 9.GB.05 | Na(AlSi2O6) · H2O |
| Unclassified | |||
| ⓘ | 'Biotite' | - | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| ⓘ | 'Chlorite Group' | - | |
| ⓘ | 'Hornblende Root Name Group' | - | ◻Ca2(C2+4C3+)(AlSi7O22)W2 |
| ⓘ | 'Plagioclase' | - | (Na,Ca)[(Si,Al)AlSi2]O8 |
| ⓘ | 'Garnet Group' | - | X3Z2(SiO4)3 |
| ⓘ | 'Apatite' | - | Ca5(PO4)3A |
List of minerals for each chemical element
| H | Hydrogen | |
|---|---|---|
| H | ⓘ Actinolite | ◻Ca2(Mg4.5-2.5Fe0.5-2.5)Si8O22(OH)2 |
| H | ⓘ Ajoite | (K,Na)Cu7AlSi9O24(OH)6 · 3H2O |
| H | ⓘ Analcime | Na(AlSi2O6) · H2O |
| H | ⓘ Azurite | Cu3(CO3)2(OH)2 |
| H | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| H | ⓘ Brucite | Mg(OH)2 |
| H | ⓘ Chalcanthite | CuSO4 · 5H2O |
| H | ⓘ Clinochlore | Mg5Al(AlSi3O10)(OH)8 |
| H | ⓘ Clinozoisite | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| H | ⓘ Epidote | (CaCa)(AlAlFe3+)O[Si2O7][SiO4](OH) |
| H | ⓘ Muscovite var. Fuchsite | K(Al,Cr)3Si3O10(OH)2 |
| H | ⓘ Goethite | Fe3+O(OH) |
| H | ⓘ Kaolinite | Al2(Si2O5)(OH)4 |
| H | ⓘ Malachite | Cu2(CO3)(OH)2 |
| H | ⓘ Muscovite | KAl2(AlSi3O10)(OH)2 |
| H | ⓘ Papagoite | CaCu[H3AlSi2O9] |
| H | ⓘ Pennantite | Mn52+Al(AlSi3O10)(OH)8 |
| H | ⓘ Piemontite | (CaCa)(AlAlMn3+)O[Si2O7][SiO4](OH) |
| H | ⓘ Plancheite | Cu8(Si8O22)(OH)4 · H2O |
| H | ⓘ Prehnite | Ca2Al2Si3O10(OH)2 |
| H | ⓘ Riebeckite | ◻Na2(Fe32+Fe23+)Si8O22(OH)2 |
| H | ⓘ Shattuckite | Cu5(Si2O6)2(OH)2 |
| H | ⓘ Talc | Mg3Si4O10(OH)2 |
| H | ⓘ Tangeite | CaCu(VO4)(OH) |
| H | ⓘ Zoisite | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| H | ⓘ Muscovite var. Sericite | KAl2(AlSi3O10)(OH)2 |
| Be | Beryllium | |
| Be | ⓘ Beryl | Be3Al2(Si6O18) |
| C | Carbon | |
| C | ⓘ Azurite | Cu3(CO3)2(OH)2 |
| C | ⓘ Calcite | CaCO3 |
| C | ⓘ Magnesite | MgCO3 |
| C | ⓘ Malachite | Cu2(CO3)(OH)2 |
| O | Oxygen | |
| O | ⓘ Actinolite | ◻Ca2(Mg4.5-2.5Fe0.5-2.5)Si8O22(OH)2 |
| O | ⓘ Ajoite | (K,Na)Cu7AlSi9O24(OH)6 · 3H2O |
| O | ⓘ Albite | Na(AlSi3O8) |
| O | ⓘ Analcime | Na(AlSi2O6) · H2O |
| O | ⓘ Anhydrite | CaSO4 |
| O | ⓘ Azurite | Cu3(CO3)2(OH)2 |
| O | ⓘ Almandine | Fe32+Al2(SiO4)3 |
| O | ⓘ Baryte | BaSO4 |
| O | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| O | ⓘ Beryl | Be3Al2(Si6O18) |
| O | ⓘ Brucite | Mg(OH)2 |
| O | ⓘ Calcite | CaCO3 |
| O | ⓘ Chalcanthite | CuSO4 · 5H2O |
| O | ⓘ Quartz var. Chalcedony | SiO2 |
| O | ⓘ Clinochlore | Mg5Al(AlSi3O10)(OH)8 |
| O | ⓘ Clinozoisite | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| O | ⓘ Cordierite | Mg2Al4Si5O18 |
| O | ⓘ Cuprite | Cu2O |
| O | ⓘ Cuprorivaite | CaCuSi4O10 |
| O | ⓘ Epidote | (CaCa)(AlAlFe3+)O[Si2O7][SiO4](OH) |
| O | ⓘ Fluorapatite | Ca5(PO4)3F |
| O | ⓘ Muscovite var. Fuchsite | K(Al,Cr)3Si3O10(OH)2 |
| O | ⓘ Goethite | Fe3+O(OH) |
| O | ⓘ Hematite | Fe2O3 |
| O | ⓘ Kaolinite | Al2(Si2O5)(OH)4 |
| O | ⓘ Magnesite | MgCO3 |
| O | ⓘ Magnetite | Fe2+Fe23+O4 |
| O | ⓘ Malachite | Cu2(CO3)(OH)2 |
| O | ⓘ Muscovite | KAl2(AlSi3O10)(OH)2 |
| O | ⓘ Papagoite | CaCu[H3AlSi2O9] |
| O | ⓘ Pennantite | Mn52+Al(AlSi3O10)(OH)8 |
| O | ⓘ Piemontite | (CaCa)(AlAlMn3+)O[Si2O7][SiO4](OH) |
| O | ⓘ Plancheite | Cu8(Si8O22)(OH)4 · H2O |
| O | ⓘ Prehnite | Ca2Al2Si3O10(OH)2 |
| O | ⓘ Quartz | SiO2 |
| O | ⓘ Riebeckite | ◻Na2(Fe32+Fe23+)Si8O22(OH)2 |
| O | ⓘ Sapphirine | Mg4(Mg3Al9)O4[Si3Al9O36] |
| O | ⓘ Shattuckite | Cu5(Si2O6)2(OH)2 |
| O | ⓘ Talc | Mg3Si4O10(OH)2 |
| O | ⓘ Tangeite | CaCu(VO4)(OH) |
| O | ⓘ Zoisite | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| O | ⓘ Hornblende Root Name Group | ◻Ca2(C42+C3+)(AlSi7O22)W2 |
| O | ⓘ Muscovite var. Sericite | KAl2(AlSi3O10)(OH)2 |
| O | ⓘ Plagioclase | (Na,Ca)[(Si,Al)AlSi2]O8 |
| O | ⓘ Quartz var. Carnelian | SiO2 |
| 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 | ⓘ Fluorapatite | Ca5(PO4)3F |
| Na | Sodium | |
| Na | ⓘ Ajoite | (K,Na)Cu7AlSi9O24(OH)6 · 3H2O |
| Na | ⓘ Albite | Na(AlSi3O8) |
| Na | ⓘ Analcime | Na(AlSi2O6) · H2O |
| Na | ⓘ Riebeckite | ◻Na2(Fe32+Fe23+)Si8O22(OH)2 |
| Na | ⓘ Plagioclase | (Na,Ca)[(Si,Al)AlSi2]O8 |
| Mg | Magnesium | |
| Mg | ⓘ Actinolite | ◻Ca2(Mg4.5-2.5Fe0.5-2.5)Si8O22(OH)2 |
| Mg | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| Mg | ⓘ Brucite | Mg(OH)2 |
| Mg | ⓘ Clinochlore | Mg5Al(AlSi3O10)(OH)8 |
| Mg | ⓘ Cordierite | Mg2Al4Si5O18 |
| Mg | ⓘ Magnesite | MgCO3 |
| Mg | ⓘ Sapphirine | Mg4(Mg3Al9)O4[Si3Al9O36] |
| Mg | ⓘ Talc | Mg3Si4O10(OH)2 |
| Al | Aluminium | |
| Al | ⓘ Ajoite | (K,Na)Cu7AlSi9O24(OH)6 · 3H2O |
| Al | ⓘ Albite | Na(AlSi3O8) |
| Al | ⓘ Analcime | Na(AlSi2O6) · H2O |
| Al | ⓘ Almandine | Fe32+Al2(SiO4)3 |
| Al | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| Al | ⓘ Beryl | Be3Al2(Si6O18) |
| Al | ⓘ Clinochlore | Mg5Al(AlSi3O10)(OH)8 |
| Al | ⓘ Clinozoisite | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| Al | ⓘ Cordierite | Mg2Al4Si5O18 |
| Al | ⓘ Epidote | (CaCa)(AlAlFe3+)O[Si2O7][SiO4](OH) |
| Al | ⓘ Muscovite var. Fuchsite | K(Al,Cr)3Si3O10(OH)2 |
| Al | ⓘ Kaolinite | Al2(Si2O5)(OH)4 |
| Al | ⓘ Muscovite | KAl2(AlSi3O10)(OH)2 |
| Al | ⓘ Papagoite | CaCu[H3AlSi2O9] |
| Al | ⓘ Pennantite | Mn52+Al(AlSi3O10)(OH)8 |
| Al | ⓘ Piemontite | (CaCa)(AlAlMn3+)O[Si2O7][SiO4](OH) |
| Al | ⓘ Prehnite | Ca2Al2Si3O10(OH)2 |
| Al | ⓘ Sapphirine | Mg4(Mg3Al9)O4[Si3Al9O36] |
| Al | ⓘ Zoisite | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| Al | ⓘ Hornblende Root Name Group | ◻Ca2(C42+C3+)(AlSi7O22)W2 |
| Al | ⓘ Muscovite var. Sericite | KAl2(AlSi3O10)(OH)2 |
| Al | ⓘ Plagioclase | (Na,Ca)[(Si,Al)AlSi2]O8 |
| Si | Silicon | |
| Si | ⓘ Actinolite | ◻Ca2(Mg4.5-2.5Fe0.5-2.5)Si8O22(OH)2 |
| Si | ⓘ Ajoite | (K,Na)Cu7AlSi9O24(OH)6 · 3H2O |
| Si | ⓘ Albite | Na(AlSi3O8) |
| Si | ⓘ Analcime | Na(AlSi2O6) · H2O |
| Si | ⓘ Almandine | Fe32+Al2(SiO4)3 |
| Si | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| Si | ⓘ Beryl | Be3Al2(Si6O18) |
| Si | ⓘ Quartz var. Chalcedony | SiO2 |
| Si | ⓘ Clinochlore | Mg5Al(AlSi3O10)(OH)8 |
| Si | ⓘ Clinozoisite | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| Si | ⓘ Cordierite | Mg2Al4Si5O18 |
| Si | ⓘ Cuprorivaite | CaCuSi4O10 |
| Si | ⓘ Epidote | (CaCa)(AlAlFe3+)O[Si2O7][SiO4](OH) |
| Si | ⓘ Muscovite var. Fuchsite | K(Al,Cr)3Si3O10(OH)2 |
| Si | ⓘ Kaolinite | Al2(Si2O5)(OH)4 |
| Si | ⓘ Muscovite | KAl2(AlSi3O10)(OH)2 |
| Si | ⓘ Papagoite | CaCu[H3AlSi2O9] |
| Si | ⓘ Pennantite | Mn52+Al(AlSi3O10)(OH)8 |
| Si | ⓘ Piemontite | (CaCa)(AlAlMn3+)O[Si2O7][SiO4](OH) |
| Si | ⓘ Plancheite | Cu8(Si8O22)(OH)4 · H2O |
| Si | ⓘ Prehnite | Ca2Al2Si3O10(OH)2 |
| Si | ⓘ Quartz | SiO2 |
| Si | ⓘ Riebeckite | ◻Na2(Fe32+Fe23+)Si8O22(OH)2 |
| Si | ⓘ Sapphirine | Mg4(Mg3Al9)O4[Si3Al9O36] |
| Si | ⓘ Shattuckite | Cu5(Si2O6)2(OH)2 |
| Si | ⓘ Talc | Mg3Si4O10(OH)2 |
| Si | ⓘ Zoisite | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| Si | ⓘ Hornblende Root Name Group | ◻Ca2(C42+C3+)(AlSi7O22)W2 |
| Si | ⓘ Muscovite var. Sericite | KAl2(AlSi3O10)(OH)2 |
| Si | ⓘ Plagioclase | (Na,Ca)[(Si,Al)AlSi2]O8 |
| Si | ⓘ Quartz var. Carnelian | SiO2 |
| Si | ⓘ Garnet Group | X3Z2(SiO4)3 |
| P | Phosphorus | |
| P | ⓘ Fluorapatite | Ca5(PO4)3F |
| P | ⓘ Apatite | Ca5(PO4)3A |
| S | Sulfur | |
| S | ⓘ Anhydrite | CaSO4 |
| S | ⓘ Baryte | BaSO4 |
| S | ⓘ Bornite | Cu5FeS4 |
| S | ⓘ Chalcopyrite | CuFeS2 |
| S | ⓘ Chalcanthite | CuSO4 · 5H2O |
| S | ⓘ Chalcocite | Cu2S |
| S | ⓘ Covellite | CuS |
| S | ⓘ Digenite | Cu9S5 |
| S | ⓘ Molybdenite | MoS2 |
| S | ⓘ Pyrite | FeS2 |
| S | ⓘ Pyrrhotite | Fe1-xS |
| S | ⓘ Sphalerite | ZnS |
| K | Potassium | |
| K | ⓘ Ajoite | (K,Na)Cu7AlSi9O24(OH)6 · 3H2O |
| K | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| K | ⓘ Muscovite var. Fuchsite | K(Al,Cr)3Si3O10(OH)2 |
| K | ⓘ Muscovite | KAl2(AlSi3O10)(OH)2 |
| K | ⓘ Muscovite var. Sericite | KAl2(AlSi3O10)(OH)2 |
| Ca | Calcium | |
| Ca | ⓘ Actinolite | ◻Ca2(Mg4.5-2.5Fe0.5-2.5)Si8O22(OH)2 |
| Ca | ⓘ Anhydrite | CaSO4 |
| Ca | ⓘ Calcite | CaCO3 |
| Ca | ⓘ Clinozoisite | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| Ca | ⓘ Cuprorivaite | CaCuSi4O10 |
| Ca | ⓘ Epidote | (CaCa)(AlAlFe3+)O[Si2O7][SiO4](OH) |
| Ca | ⓘ Fluorapatite | Ca5(PO4)3F |
| Ca | ⓘ Papagoite | CaCu[H3AlSi2O9] |
| Ca | ⓘ Piemontite | (CaCa)(AlAlMn3+)O[Si2O7][SiO4](OH) |
| Ca | ⓘ Prehnite | Ca2Al2Si3O10(OH)2 |
| Ca | ⓘ Tangeite | CaCu(VO4)(OH) |
| Ca | ⓘ Zoisite | (CaCa)(AlAlAl)O[Si2O7][SiO4](OH) |
| Ca | ⓘ Hornblende Root Name Group | ◻Ca2(C42+C3+)(AlSi7O22)W2 |
| Ca | ⓘ Plagioclase | (Na,Ca)[(Si,Al)AlSi2]O8 |
| Ca | ⓘ Apatite | Ca5(PO4)3A |
| Ti | Titanium | |
| Ti | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| V | Vanadium | |
| V | ⓘ Tangeite | CaCu(VO4)(OH) |
| Cr | Chromium | |
| Cr | ⓘ Muscovite var. Fuchsite | K(Al,Cr)3Si3O10(OH)2 |
| Mn | Manganese | |
| Mn | ⓘ Pennantite | Mn52+Al(AlSi3O10)(OH)8 |
| Mn | ⓘ Piemontite | (CaCa)(AlAlMn3+)O[Si2O7][SiO4](OH) |
| Fe | Iron | |
| Fe | ⓘ Actinolite | ◻Ca2(Mg4.5-2.5Fe0.5-2.5)Si8O22(OH)2 |
| Fe | ⓘ Almandine | Fe32+Al2(SiO4)3 |
| Fe | ⓘ Biotite | K(Fe2+/Mg)2(Al/Fe3+/Mg/Ti)([Si/Al/Fe]2Si2O10)(OH/F)2 |
| Fe | ⓘ Bornite | Cu5FeS4 |
| Fe | ⓘ Chalcopyrite | CuFeS2 |
| Fe | ⓘ Epidote | (CaCa)(AlAlFe3+)O[Si2O7][SiO4](OH) |
| Fe | ⓘ Goethite | Fe3+O(OH) |
| Fe | ⓘ Hematite | Fe2O3 |
| Fe | ⓘ Magnetite | Fe2+Fe23+O4 |
| Fe | ⓘ Pyrite | FeS2 |
| Fe | ⓘ Pyrrhotite | Fe1-xS |
| Fe | ⓘ Riebeckite | ◻Na2(Fe32+Fe23+)Si8O22(OH)2 |
| Cu | Copper | |
| Cu | ⓘ Ajoite | (K,Na)Cu7AlSi9O24(OH)6 · 3H2O |
| Cu | ⓘ Azurite | Cu3(CO3)2(OH)2 |
| Cu | ⓘ Bornite | Cu5FeS4 |
| Cu | ⓘ Chalcopyrite | CuFeS2 |
| Cu | ⓘ Chalcanthite | CuSO4 · 5H2O |
| Cu | ⓘ Chalcocite | Cu2S |
| Cu | ⓘ Covellite | CuS |
| Cu | ⓘ Cuprite | Cu2O |
| Cu | ⓘ Cuprorivaite | CaCuSi4O10 |
| Cu | ⓘ Native Copper | Cu |
| Cu | ⓘ Digenite | Cu9S5 |
| Cu | ⓘ Malachite | Cu2(CO3)(OH)2 |
| Cu | ⓘ Papagoite | CaCu[H3AlSi2O9] |
| Cu | ⓘ Plancheite | Cu8(Si8O22)(OH)4 · H2O |
| Cu | ⓘ Shattuckite | Cu5(Si2O6)2(OH)2 |
| Cu | ⓘ Tangeite | CaCu(VO4)(OH) |
| Zn | Zinc | |
| Zn | ⓘ Sphalerite | ZnS |
| Se | Selenium | |
| Se | ⓘ Clausthalite | PbSe |
| Mo | Molybdenum | |
| Mo | ⓘ Molybdenite | MoS2 |
| Ba | Barium | |
| Ba | ⓘ Baryte | BaSO4 |
| Pb | Lead | |
| Pb | ⓘ Clausthalite | PbSe |
Localities in this Region
- Limpopo
- Vhembe District Municipality
- Musina Local Municipality
- Vhembe District Municipality
Other Regions, Features and Areas containing this locality
AfricaContinent
African Plate
- Kalahari Craton
- Limpopo BeltShield
Somali PlateTectonic Plate
South Africa
- ⭔TransvaalProvince
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References
Jacobsen, J. B. E., McCarthy, T. S., Laing, G. J. (1976) The copper-bearing breccia pipes of the Messina district South Africa. Mineralium Deposita, 11 (1) 33-45 doi:10.1007/bf00203093




Musina, Musina Local Municipality, Vhembe District Municipality, Limpopo, South Africa