Journal/NDM46 2011 eng

New Data on Minerals, vol.46, 2011

New Data on Minerals. 2011. Volume 46. 168 pages, 138 photos, drawings and schemes. Publication of Institution of Russian Academy of Sciences, FersmanMineralogicalMuseum RAS.

Summary

This issue includes the articles about new mineral species found from rocks of the Dara-i-Pioz alkaline massif, Tajikistan: byzantievite, Ba, Ca, REE, Ti, and Nb silico-phospho-borate with complex structure and orlovite, titanium analogue of polylithionite, which is a new member of mica group. Rare minerals, rooseveltite and preisingerite from the Oranzhevoye ore f ield, Verkhne-Kalganinsky massif, Magadan region, Russia, mannardite from carbonaceous-siliceous schists, South Kirgizstan and Kazakhstan, and palladoarsenide and mayakite from sulfide of ores of Norilsk field are described. The new data of fahlores and secondary minerals at the Labedinoe deposit, Central Aldan, Li mineralization from the Glubostrovskoye granitic pegmatite, South Urals, and mineralogy of wood tin at the Dzhalinda deposit, Khingan-Oloi tin district are given. The published and novel data of uranium oxides and hydroxides are reviewed. The experimental study of crystallization products of chalcopyrite solid solution was carried out.
In section “Mineralogical museums and collections”, stone-cutting articles of the Peterhof lapidary factory in the collection of the Fersman Mineralogical Museum, Russian Academy of Sciences are described. The other two articles are devoted to the history of first catalogues of the museum collections and the attribution of marble specimens of Florentine marble mosaic and ruin marble involved in the first Mineral catalogue by M.V. Lomonosov. The exhibition “Amazing stone” held in 2011 in the Fersman Mineralogical Museum and the new acquisitions to the museum 2009–2010 are also reported in this section. An article about Yu.L. Orlov, talented mineralogist, the head of the Fersman Mineralogical Museum from 1976 to 1980, is placed in section “Persons”.
A section “Mineralogical notes” briefly informs about the new data of the process of formation of skeletal crystals of calcite from carst cavities, reports bilibinskite from the cementation zone of gold-telluride deposits (Aginskoe, Kamchatka and Pionerskoe, Syan Mountains), and the minerals from metakimberlites of the Udachnaya-Vostochnaya Pipe, Northern Yakutia.
This journal is interest for mineralogists, geochemists, geologists, workers of natural history museums, collectors, and amateurs of stone.

Editorial Board

• Editor in Chief Victor K. Garanin, Doctor in Science, Professor
• Executive Editor Elena A. Borisova, Ph.D.
• Editorial Board Margarita I. Novgorodova, Doctor in Science, Professor,
• Eugeny I. Semenov, Doctor in Science,
• Svetlana N. Nenasheva, Ph.D.,
• Elena N. Matvienko, Ph.D.,
• Marianna B. Chistyakova, Ph.D.,
• Mikhail E. Generalov, Ph.D.

Publishing group

• Photo Michael B. Leybov
• Leader of Publishing group Michael B. Leybov
• Managing Editor Ludmila A. Cheshko
• Art Director Nikolay O. Parlashkevich
• Editor Andrey L. Cheshko
• Design and Layout Ivan A. Glazov
• Translators Maria S. Alferova, Il'ya A. Anisimov, Ivan A. Baksheev, Mark Fed’kun
• Valerii V. Gerasimovskii, Mikhail Povarennykh
• Editors (English Style) Patricia Gray, Frank C. Hawthorne, Peter Modreski

Authorized for printing by Institution of Russian Academy of Sciences, Fersman Mineralogical Museum RAS
Text,photo,drawings andschemes, InstitutionofRussianAcademyof Sciences, Fersman Mineralogical MuseumRAS,2013
Design BRITAN Ltd, 2011

Published by Fersman Mineralogical Museum, BRITAN Ltd Russian Academy of Sciences Box 71 Moscow 117556 Bld. 18/2 Leninsky ProspektMoscow 119071 Russia Phone/fax +7(495) 629G48G12 Phone: +7(495) 952-00-67; fax +7(495) 952-48-50 e-mail: minbooks@inbox.ru e-mail: mineral@fmm.ru www.minbook.com www.fmm.ru

Сontent

New Minerals and Their Varieties, New Finds of Rare Minerals, Mineral Paragenesis

Pautov L.A., Agakhanov A.A., Sokolova E.V., Hawthorne F., Karpenko V.Yu. Byzantievite, Ba₅(Ca,REE,Y)₂₂(Ti,Nb)₁₈(SiO₄)₄[(PO₄),(SiO₄)]₄(BO₃)₉O₂₁[(OH),F]₄₃(H₂O)_1.5, a new mineral, p. 5 - 12

A new silico-phosphate of Ba, Ca, REE, Ti, and Nb found in the Darai-Pioz alkaline massif, Tajikistan, has been named byzantievite because of its complex chemical composition and structure, reminiscent of the complex, but well-organized structure of the Byzantine Empire. The new mineral was discovered on a rock composed of microcline, quartz, aegirine and ferrileakeite; accessory minerals are: calcybeborosilite-(Y), pyrophanite, stillwellite(Ce), danburite, thorite and pyrochlore. The new mineral occurs as tabular grains up to 0.5 x 1.8 mm in size and aggregates of these grains up to 2.5 mm in size. Byzantievite is brown with a pale-yellow streak. Luster is vitreous, slightly greasy on fracture surfaces. Cleavage is not observable; fracture is conchoidal. The Mohs’ hardness is 4.5–5. The mean (10 measurements) microhardness VHN is 486 kg/mm². The measured density is 4.10(3) g/cm³, calculated density is 4.15 g/cm³. Byzantievite is optically negative, uniaxial, ω = 1.940, ε = 1.860 ± 0.005. The new mineral is pleochroic from light brown along ε to very pale brown along ω; absorption is ε >> ω. The symmetry is hexagonal, space group R3, a = 9.128(5); c = 102.1(1) Å; V = 7363 (15) Å3, Z = 3. The crystal structure was solved to R1 = 13.14%. The strong reflections in the X-ray powder – diffraction pattern are (d, Å; I; hkl): 4.02(2)(1 2 12); 3.95(2)(222); 3.112(10)(1 1 24; 1 2 24); 2.982(4)(321; 231); 2.908(2)(1 1 27; 138; 128); 2.885(2)(3 2 10; 2 3 10); 2.632(2)(030); 2.127(2)(0 0 48). The chemical composition is as follows (electron microprobe, average value and range of content of 60 point analyses; B₂O₃ was determined by SIMS; H₂O on the basis of structural data; wt.%): SiO₂ 4.73(3.15–5.84), Nb₂O₅ 10.97 (10.35–12.82), P₂O₅ 3.83(2.64–4.88), TiO₂ 15.21(13.84–16.56), ThO₂ 1.48(1.48–1.88), UO₂ 0.55(0.29–0.35), La₂O₃ 4.01(3.27–4.41), Ce₂O₃ 9.19(6.76–9.73), Nd₂O₃ 3.35(3.42–4.42), Pr₂O₃ 1.02(0.17–1.77), Sm₂O3 0.71 (0.58–1.23), Dy₂O₃ 1.25(1.05–1.30), Gd₂O₃ 0.95(0.68–1.49), Y₂O₃ 7.39(5.21–9.00), B₂O₃ 5.09(4.38–6.12), FeO 0.49(0.48–0.73), BaO 13.30(12.76–14.91), CaO 8.01(5.41–10.31), SrO 1.95(1.08–2.17), Na₂O 0.16 (0.00–0.22), H₂O 6.00, F 1.80(1.30–2.08), O=F (0.76), total is 100.68. The empirical formula, calculated on the basis of 124.5 anions for the grain used for the structure analysis is: Ba_5.05[(Ca_8.99Sr_0.96Fe²⁺_0.42Na_0.10)∑_10.47(Ce_3.46La_1.54Nd_1.20Pr_0.30Sm_0.26Dy_0.41Gd_0.32Th_0.39U⁴⁺_0.17)∑_8.03Y_3.53](Ti_12.31Nb_5.30)∑_17.61(SiO₄)_4.65(PO₄)_3.12 (BO₃)_8.89O_22.16(OH)_38.21F_4.89(H₂O)_1.5. The simplified formula is Ba₅(Ca,REE,Y)₂₂(Ti,Nb)₁₈ (SiO₄)₄[(PO₄),(SiO₄)]₄ (BO₃)₉O₂₁[(OH),F]₄₃(H₂O)_1.5. The compatibility index 0.003 (from calculated density) and -0.009 (from measured density). The type material was deposited in the Fersman Mineralogical Museum, Russian Academy of Sciences, Moscow, Russia. читать далее...

Agakhanov A.A., Pautov L.A., Karpenko V.Yu., Bekenova G.K., Uvarova Y.A. Orlovite, KLi2TiSi4O11F, a new mineral of the mica group, p. 13 - 19

Orlovite is a new mineral of the mica group, the titanium analogue of polylithionite. It was discovered in highly quartz rocks in association with pectolite, baratovite, faizievite, aegirine, polylithionite, leucosphenite, fluorite and other minerals in a moraine of the Darai-Pioz glacier (Tajikistan). The mineral is colourless with a glassy to pearly luster. It occurs in flaky aggregates up to 2 cm in size. Cleavage is perfect along (001). Mohs hardness is 2–3. Density (measured) D_m = 2.91(2) g/cm³, density (calculated) D_c = 2.914 g/cm³. The mineral is optically negative, biaxial, n_p = 1.600, n_m = 1.620, n_g = 1.625, all ± 0.002, 2Vm = 52(2)°, 2Vc = 52.6°. Orlovite is monoclinic, С2, a = 5.199(3)Å; b = 9.068(7)Å; c = 10.070(4)Å; a = 90°, b = 99.35 (2)°, g = 90°, V = 468.4(4)Å3 , Z = 2. The strongest X-ray lines [(d, Å), (I, %), (hkl)]: 9.96 (40) (001), 4.48 (67) (002), 3.87 (40) (111), 3.33 (100) (121), 2.860 (35) (113), 2.600 (28) (130), 2.570 (30) (131), 2.400 (31) (014), 1.507 (20) (206). IR – spectra (the strongest absorption bands) are as follows: 3600, 1130, 1087, 985, 961, 878, 776, 721, 669, 613, 567, 530, 512, 458, 405 cm1. Chemical composition (microprobe, Li₂O, Rb₂O – ICP OES, H2O – SIMS, wt.%): SiO₂ – 58.31, TiO₂ – 18.05, Nb₂O₅ – 0.50, Al₂O₃ – 0.22, FeO – 0.40, MnO – 0.03, K₂O – 11.13, Cs₂O – 0.24, Li₂O – 7.25, Rb₂O – 0.69, H₂O – 0.21, F – 4.35, O=F₂ – 1.83, total – 99.55. The empirical formula of orlovite is (K_0.97Rb_0.03Cs_0.01)_1.01Li_2.00(Ti_0.93Nb_0.02Fe_0.02Al_0.02)_0.99Si₄O_11.04(F_0.94OH_0.10)_1.04. Simplified formula KLi2TiSi4O10(ОF). The mineral is named to honor the well-known Russian mineralogist, doctor of mineralogy Yury Leonidivich Orlov (1926–1980), Director (1976–1980) of the A.E. Fersman Mineralogical museum, RAS, specialist in the mineralogy of diamonds and gem stones, and author of more than 50 works including the classical monographs “Mineralogy of Diamond” and “Morphology of Diamond”. читать далее...

Krinov D.I., Azarova Y.V., Struzhkov S.F., Natalenko M.V., Radchenko Y.I. On the Discovery of Rooseveltite, Preisingerite, Troegerite, and Zeunerite In Bi-As-Cu-U-mineralization from the Oranzhevoye Ore Field, Verkhne-Kalganinsky Massif, Magadan Region, Russia, p. 20 - 24

New data on bismuth, arsenic, uranium and copper minerals (rooseveltite, preisingerite, zeunerite, and tröegerite) obtained with the help of an optical microscope and scanning electron microscope equipped with a Link detector are represented in the article. The minerals were established within Bi-As-Cu-U-mineralization at the Oranzhevoye ore field of the Verkhne-Kalganinsky massif in sulfide-quartz, arsenopyrite-quartz and sulfide-quartz-chlorite veinlets that intersect andesites. The following secondary minerals: scorodite, rooseveltite and preisingerite replace arsenopyrite, bismuthinite, tetradymite, and native bismuth. Uranium minerals – zeunerite and tröegerite – also associate with these minerals. Rooseveltite and preisingerite are established in Russia for the first time. Character of occurrence of rooseveltite and preisingerite indicates that they formed during low-temperature metasomatic (hydrothermal) processes. The established association – arsenopyrite, pyrrhotite, chalkopyrite, and minerals of bismuth (bismuthinite and native bismuth, rooseveltite and preisingerite), tellurium (tetradymite), tin (stannite), gold and silver (tellurides, akanthite, native silver) – allowed to attribute this mineralization to the goldpolysulfide-quartz formation. читать далее...

Karpenko V.Yu., Pautov L.A., Agakhanov A.A., Bekenova G.K. Mannardite from vanadium-bearing schists of Kazakhstan and Central Asia, p. 25 - 33

Mannardite Ba(H₂O)(Ti₆V₂)O₁₆ is found in carbonaceous-siliceous schists of the Karatau Ridge (areas Balacauskandyk and Kurumsak), Kazakhstan, and in the Kara-Chagyr and Kara-Tangi, Southern Kyrgyzstan. At Kara-Tangi, it is present as rare grains 10 micron or less in size in assemblages with quarts, pyrite, chalcopyrite, sphalerite, fluorapatite, nickelalumite, and kyrgyzstanite. At Kara-Chagyr, mannardite occurs as small grains under 10 micron in size in quartz veinlets with pyrite, Ce-phosphate, Ba-V-bearing muscovite, nickelalumite, and ankinovichite. In the Balacauskandyk and Kurumsak areas, it forms grains up to 50 micron and aggregates up to 100 micron and larger in size being present in quartz veinlets with Ba-V-bearing muscovite, chernykhite (Kurumsak), V-bearing rutile, Nd, La, and Y phosphates, barite, and hematite. Mannardite from Balasauskandyk is studied in most detail. The mineral has black colour, deep brown in thin scales, and metallic luster. Micro-hardness measurements (from 5 repeated tests) are averaged at 628 kg/mm² . Density is determined at 4.34(3) g/cm³, by measurement and 4.40 g/cm³ by calculation. Mannardite is anisotropic in reflected light, showing dark-gray color. Unit cell parameters are: а = 14.37(1), c = 5.922(6)Å, V = 1223(2)Å3. Intensive X-ray powder diffraction peaks are as follows: (d, Å; I; hkl): 3.590(4)(400); 3.211(10)(420); 2.844(3)(112); 2.476(7)(312); 2.276(4)(620); 2.227(5)(332); 1.892(5)(352); 1.690(4)(660); 1.592(5)(732). Chemical composition (average by 19 microprobe analyses, wt.%): BaO 20.58; TiO₂ 58.10; V₂O₃ 18.07; Cr₂O₃ 0.40; H₂O(calc.) 1.98; Total 99.13. Empirical formula: Ba_1.10(Ti_5.94V⁺³_1.97 Cr_0.04)O₁₆·0.90H₂O. Mannardite from Kara-Tangi contains up to 2.4 wt.% of Cr₂O₃. Along with micas and sulvanite, mannardite is one of early concentrators of vanadium in these rocks. The majority of mannardite is associated with netted quartz veins, which belong to the type of alpine veins. This article discusses the mechanism of formation of these veins during the regional metamorphism of sediments. читать далее...

Nenasheva S.N., Pautov L.A., Karpenko V.Y. The variety of fahlores and the epigenetic minerals from the Lebedinoe Deposit, p.34 -47

The new results of the mineralogical study of the Lebedinoe deposit are discussed. In addition to Zn-bearing tetrahedrite (sandbergerite), tetrahedrite-tennantite, and tennantite (Nenasheva et al., 2010), Te-bearing fahlores (goldfieldite-tennantite-tetrahedrite, goldfieldite-tennantite, and Te-bearing tennantite-tetrahedrite), tetrahedrite with significant Ag, and anisotropic tetrahedrite-tennantitewere identified. These minerals were found in varied assemblages, whose mineral composition indicate the conditions of ore formation: the composition of mineral-forming fluid, temperature, and pH value. The chalcocite polysomatic series minerals, digenite, anilite, spionkopite, and yarrowite, used as geothermometer were discovered in the ores. читать далее...

Spiridonov E.M., Korotayeva N.N., Kulikova I.M., Mashkina A.A., Zhukov N.N. Palladoarsenide Pd₂As – a Product of Mayakite PdNiAs Destruction in Norilsk Sulfide Ores, p. 48 - 54

The paper describes mineral assemblages and genesis of mayakite and palladoarsenide in magmatic magnetitepentlandite-chalcopyrite ores of the lower horizons of the Mayak Mine (Talnakh Deposit, Norilsk Ore Field). The mayakite studied here contained up to 1.5 wt.% Pt, whereas palladoarsenide contained up to 3 wt.% Cu and up to 2 wt.% Ni that substitute Pd. Microprobe analyses – 9 for mayakite and 4 for palladoarsenide – are presented in the paper. Palladoarsenide forms linear and branching metasomatic veinlets in mayakite and incomplete pseudomorphs after fine mayakite grains. Palladoarsenide is present at the locations where the ores are tectonized and have veinlets and metasomes of chlorite, carbonates, serpentine, anhydrite, makinawite, and magnetite. In these ore formations, ferroaugite is almost completed replaced by chlorite, carbonates, serpentine, and smectites. Possibly, palladoarsenide originated from the epigenetic processes of low-grade metamorphism (zeolite and prehnite-pumpellyite facies), which are widely abundant in the northwest of the East Siberian Plantform, where the Norilsk Ore Field is located. читать далее...

Petrochenkov D.A.,Chistyakova N.I. Mineralogical features of wood tin from the Dzhalinda deposit, Russia, p. 55 - 60

Mineralogy of wood tin from the Dzhalinda deposit located in the Khingan-Olonoy tin district has been studied. The wood tin is reniform aggregates up to 5 cm in size of concentric zoned cassiterite. Significant later quartz filling tiny fractures in cassiterite layers is close intergrown with cassiterite. Microinclusions of dzhalindite were indetifued in wood tin; acanthite, preisingerite (?), native bismuth and thorium-bearing monazitegroup minerals were found at the deposit for the first time. читать далее...

Popova V.I., Kolisnichenko S.V., Muftakhov V.A. Mineralogy of the Glubostrovskoye occurrence of masutomilite on the Southern Urals, p. 61 -70

Glubostrovskoye occurrence is a granite pegmatite with large plates of masutomilite and Li-containing muscovite. Topaz, beryl, manganocolumbite, cassiterite, monazite-(Се), microlite and other accessory minerals also occure there. The structure of the pegmatite is characterized and the data on the morphology and chemical composition of minerals are resulted. The following concentrations of elements are determined in violet and pinkish-violet ferroan masutomilite (crystals are up to 5–20 сm in size) (wt.%): MnO 5.85; Li₂O 3.98; Rb₂O 1.67. Late pinkish beryl is enriched with rare alkalis, monazite-(Ce) – with samarium, zircon – with hafnium. In microlite we have found partial pseudomorphoses of parabariomicrolite on it. These pseudomorphoses contain the following elements (wt.%): BaO 10.10; UO₂ 4.98; Ta₂O₅ 73.60; Nb₂O₅ 5.49; SnO₂ 2.74. It is the first finding in the Urals and in Russia. читать далее...

Chernikov A.A. Simple uranium oxides, hydroxides U⁴⁺ + U⁶⁺, simple and complex uranyl hydroxides in ores, p. 71 - 84

The review of published and new own data of simple uranium oxides revealed that the formation of five simple oxides is probable: nasturan, sooty pitchblende, uraninite, uranothorianite, and cerianite. Among simple oxides, nasturan, sooty pitchblende, and uraninite are the most abundant in ores varied in genesis and mineralogy. Uranothorianite or thorium uraninite (aldanite) is occasional in the ores, while cerianite is believed in U-P deposits of Northern Kazakhstan. Hydrated nasturan is the most abundant among three uranium (IV+VI) hydroxides in uranium ores. Insignificant ianthinite was found in few deposits, whereas cleusonite was indentified only in one deposit. Simple uranyl hydroxides, schoepite, metaschoepite, and paraschoepite, are widespread in the oxidized ores of the near-surface part of the Schinkolobwe deposit. They are less frequent at the deeper levels and other deposits. Studtite and metastudtite are of insignificant industrial importance, but are of great interest to establish genesis of mineral assemblages in which they are observed, because they are typical of strongly oxidized conditions of formation of mineral assemblages and ores. The X-ray amorphous urhite associated with hydrated nasturan and the X-ray amorphous hydrated matter containing ferric iron and U6+ described for the first time at the Lastochka deposit, Khabarovsk krai, Russia are sufficiently abundant uranyl hydroxides in the oxidized uranium ores. Significant complex uranyl hydroxides with interlayer K, Na, Ca, Ba, Cu, Pb, and Bi were found basically at a few deposits: Schinkolobwe, Margnac, Wölsendorf, Sernyi, and Tulukuevo, and are less frequent at the other deposits, where quite large monomineralic segregations of nasturan and crystals of uraninite were identified. In the other cases, uranium is leached from the oxidizing zone down to background, or richer oxidized ores are formed (Sernyi, Rössing, Shakoptar, and Pap deposits). These features of oxidized uranium ores are theoretically and economically important. читать далее...

Crystal Chemistry, Minerals as Prototypes of New Materials, Physical and Chemical Properties of Minerals

Kravchenko T.A. Experimental study of crystallization products of cнalcopyrite solid solution, p. 86 - 92

In order to understand the conditions of formation of cubanite СuFe2S3, talnakhite Cu₉Fe₈S₁₆, mooihoekite Cu9Fe9S16 and haycockite Cu4Fe5S8 in magmatic Cu-Fe ores of the Norilsk type the method of melt cooling from 1150–1100°C up to room temperature and subsequent annealing at 600 and 800°C phase associations of the central part of Cu-Fe-S system have been synthesized: 50 at.% of S, Cu/Fe = 1.22–0.25, 47 at.% S, Cu/Fe = 1.12–0.63 and 45 at.% S, Cu/Fe = 1.44–0.69. According to the received results, cubic cubanite enriched in copper (Cu/Fe і 0.5) crystallizes in associations with tetragonal chalcopyrite Cu1xFe1+xS2 and cubic talnakhite. The new data concerning steady phase equillibriums of mooihoekite with bornite Cu5FeS4 and cubic pc phase of the haycockite composition with cubic cubanite enriched in iron (Cu/Fe Ј 0.5) bornite and pyrrhotite Fe1xS are received. читать далее...

Mineralogical Museums and Collections

Chistyakova M.B. Masterpieces of the Peterhof Cutting Factory in the Fersman Mineralogical Museum of the Russian Academy of Sciences, p. 94 - 113

A brief history of the Peterhof Cutting Factory is documented, the art pieces mastered at the factory and kept in the Fersman Mineralogical Museum are described. читать далее...

Novgorodova D.D. Three catalogues from the Fersman Mineralogical Museum Archive, p. 114 - 122

The first master catalogues of the Mineral Cabinet of the Kunstkamera which became the fundamentals of the collection of the Mineralogical museum of Academy of Science are reviewed in this article. These are: the first printed Mineral Catalogue from 1745 (compiled by I.G. Gmelin, I. Amman and M.V. Lomonosov) and handwritten catalogues from the Mineralogical museum archive – by J.G. Lehmann (1766) and J.G. Georgi (1789). Also the Mineralogical museum archive preserved the Catalogue of the Gottwald’s Museum whose collection was acquired by Peter the Great for the Kunstkamera in 1714. читать далее...

Novgorodova D.D. Samples of Marble Florentine mosaic and Ruin Marbles from collections of the Fersman Mineralogical Museum in the Kunstkamera’s Mineral Catalogue (1745), p. 123 -134

According to the descriptions by M.V. Lomonosov, in the Mineral catalogue of the Kunstkamera 1745, there were identified several specimens, kept in the Fersman Mineralogical museum RAS: five slabs of marble Florentine mosaics with pictures of Tuscany landscapes and, less corresponded, seven slabs of Florentine ruin marble, which are the earliest items in the collection of the Mineralogical museum and the first and the only samples attributed according to the Mineral catalogue of the Kunstkamera 1745. The date of acquisition of Dr. Gottwald’s collection to the Mineral Cabinet of the Kunstkamera – the present Fersman Mineralogical museum RAS – is re-estima ted and refined. читать далее...

Sokolova E.N., Matvienko E.N., Evseev A.A. Exhibition «Wonders in the stone» – 2011, p. 135 - 138

Exhibitions «Wonders in the stone» which are already carried out almost 50 years are one of the most appreciable initiatives of the Society of amateurs attached to the Moscow Society of Naturalists (MOIP). In 2011 the 45-th exhibition «Wonders in the stone» having a subtitle «Remarkable minerals of the Russia» has been organized in the Fersman Mineralogical museum belonging to the Russian Academy of Sciences. читать далее...

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| Авторы = Belakovskiy D.I. New acquisitions to the Fersman Mineralogical museum RAS: the review for 2009–2010 . . . . . . . . . . . . . . . . . . .139 Persons Pavlova T.M. On 85th Anniversary of Yuriy L. Orlov . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .153 Mineralogical Notes Krinov D.I., Azarova Y.V. The new data of the formation of calcite skeletal crystals in karst cavities . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .158 Spiridonov E.M. Bilibinskite, (Au5-6Cu3-2)8(Te,Pb,Sb)5, from the cementation zone of the Aginskoe, Kamchatka and Pionerskoe, Sayan Mountains gold-telluride deposits . . . . . . . . . . . . . . . . . . . . .162 Sokolova E.L., Vorob’ev S.A. Pyrrhotite, pentlandite and hibbingite from metakimberlites of Udachnaya-Vostochnaya Pipe, Northern Yakutia . . . . . . .165