[1] Peucker E. B., Schnier C., "Investigation of rare earth elements in quartz from the Bavarian Pfahl Germany, by means of instrumental neutron activation analysis", Nuclear Geophysics (1992) 249–260.
[2] Douville E., Bienvenu P., Charlou J. I., "Yttrium and rare earth elements in fluids from various deep-sea hydrothermal systems", Geochimica et Cosmochimica Acta 63 (1999) 627–643.
[3] Xie Q. Q., Xu X. C., Li X. X., Chen T. H., Lu S. M., "Rare earth element geochemistry of Laowan gold deposit in Henan province: Trace to source of ore-forming materials", Journal of Rare Earths 24 (2006) 115–120.
[4] Cao Y., Li S., Yao M., Zhang H., "Significance of quartz REE geochemistry, Shihu gold deposit, western Hebei Province, North China, using LA-ICP-MS", Frontiers Earth Science China (2010) 337–344.
[5] Sarangi S., Srinivasan R., Balaram V., "REE geochemistry of auriferous quartz carbonate veins of Neoarchean Ajjanahalli gold deposit, Chitradurga schist belt, Dharwar Craton, India", Geoscience Frontiers 4 (2013) 231–239.
[6] Cai Y., Zhang Q., Zhang Y., Wang D., Li K., "Sm–Nd dating and rare earth element geochemistry of the hydrothermal calcites from Guling carbonate-hosted talc mineralization in the central Guangxi province, South China", Chinese Journal of Geochemistry 34 (2015) 156–66.
[7] Sverjensky D. A., "Europium redox equilibria in aqueous solution", Earth and Planetary Science Letters 67 (1984) 70–78.
[8] Michard A., "Rare earth element systematics in hydrothermal fluids", Geochimica et Cosmochimica Acta 53 (1989) 745–750.
[9] Bau M., Möller P., "Rare earth element fractionation in metamorphogenic hydrothermal calcite, magnesite and siderite", Contributions to Mineralogy and Petrology 45 (1992) 231–246.
[10] Gammons C. H., Wood S. A., Williams-Jones A. E., "The aqueous geochemistry of the rare earth elements and yttrium: VI. Stability of neodymium chloride complexes from 25 to 300 °C", Geochimica et Cosmochimica Acta 60 (1996) 4615–4630.
[11] Cherniak D. J., "REE diffusion in calcite", Earth and Planetary Science Letters 160 (1998) 273–287.
[12] Heynke U., Leeder O., Schulz H., "On distinguishing quartz of hydrothermal or metamorphogenic origin in different monomineralicveins in the eastern part of Germany", Contributions to Mineralogy and Petrology 46 (1992) 315–329.
[13] Ghaderi M., Yasemi N., Mousavi Motlagh H. A., "Epithermal Deposits of Iran", (2023) 1–860.
[14] Ghalamghash J., Babakhani M., "Geological map of Kahak (scale 1: 100000)", Geological survey of Iran (1998).
[15] Sohrabi Q., "Detailed exploration studies of zinc-lead mining in Shahrestanak, southeast Qom", Kavosh Gostar Arasbaran Company (2021).
[16] Aghanabati A., "Major sedimentary and structural units of Iran (map)", Journal of Geosciences 7 (1998) 29–30.
[17] Rollinson H., "Using geochemical data: Evaluation, presentation, interpretation", Longman Scientific and Technical, Essex, UK (1993) 352p.
[18] Sohbatloo M., Kouhestani H., Mokhtari M .A., "Intermediate-sulfidation epithermal base and precious metal mineralization in the Qebchaq deposit (NW Qarachaman, East Azerbaijan): Geology, mineralization, and geochemical evidence", Journal of Economic Geology 15 (2023) 53–85.
[19] Heidari S. M., Safavi S., "Geology and mineralization of the NE Narbaghi epithermal Cu (Au–Ag) deposit (Saveh)", Advanced Applied Geology (2023) 1–25.
[20] Taylor S. R., McLennan S.M., "The continental crust: Its composition and evolution", Blackwell, Oxford (1985) 312p.
[21] Bau M., Dulski P., "Comparative study of yttrium and rare earth element behaviours in fluorine-rich hydrothermal fluids", Contributions to Mineralogy and Petrology 119 (1995) 213–223.
[22] Uysal I. T., Zhao J. X., Golding S. D., "Sm–Nd dating and rare earth element tracing of calcite: Implications for fluid-flow events in the Bowen Basin, Australia", Chemical Geology 238 (2007) 63–71.
[23] Uysal I. T, Gasparon M., Bolhar R., "Trace element composition of near-surface silica deposits-a powerful tool for detecting hydrothermal mineral and energy resources", Chemical Geology 280 (2009) 154–169.
[24] Elderfield H., Sholkoviz E. R., "Rare earth elements in the pore waters of reducing nearshore sediments", Earth and Planetary Science Letters 82 (1987) 280–288.
[25] Bau M., "Rare earth element mobility during hydrothermal and metamorphic fluid-rock interaction and the significance of the oxidation state of europium", Chemical Geology 93 (1991) 219–230.
[26] Ohmoto H., Ray R. O., "Isotope of sulfur and carbon. In: H.L. Barnes (Editor), Geochemistry of hydrothermal of ore deposits", Wily Interscience, New York (1979) 509–567.
[27] Shanks W.C., "Stable Isotope Geochemistry of Mineral Deposits", In: Treatise on Geochemistry, 2nd ed., Elsevier Ltd (2013).
[28] Li G. Q., Gu X. X., Cheng W. B., Zhang Y. M., Zhang Y., Dai H. Z., Lv P.R., Zhang X. G., Xia B. B., "The analysis of metallogenic material sources of the Zhaxikang antimony (sulfur salts) polymetallic deposits in southern Tibet: Concurrent discussion on the differences of the ore sources of major mineral deposits in north Himalayan metallogenic belt", Earth Science Frontiers 21 (2014) 90–104.
[29] Jiang H., Han J., Chen H., Zheng Y., Zhang W., Lu W., Deng G., Tan Z., "Hydrothermal alteration, fluid inclusions and stable isotope characteristics of the Shaquanzi Fe–Cu deposit, Eastern Tianshan: Implications for deposit type and metallogenesis", Ore Geology Reviews 100 (2018) 385–400.
[30] Li S. N., Ni P., Bao T., Li C. Z., Xiang H. L., Wang G. G., Huang B., Chi Z., Dai B. Z., Ding J. Y., "Geology, fluid inclusion, and stable isotope systematics of the Dongyang epithermal gold deposit, Fujian Province, southeast China: Implications for ore genesis and mineral exploration", Journal of Geochemical Exploration 195 (2018) 16–30.
[31] Chaussidon M., Albarède F., Sheppard S. M., "Sulphur isotope variations in the mantle from ion microprobe analyses of micro-sulphide inclusions", Earth and Planetary Science Letters (1989) 144–156.
[32] Yilmaz H., Oyman T., Sonmez F. N., Arehart G. B., Billor Z., "Intermediate sulfidation epithermal gold-base metal deposits in Tertiary subaerial volcanic rocks, Sahinli/Tespih Dere (Lapseki/Western Turkey)", Ore Geology Reviews 37 (2010) 236–258.
[33] Mango H., Arehart G., Oreskes N., Zantop H., "Origin of epithermal Ag–Au–Cu–Pb–Zn mineralization in Guanajuato, Mexico", Mineralium Deposita 49 (2014) 119–143.
[34] Liu T., Xiong S. F., Jiang S. Y., Li H. L., Chen Q. Z., Jiang H., "Genesis of the Zhijiadi Ag‐Pb‐Zn deposit, central North China Craton: Constraints from fluid inclusions and stable isotope data", Geofluids 1 (2017) 1–16.
[35] Mikaeili K., Hosseinzadeh M.R., Moayyed M., Maghfouri S., "The Shah-Ali-Beiglou Zn-Pb-Cu (-Ag) deposit, Iran: An example of intermediate sulfidation epithermal type mineralization", Minerals 8 (2018) 148.
[36] Hoefs J., "Stable Isotope Geochemistry 7th edition", Springer, Heidelberg (2015) 1–285.
[37] Clark I. D., Fritz P., "Environmental isotopes in hydrogeology", CRC press (2013) 249p.
[38] Kakegawa T., Nanri H., "Sulfur and carbon isotope analyses of 2.7 Ga stromatolites, cherts and sandstones in the Jeerinah Formation, Western Australia", Precambrian Research (2006) 115–24.
[39] Einaudi M. T., Hedenquist J. W., Inan E., "Sulfidation state of fluids in active and extinct hydrothermal systems: Transitions from porphyry to epithermal environments", In: Volcanic, geothermal, and ore-forming fluids: Rulers and witnesses of processes within the Earth, Special Publications of the Society of Economic Geologists (2003) 285–313.
[40] Hedenquist J. W., Arribas R. A., Gonzalez–Urien E., "Exploration for epithermal gold deposits", Reviews in Economic Geology 13 (2000) 245–277.
[41] Gemmell J. B., "Low and intermediate-sulfidation epithermal deposits; ARC-AMIRAP: Canberra, Australia", 24 Ct Gold Workshop, University of Tasmania (2004) 57–63.
[42] Sollitoe R., Hedenquist J., "Linkages between volcanotectonic settings, ore–fluid compositions", In: Society of Economic Geologists: Special Publication (2003) 315–343.
[43] Simmons S. F., White N. C., John D. A., "Geological characteristics of epithermal precious and base metal deposits", Economic Geology 29 (2005) 485–522 .