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2. Koga, N, Mako, A, Kimizu, T, Tanaka, Y 2008 Thermal decomposition of synthetic antlerite prepared by microwave-assisted hydrothermal method. Thermochim Acta 467:11–19 .

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2. Koga, N, Mako, A, Kimizu, T, Tanaka, Y2008Thermal decomposition of synthetic antlerite prepared by microwave-assisted hydrothermal method. Thermochim Acta467:11–1910.1016/j.tca.2007.10.016.)| false
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3. Ramamurthy, P, Secco, EA 1970 Studies on metal hydroxyl compounds. XII. Thermal analyses, decomposition kinetics, and infrared spectra of copper basic oxysalts. Can J Chem 48:3510–3519 .

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3. Ramamurthy, P, Secco, EA1970Studies on metal hydroxyl compounds. XII. Thermal analyses, decomposition kinetics, and infrared spectra of copper basic oxysalts. Can J Chem48:3510–351910.1139/v70-587.)| false
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4. Vilminot, S, Richard-Plouet, M, Andre, G, Swierczynski, D, Guillot, M, Bouree-Vigneron, F, Drillon, M 2003 Magnetic structure and properties of Cu3(OH)4SO4 made of triple chains of spins s = 1/2. J Solid State Chem 170:255–264 .

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4. Vilminot, S, Richard-Plouet, M, Andre, G, Swierczynski, D, Guillot, M, Bouree-Vigneron, F, Drillon, M2003Magnetic structure and properties of Cu₃(OH)₄SO₄ made of triple chains of spins s = 1/2. J Solid State Chem170:255–26410.1016/S0022-4596(02)00081-6.)| false
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5. Pollard, AM, Thomas, RG, Williams, PA 1992 The stabilities of antlerite and Cu3SO4(OH)4·2H2O: their formation and relationships to other copper (II) sulfate minerals. Miner Mag 56:359–365 .

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5. Pollard, AM, Thomas, RG, Williams, PA1992The stabilities of antlerite and Cu₃SO₄(OH)₄·2H₂O: their formation and relationships to other copper (II) sulfate minerals. Miner Mag56:359–36510.1180/minmag.1992.056.384.08.)| false
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6. Silman JFB . The Stabilities of some oxidized copper minerals in aqueous solutions at 25 °C and 1 atmosphere totel pressure. Unpublished Ph.D. Thesis, Harvard University, 1958 (according to Pollard et al. [5]).

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7. Kiseleva, IA, Ogorodova, LP, Topor, ND, Chigareva, OG 1979 Thermochemical investigation of system CaO–MgO–SiO2. Geokhimiya 12:1811–1825 (in Russian).

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8. Robie RA , Hemingway BS. Thermodynamic properties of minerals and related substances at 298.15 K and 1 bar (105 pascals) pressure and at higher temperatures. US Geol Surv Bull. 1995; No. 2131.

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9. Moenke, HH 1962 Mineralspektren Akad. Verlag Berlin.

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10. Peng, Venshi 1982 Infrared spectra of minerals Science Beijing(in Chinese).

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11. Secco, EA 1988 Specroscopic properties of SO4 (and OH) in different molecular and crystalline environments. I. Infrared spectra of Cu4(OH)6SO4, Cu4(OH)4OSO4, and Cu3(OH)4SO4. Can J Chem 66:329–336 .

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11. Secco, EA 1988 Specroscopic properties of SO₄ (and OH) in different molecular and crystalline environments. I. Infrared spectra of Cu₄(OH)₆SO₄, Cu₄(OH)₄OSO₄, and Cu₃(OH)₄SO₄. Can J Chem66:329–33610.1139/v88-057.)| false
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12. Kiseleva, IA, Ogorodova, LP, Melchakova, LV, Bissengalieva, MR, Becturganov, NS 1992 Thermodynamic properties of copper carbonates—malachite Cu2(OH)2CO3 and azurite Cu3(OH)2(CO3)2. Phys Chem Miner 19:322–333 .

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12. Kiseleva, IA, Ogorodova, LP, Melchakova, LV, Bissengalieva, MR, Becturganov, NS1992Thermodynamic properties of copper carbonates—malachite Cu₂(OH)₂CO₃ and azurite Cu₃(OH)₂(CO₃)₂. Phys Chem Miner19:322–33310.1007/BF00204009.)| false
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13. Kotel'nikov, AR, YuK, Kabalov, Zezyulya, TN, Melchakova, LV, Ogorodova, LP 2000 Experimental study of solid solution celestine–barite. Geokhimiya 12:1286–1293 (in Russian).

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14. Kiseleva, IA, Ogorodova, LP 1983 About using of high-temperature calorimetry of solution for determination of enthalpy formation of hydroxyl-bearing minerals (by the example of talc and tremolite). Geokhimiya 12:11745–11755 (in Russian).

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15. Bissengalieva, MR, Bespyatov, MA, Gogol, DB, Taimasova, ST, Tazhibayeva, SD 2010 Low-temperatute heat capacity and thermodynamic functions of antlerite Cu3SO4(OH)4 over the range of 5–320 K. Teplofiz Aerodin 17:815–820 (in Russian).

15. Bissengalieva, MR, Bespyatov, MA, Gogol, DB, Taimasova, ST, Tazhibayeva, SD2010Low-temperatute heat capacity and thermodynamic functions of antlerite Cu₃SO₄(OH)₄ over the range of 5–320 K. Teplofiz Aerodin17:815–820 (in Russian).)| false
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