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Sampleite from Jingemia Cave, Western Australia

Published online by Cambridge University Press:  05 July 2018

P. J. Bridge ,
M. W. Pryce ,
R. M. Clarke  and
M. B. Costello
P. J. Bridge
Affiliation:
Government Chemical Laboratories, 30 Plain Street, Perth, Western Australia, 6000
M. W. Pryce
Affiliation:
Government Chemical Laboratories, 30 Plain Street, Perth, Western Australia, 6000
R. M. Clarke
Affiliation:
Government Chemical Laboratories, 30 Plain Street, Perth, Western Australia, 6000
M. B. Costello
Affiliation:
Government Chemical Laboratories, 30 Plain Street, Perth, Western Australia, 6000
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Summary

Sampleite from Jingemia Cave, Watheroo (30° 16′ S. 116° 00° E.), 190 km north of Perth, Western Australia is derived from the alteration of copper sulphides in contact with guano deposits. Associated minerals are atacamite, weddellite, and gypsum on goethite and manganese-oxide-coated friable quartz rock. Birnessite, halite, dolomite, taranakite, todorokite, apatite, and malachite are also present.

The sampleite occurs as platy spheroidal aggregates to 0·3 mm with D 3·20±0·01, α 1·625 ∥ [010], β and γ 1·674, all ±0·002, α Turquoise Green 41d to Light Blue-Green 39d, β and γ Benzol Green 41 to Venice Green 41b, absorption α < β = γ, 2Vα 5–10°. Chemical analyses are given.

Cu3(PO4)2·3H2O, a corrosion product reported on artifacts, is believed to be sampleite. A further occurrence of sampleite has been recorded from Brookton, 120 km ESE. of Perth. The structurally related mineral lavendulan has been reported from five Western Australian localities.

Type
Research Article
Information
Mineralogical Magazine , Volume 42 , Issue 323 , September 1978 , pp. 369 - 371
Copyright
Copyright © The Mineralogical Society of Great Britain and Ireland 1978

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References

Colby, (J.), 1968. Advan. X-ray Anal. 11, 287–305.Google Scholar
Guillemin, (C.), 1956. Bull. Soc. fr. Mineral. Cristallogr. 79, 219-75.Google Scholar
Hanawalt, (J. D.), Rinn, (W. H.), and Frevel, (L. K.), 1938. Anal. Chem. 10, 457-512. [-M.A. 7-227.]Google Scholar
Hurlbut, (C. S., Jr.), 1942. Am. Mineral. 27, 586-9. [M.A. 8-309. ]Google Scholar
Kleeman, (A. W.) and Milnes, (A. R.), 1973. Trans. Roy. Soc. S.A. 97, 135-7. [M.A. 75-1380.]Google Scholar
Knobler, (R. R.) and Joseph, (W.), 1962. Mining Eng. 14, 40-5.Google Scholar
Montgomery, (A.), 1908. Rpt. State Mining Eng. in Report of West. Aust. Dept. Mines, 66-8.Google Scholar
Otto, (H.), 1959. Freiberger Forsehhft, 66-7.Google Scholar
Otto, (H.), 1961. Naturwiss. 48, 661-4.CrossRefGoogle Scholar
Otto, (H.). 1963. Ibid. 50, 16.Google Scholar
Simpson, (E. S.), 1951. 1952. Minerals of Western Australia, 2, 143; 3, 613-14, Perth, Govt. Print. [M.A. 12-68.]Google Scholar
Woodward, (H. P.), 1912. Bull. Geol. Surv. West. Aust. 48, 22-9.Google Scholar