Минералогический Музей им. А.Е. Ферсмана
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Journal/NDM51 2016 engl — различия между версиями

(Новая страница: «thumb|350px|right|New Data on Minerals, Volume 51, 2016 '''New Data on Minerals. Volume 51, 2016,''' 160 pages, 166 photos, drawings,…»)
 
(Summary)
 
(не показано 9 промежуточных версий этого же участника)
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The issue is dedicated to the 300th anniversary of the Fersman Mineralogical Museum of RAS, and scientific sections precede greeting to the museum and its employees from the Department of Earth Sciences of the Russian Academy of Sciences and introductory article by the director of the museum and the editor-in-chief of the journal, Dr. med. P.Yu. Plechova.<br>
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Volume 51 is dedicated to the 300th anniversary of the Fersman Mineralogical Museum of RAS, and scientific sections precede greeting to the museum and its employees from the Department of Earth Sciences of the Russian Academy of Sciences and introductory article by the director of the museum and the editor-in-chief of the journal, Dr. med. P.Yu. Plechova.<br>
 
The first section contains a description of the new iron sulfide and elements of the platinum group - ferodsite, discovered in the Nizhny Tagil ultrabasic massif (Urals) and in the Conder placer (Khabarovsk Territory), and also of the supposedly new uranium phase - calcium titanosilicate, found in samples from Aldan deposits and Novokonstantinovskoye deposits (Ukraine). Unusual endogenous Association of non-sulfide minerals of chalcophilic elements from the Pelagonian massif (Macedonia), Ni-Zn-containing folbortite (“Uzbekite”) from vanadium shales of Southern Kyrgyzstan, rare silicides (nagchuit, lingzhiit, lobusait and collet) from the Sarmatian limestones of Crimea. New data on minerals of the Shishim mine in the South Urals, biominerals of lateritic bauxites, diamondiferous kimberlites and metakimberlites of Kimozero, Karelia.<br>
 
The first section contains a description of the new iron sulfide and elements of the platinum group - ferodsite, discovered in the Nizhny Tagil ultrabasic massif (Urals) and in the Conder placer (Khabarovsk Territory), and also of the supposedly new uranium phase - calcium titanosilicate, found in samples from Aldan deposits and Novokonstantinovskoye deposits (Ukraine). Unusual endogenous Association of non-sulfide minerals of chalcophilic elements from the Pelagonian massif (Macedonia), Ni-Zn-containing folbortite (“Uzbekite”) from vanadium shales of Southern Kyrgyzstan, rare silicides (nagchuit, lingzhiit, lobusait and collet) from the Sarmatian limestones of Crimea. New data on minerals of the Shishim mine in the South Urals, biominerals of lateritic bauxites, diamondiferous kimberlites and metakimberlites of Kimozero, Karelia.<br>
 
The section "Mineralogical museums and collections" contains articles on the history of collections in collection of the Fersman Mineralogical Museum  and about one of such collections collected by I. Wagner, as well as about the new museum exhibition “Minerals of crystal-bearing quartz veins”.<br>
 
The section "Mineralogical museums and collections" contains articles on the history of collections in collection of the Fersman Mineralogical Museum  and about one of such collections collected by I. Wagner, as well as about the new museum exhibition “Minerals of crystal-bearing quartz veins”.<br>
“Mineralogical notes” tell about one of the historical museum exhibits from the collection Wagner - quartz with an engraved pattern on it.<br>
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The section “Mineralogical notes” tells about one of the historical museum exhibits from the collection Wagner - quartz with an engraved pattern on it.<br>
 
"Personalities" include an article on the scientific keeper of the Imperial Mineralogical Museum Academy of Sciences (1887–1896) E.V. Toll, who led the Russian polar expedition of 1900–1902. The issue closes with a note on the scientific conference held at the Mineralogical Museum dedicated to its 300th anniversary (November 2016, Moscow).<br>
 
"Personalities" include an article on the scientific keeper of the Imperial Mineralogical Museum Academy of Sciences (1887–1896) E.V. Toll, who led the Russian polar expedition of 1900–1902. The issue closes with a note on the scientific conference held at the Mineralogical Museum dedicated to its 300th anniversary (November 2016, Moscow).<br>
 
This journal is of interest for mineralogists, geochemists, geologists, staff of natural history museums, collectors, and rocks aficionados.
 
This journal is of interest for mineralogists, geochemists, geologists, staff of natural history museums, collectors, and rocks aficionados.
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===== Editorial Board =====
 
===== Editorial Board =====
 
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| Файл =  
 
| Файл =  
 
}} {{NDM_article
 
}} {{NDM_article
| Авторы = Глико А.О.
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| Авторы = Gliko A.O.
| Название = Минералогическому музею им. А.Е. Ферсмана Российской академии наук 300 лет. Приветствие к 300-летию музея от академика-секретаря ОНЗ РАН
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| Название = 300 years of the Fersman Mineralogical Museum of Russian Academy of Sciences. Greetings to the 300th anniversary of the museum from the academician-secretary of the Department of Earth Sciences of Russian Academy of Sciences.
| Аннотация = Дорогие сотрудники Музея, Отделение наук о Земле РАН от души поздравляет Вас с ТРЕХСОТЛЕТИЕМ!!
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| Аннотация = The Department of Earth Sciences of Russian Academy of Sciences wholeheartedly congratulates with the 300th anniversary! We must remember the main stages of the history of the Museum. In 1716, in the Kunstkamera founded by Peter the Great, the Mineralogical Cabinet was created. It became the part of the Geological Museum of the Russian Academy of Sciences.
Нельзя не вспомнить основные этапы истории Музея. В далеком 1716 году в основанной императором Петром I Кунсткамере
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| Файл =  
был создан Минеральный кабинет, который при создании Российской академии наук стал ее неотъемлемой частью. В составе Геологического музея
 
| Файл = NDM51_2016_Gliko.pdf
 
 
}}
 
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====Новые минералы и их разновидности, новые находки редких минералов, минеральные парагенезисы====
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==== '''Issue 1''' New minerals and their varieties, new finds of rare minerals, mineral paragenesis====
 
{{NDM_article
 
{{NDM_article
| Авторы = Бегизов В.Д., Завьялов Е.Н.
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| Авторы = Begizov V.D., Zavyalov E.N.  
| Название =Феродсит (Fe,Rh,Ir,Ni,Cu,Pt,Co)9-xS8–новый минерал из Нижнетагильского ультраосновного массива
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| Название = Ferodsit (Fe, Rh, Ir, Ni, Cu, Pt, Co) 9-xS8 is a new mineral from the Nizhny Tagil ultrabasic massif
| Аннотация = Феродсит обнаружен в коренных породах Нижнетагильского ультраосновного массива (Урал) и в россыпи Кондёр (Хабаровский край). Новый минерал находится в срастании и ассоциации с минералами группы Pt-Fe, чендеитом и сульфидами платиновых металлов.Минерал черный с бронзовым оттенком, металлическим блеском, совершенной спайностью по (111). Размеры зерен в основном 10–50 мкм, сростки до
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| Аннотация = Ferodsite was found in bedrock of the Nizhny Tagil ultrabasic massif (Urals) and in the Conder placer (Khabarovsk Territory). The new mineral is in intergrowth and association with Pt-Fe minerals, chendeite and platinum sulfides. The mineral is black with a bronze hue, metallic luster, perfect cleavage according to (111). Grain sizes are mainly 10–50 μm, splices up to 100 μm. In reflected light, light, brownish-gray, slight birefringence. The chemical composition corresponds to the formula (Fe, Rh, Ni, Ir, Cu, Pt) 9xS8, where x varies from 0 to 1. Syngony is tetragonal, a = 10.009 (5) Å, c = 9.840 (8) Å, V = 985.78 ( 9) Å3, Z = 4. A sample with ferodsite is stored in the Mineralogical Museum named after A.E. Fersman RAS. The article has 3 tables, 1 figure, a list of references from one name.<br>
100 мкм. В отраженном свете светлый, коричневато-серый, слабое двуотражение. Химический состав отвечает формуле (Fe,Rh,Ni,Ir,Cu,Pt)9xS8, где х колеблется от 0 до 1. Сингония тетрагональная, а=10.009(5)Å, с = 9.840(8)Å, V = 985.78(9)Å3, Z = 4. Образец с феродситом хранится в Минералогическом музее им. А.Е. Ферсмана РАН.
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'''Key words:''' ferodsite, platinum minerals, Nizhny Tagil ultrabasic massif, Conder.  
В статье 3 таблицы, 1 рисунок, список литературы из одного названия.
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| Файл =  
Ключевые слова: феродсит, платиновые минералы, Нижнетагильский ультраосновной массив, Кондёр.
 
| Файл = NDM51_2016_Zavialov.pdf
 
 
}}{{NDM_article
 
}}{{NDM_article
| Авторы = Ермолаева В.Н., Чуканов Н.В., Янчев С., Ван К.В.
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| Авторы = Ermolaeva V.N., Chukanov N.V., Yanchev S., Van K.V.
| Название =Эндогенный парагенезис несульфидных минералов халькофильных элементов в орогенной зоне «Смешанной серии» Пелагонийского массива,Македония
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| Название = Endogenous paragenesis of non-sulfide minerals of chalcophilic elements in the orogenic zone of the “Mixed Series” of the Pelagonian Massif, Macedonia
| Аннотация = Получены новые данные о специфической метасоматической ассоциации оксидных минералов, содержащих халькофильные элементы, из метасоматических пород орогенной зоны «Смешанной серии» метаморфического комплекса, расположенного в Пелагонийском массиве, Македония. Основываясь на соотношениях минеральных фаз, выявлен следующий порядок последовательности образования минералов:
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| Аннотация = New data on the specific metasomatic association of oxide minerals containing chalcophilic elements from metasomatic rocks of the orogenic zone of the “Mixed Series” metamorphic complex located in the Pelagonian massif, Macedonia are obtained. Based on the ratios of the mineral phases, the following order of the sequence of formation of minerals is revealed:
цинкохромит+циркон+Zn-содержащий тальк+барит-> франклинит+гетеролит-> ганит -> ромеит + альмейдаит -> Fe3+-аналог цинкохёгбомита -> феррикоронадит + Mn-аналог плюмбоферрита. В процессе метасоматического преобразования в высокоокислительных условиях последовательный привнос Zn, Al, Sb и Pb привел к формированию цинковых шпинелидов (в том числе ганита, замещающего франклинит и гетеролит), Sb-содержащего железного аналога цинкохёгбомита (эпитаксия на цинковых шпинелидах) и феррикоронадита (поздние гидротермальные прожилки). Привнос As происходил в 2 этапа.
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zincochromite + zircon + Zn-containing talcum powder + barite-> franklinite + heterolith-> ganite -> romeite + almeidaite -> Fe3 + analogue of zincheggombite -> ferricoronadite + Mn-analog of plumboferrite. In the process of metasomatic conversion under highly oxidizing conditions, the sequential addition of Zn, Al, Sb, and Pb led to the formation of zinc spinelids (including ganite, replacing franklinite and heterolith), the Sb-containing iron analog of zincheggombite (epitaxy on zinc spinelides), and ferricoronadal (late hydrotherm streaks). The introduction of As occurred in 2 stages.<br>
| Файл = NDM51_2016_Ermolaeva.pdf}} {{NDM_article
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'''Key words:''' mineralogenesis, chalcophilic elements, “Mixed Series”, ganite, franklinite, heterolith, hogbomite, Pelagonian massif, Macedonia.
| Авторы = Карпенко В.Ю., Паутов Л.А., Агаханов А.А.
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| Файл =  
| Название =О Ni-Zn-содержащем фольбортите («узбеките») из ванадиеносных сланцевЮжной Киргизии
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}} {{NDM_article
| Аннотация =Приведены результаты переизучения «узбекита» – водного ванадата меди, описанного впервые на Кара-Чагыре,Киргизия, на материале из фондов Минералогического музея им. А.Е.Ферсмана РАН(Москва) и сборов авторов. «Узбекит» с Кара-Чагыра идентифицирован как фольбортит с повышенными содержаниями цинка и никеля (мас.%): ZnO до 5.2 (среднее ~ 1.0–2.5); NiO до 2.4 (среднее ~ 0.5–2.0).Повышенные
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| Авторы = Karpenko V.Yu., Pautov L.A., Agakhanov A.A.
содержания Zn и Ni встречены также в фольбортите на U-месторождении Кара-Танги, Киргизия. Приведены микрозондовые анализы фольбортита из Киргизии и с хребта Каратау, Казахстан, и содержание воды для некоторых образцов. Описаны кристаллы различной морфологии: пластинчатые, скелетные, образующие решетки сагенитового типа, и необычные игольчатые.
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| Название = About Ni-Zn-containing folbortite (“Uzbekite”) from vanadium schists of South Kyrgyzstan
Приведены порошкограммы для пластинчатых и игольчатых кристаллов; параметры ячейки их соответственно: a = 10.620(2), b = 5.893(2), c = 7.213(2)Å; b = 94.96(2)°; V = 449.7(4)Å3, Z = 2 и a = 10.616(2), b = 5.899(2), c=7.212(2) Å; b=94.96(2)°; V=450.0(4)Å^3, Z=2. Показано, что «узбекит» из других местонахождений является либофольбортитом (Потехино, Хакасия, Россия), либо таковым в смеси с другими минералами (футляровидные кристаллы тангеита, заполненные смесью везиньеита и фольбортита из Агалыка, Узбекистан). Высказано предположение о существовании близких к фольбортиту, но отличных от него по структуре фаз.
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| Аннотация = The results of the re-study of "Uzbekite" - water copper vanadate, described for the first time in Kara-Chagyr, Kyrgyzstan, based on materials from the funds of the Fersman Mineralogical Museum of RAS (Moscow) and authors` fees. “Uzbekit” from Kara-Chagyr was identified as folbortite with high contents of zinc and nickel (wt.%): ZnO up to 5.2 (average ~ 1.0–2.5); NiO up to 2.4 (average ~ 0.5–2.0). Elevated Zn and Ni contents were also found in folwortite at the U-deposit Kara-Tangi, Kyrgyzstan. Microprobe analyzes of folbortite from Kyrgyzstan and from the Karatau ridge, Kazakhstan, and water content for some samples are presented. Crystals of various morphology are described: lamellar, skeletal, forming sagenite type lattices, and unusual needle ones. Powder patterns for lamellar and needle crystals are given; their cell parameters, respectively: a = 10.620 (2), b = 5.893 (2), c = 7.213 (2) Å; b = 94.96 (2) °; V = 449.7 (4) Å3, Z = 2 and a = 10.616 (2), b = 5.899 (2), c = 7.212 (2) Å; b = 94.96 (2) °; V = 450.0 (4) Å ^ 3, Z = 2. It was shown that “Uzbekite” from other locations is either folbortite (Potekhino, Khakassia, Russia), or it is mixed with other minerals (case-like crystals of tangeite filled with a mixture of vesigneite and folbortite from Agalyk, Uzbekistan). An assumption was made of the existence of phases close to folbortite, but different in structure.<br>
| Файл = NDM51_2016_Karpenko.pdf}} {{NDM_article
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'''Key words:''' folbortite, Uzbekite, nickel alumite, vanadium schists, Kara Chagyr.
| Авторы = Тищенко А.И., Касаткин А.В.,Шкода Р.
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| Файл =  
| Название = Силициды (нагчуит, линьчжиит, лобусаит и цангпоит) в сарматских известняках Крыма
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}} {{NDM_article
| Аннотация = Нагчуит, линьчжиит, лобусаит и цангпоит были найдены в порошковатом, нерастворимом в разбавленной
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| Авторы = Tishchenko A.I., Kasatkin A.V., Skoda R.
HCl остатке темно-серого цвета из органогенно-обломочного известняка Евпаторийского месторождения
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| Название = Silicides (nagchuit, lingzhiit, lobusait and collet) in the Sarmatian limestones of Crimea
(Крым). Среди зерен силицидов преобладают нагчуит и линьчжиит, в подчиненном количестве встречается лобусаит. Нагчуит и линьчжиит часто срастаются, образуя зерна размером до 120 мкм. Лобусаит наблюдается в виде отдельных редких зерен размером до 100 мкм. Цангпоит обнаружен в трех зернах размером до 15 мкм в тесном срастании с линьчжиитом. Tакже отмечены единичные зерна самородного кремния,
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| Аннотация = Nagchuit, lingzhiit, lobusaite and collet were found in a powdery, insoluble in HCl diluted residue of a dark gray color from organogenic clastic limestone of the Evpatoria deposit (Crimea). Among the silicide grains, nagchuit and lingzhiite predominate; lobusaite is found in subordinate quantities. Nagchuit and lingzhiit often grow together, forming grains up to 120 microns in size. Lobusaite is observed in the form of individual rare grains up to 100 microns in size. Tsangpoit was found in three grains up to 15 microns in size in close intergrowth with lingzhiit. Single grains of native silicon, presumably panguitite and unnamed Ti and W silicide, were also noted. The chemical composition (wt.%, Microprobe) of nagchuita (average of 9 anal.): Al 0.11, Ti 0.01, V 0.09, Cr 0.15, Mn 0.54, Fe 63.25 , Co 0.35, Ni 0.61, Cu 0.10, Zn 0.17, Zr 0.26, Si 33.63, sum 99.27, corresponds to the empirical formula (calculation for 2 atoms) Fe0.96Mn0.01Co0.01Ni0.01Si1.01; lingzhiita (average of 8 ann.): Al 1.83, V 0.03, Cr 0.09, Mn 0.23, Fe 46.54, Co 0.23, Ni 0.04, Zr 0.18, Si 49.94, sum 99.11, corresponds to the empirical formula (calculation for 3 atoms) Fe0. 93Al0.08Si1.99; lobusaite (average of 4 ann.): Al 1.20, V 0.06, Cr 0.15, Mn 0.11, Fe 42.60, Ni 0.10, Zr 0.73, Si 54.71, sum 99.66, corresponds to the empirical formula (calculation for 2 Si atoms) Fe0.78Al0. 05Zr0.01Si2.00; collet (average of 3 ann.): Mg 0.06, Al 1.05, Ca 0.12, Sc 0.05, Ti 24.58, V 0.36, Cr 0.43, Mn 0.36, Fe 31.49, Co 0.18, Ni 0.44, Cu 0.22, Zn 0.03, Zr 3.50 , Nb 0.58, Mo 0.55, Cd 0.12, In 0.11, Sn 0.09, Cs 0.21, W1.97, Si 32.70, sum 99.20, corresponds to the empirical formula (calculation for 4 atoms) Ti0.86Zr0.07W0.02V0.01Nb0.01Mo0. 01Fe0.94Ca0.01Cr0.01Mn0.01Co0.01Ni0.01Cu0.01Si1.95Al0.07. Diagnostics of nagchuit, lingzhiit and lobusaite is confirmed by x-ray; for other minerals, due to their rarity and small size, X-ray characteristics were not obtained. Lobusaite and zangpoite were the first in Russia, and they were first found in the Crimea and Linguiite.<br>
предположительно паньгуита и неназванного силицида Ti иW.Химический состав (мас.%,микрозонд) нагчуита (среднее по 9 ан.): Al 0.11, Ti 0.01, V 0.09, Cr 0.15,Mn 0.54, Fe 63.25, Co 0.35, Ni 0.61, Cu 0.10, Zn 0.17, Zr 0.26, Si 33.63, сумма 99.27, соответствует эмпирической формуле (расчет на 2 атома) Fe0.96Mn0.01Co0.01Ni0.01Si1.01; линьчжиита (среднее по 8 ан.): Al 1.83, V 0.03, Cr 0.09,Mn 0.23, Fe 46.54, Co 0.23, Ni 0.04, Zr 0.18, Si 49.94, сумма 99.11, отвечает эмпирической формуле (расчет на 3 атома) Fe0.93Al0.08Si1.99; лобусаита (среднее по 4 ан.): Al 1.20, V 0.06, Cr 0.15,Mn 0.11, Fe 42.60, Ni 0.10, Zr 0.73, Si 54.71, сумма 99.66, соответствует эмпирической формуле (расчет на 2 атома Si) Fe0.78Al0.05Zr0.01Si2.00; цангпоита (среднее по 3 ан.):Mg 0.06, Al 1.05,Ca
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'''Key words:''' silicides, nagchuit, lingzhiit, lobusaite, collet, native silicon, panguit, Sarmatian region-tier, Evpatoria deposit, Crimea.  
0.12, Sc 0.05, Ti 24.58, V 0.36, Cr 0.43, Mn 0.36, Fe 31.49, Co 0.18, Ni 0.44, Cu 0.22, Zn 0.03, Zr 3.50, Nb 0.58, Mo
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| Файл =  
0.55, Cd 0.12, In 0.11, Sn 0.09, Cs 0.21,W1.97, Si 32.70, сумма 99.20, отвечает эмпирической формуле (расчет
 
на 4 атома) Ti0.86Zr0.07W0.02V0.01Nb0.01Mo0.01Fe0.94Ca0.01Cr0.01Mn0.01Co0.01Ni0.01Cu0.01Si1.95Al0.07. Диагностика нагчуита,
 
линьчжиита и лобусаита подтверждена рентгенометрически; для других минералов в силу их редкости и
 
малого размера рентгеновские характеристики получены не были.Находка лобусаита и цангпоита является первой в России, нагчуит и линьчжиит впервые найдены в Крыму.
 
| Файл = NDM51_2016_Tishenko.pdf
 
 
}} {{NDM_article
 
}} {{NDM_article
| Авторы = Кринов Д.И., Салтыков А.С., Дымков Ю.М., Азарова Ю.В., Кольцов В.Ю.
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| Авторы = Krinov D.I., Saltykov A.S., Dymkov Yu.M., Azarova Yu.V., Koltsov V.Yu.  
| Название = О кальциевом титаносиликате урана и его значении для технологической переработки урановых руд
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| Название = On calcium uranium titanosilicate and its significance for the technological processing of uranium ores
| Аннотация = При изучении образцов из различных урановых месторождений Алдана (Эльконский золото-урановый рудный узел) и месторождения Новоконстантиновское (Украина) был обнаружен минерал с составом: UO2 » 58–62%; CaO » 5–7%; TiO2 » 18–22%; SiO2 » 10–11%, который может быть описан идеализированной формулой Ca(U,Ca)3Ti3[SiO4]2(O,OH)8 (рассчитана на 16 атомов кислорода). Он установлен в брекчиях
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| Аннотация = When studying samples from various uranium deposits of Aldan (Elkonsky gold-uranium ore cluster) and the Novokonstantinovskoye deposit (Ukraine), a mineral was discovered with the composition: UO2 »58–62%; CaO 5-7%; TiO2 »18–22%; SiO2 »10–11%, which can be described by the idealized formula Ca (U, Ca) 3Ti3 [SiO4] 2 (O, OH) 8 (calculated for 16 oxygen atoms). It was established in breccias with carbonate cement of various compositions developed in quartz-feldspar metasomatites in the form of microgranular clusters and clusters of prismatic crystals (10–50 μm) in breccia cement. Sometimes it performs cracks in veins of glandular dolomite in polyphase breccias. Energy dispersive spectra showed the absence of superposition of the lines of the studied phase and associated minerals. The chemical composition was determined using a CamScan electron scanning microscope with a Link spectrometer and AN10000 analyzer. The results obtained allow us to consider this mineral as a potentially new mineral species, conventionally called "calcium uranium titanosilicate." The mineral was formed in association with glandular dolomite, siderite and / or ankerite. Probably, his education preceded brannerite. The mineral fraction in the uranium component of ores is 20–80%, that is, “calcium uranium titanosilicate” is one of the main ore minerals in the considered objects. The prevalence of it and other calcium-containing ore minerals in the studied ores, as well as the presence of a carbonate component in them, makes it necessary to modernize the methods for extracting useful components from them. The use of circulating volumes of solutions, the absence of the need for additional enrichment and other measures will positively affect the economic and environmental performance of production. <br>
с карбонатным цементом различного состава, развитых по кварц-полевошпатовым метасоматитам в виде микрозернистых скоплений и скоплений призматических кристаллов (10–50 мкм) в цементе брекчий.
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'''Key words:''' uranium calcium titanosilicate, brannerite, potassium feldspar, quartz ore breccia, uranium ores, Elkon gold uranium ore cluster, Elkon deposit, Neprozhimoe deposit, Novokonstantinovskoye deposit.
Иногда выполняет трещины в прожилках железистого доломита в полифазных брекчиях. Энергодисперсионные спектры показали отсутствие наложения линий изучаемой фазы и сопутствующих минералов. Химический состав был определен с помощью электронного сканирующего микроскопа CamScan со спектрометром Link и анализатором AN10000.Полученные результаты позволяют рассматривать данный минерал как потенциально новый минеральный вид, условно названный «кальциевым титаносиликатом урана». Минерал формировался в ассоциации с железистым доломитом, сидеритом и/или анкеритом. Вероятно, его образование предшествовало браннериту. Доля минерала в урановой составляющей руд – 20–80%, то есть «кальциевый титаносиликат урана» является одним из основных рудных минералов в рассмотренных объектах. Распространенность его и других кальцийсодержащих рудных минералов в изученных рудах, как и наличие карбонатной составляющей в них, делает необходимой модернизацию методов извлечения из них полезных компонентов. Применение оборотных объемов растворов, отсутствие необходимости дополнительного обогащения и другие меры положительно скажутся на экономических и экологических показателях производства.
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| Файл =
| Файл = NDM51_2016_Krinov.pdf
 
 
}}{{NDM_article
 
}}{{NDM_article
| Авторы = Ненашева С.Н., Агаханов А.А.
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| Авторы = Nenasheva S.N., Agakhanov A.A.
| Название = Новые данные о минералах Шишимской копи,Шишимские горы,Южный Урал, Россия
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| Название = New data on minerals of the Shishim mine, Shishim mountains, Southern Urals, Russia
| Аннотация = образцах скарна из Шишимской копи (Ю. Урал) установлены новые для нее минералы: таумасит Ca3(SO4)[Si(OH)6](CO3)·12H2O, описанный на Урале только в Николае-Максимилиановской копи; известь CaO, известную на Гумешевском месторождении и в горелых отвалах Челябинского угольного бассейна; ферроакерманит Ca2Fe[Si2O7], ранее не встречавшийся в природе, но известный как синтетический продукт. Кроме того, обнаружены новые минеральные фазы: фаза АMg10[(Si6.6Al3.4)10O28]·8.6H2O и фаза Х с эмпирической формулой (Ca1.98V0.02)2.00(OH)0.86(PO4)0.86(Si2O7)0.07(SO4)0.14Cl0.03. Ферроакерманит – железистый аналог акерманита Ca2Mg[Si2O7]–минерала группы мелилита. Ранее минералы этой группы не встречались на Урале. Перечисленные новые для Шишимской копи минералы и минеральные фазы находятся в тесных срастаниях друг с другом и с уже известными на этой копи кальцитом, монтичеллитом, форстеритом, диопсидом, хондродитом, перовскитом, кордиеритом, магнезиоферритом и другими минералами.  
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| Аннотация = The new minerals were found in skarne samples from the Shishimsky mine (South Ural): thaumasite Ca3 (SO4) [Si (OH) 6] (CO3) · 12H2O, described in the Urals only in the Nikolai-Maximiliansky mine; CaO lime, known at the Gumeshevsky deposit and in the burnt dumps of the Chelyabinsk coal basin; ferroacermanite Ca2Fe [Si2O7], not previously encountered in nature, but known as a synthetic product. In addition, new mineral phases were discovered: the AMg10 phase [(Si6.6Al3.4) 10O28] · 8.6H2O and the phase X with the empirical formula (Ca1.98V0.02) 2.00 (OH) 0.86 (PO4) 0.86 (Si2O7) 0.07 ( SO4) 0.14Cl0.03. Ferroacermanite is a ferruginous analogue of ackermanite Ca2Mg [Si2O7], a mineral of the melilite group. Earlier, minerals of this group were not found in the Urals. The listed minerals and mineral phases new for the Shishimsky mine are in close intergrowth with each other and with calcite, monticellite, forsterite, diopside, chondrodite, perovskite, cordierite, magnesioferrite and other minerals already known on this mine.<br>
| Файл = NDM51_2016_Nenasheva.pdf
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'''Key words:''' Shishimsky mine, thaumasite, lime, ferroakermanite, new mineral phases.
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| Файл =  
 
}}{{NDM_article
 
}}{{NDM_article
| Авторы = Слукин А.Д., Боева Н.М.,Жегалло Е.А., Зайцева Л.В.
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| Авторы = Slukin A.D., Boeva ​​N.M., Zhegallo E.A., Zaitseva L.V.
| Название = Биоминералы латеритных бокситов – новые данные по результатам электронно-микроскопического изучения
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| Название = Laterite bauxite biominerals - new data from electron microscopic studies
| Аннотация =  Систематическое исследование латеритных бокситов с помощью электронных микроскопов обнаружило обильные продукты взаимодействия органического вещества (биоты) и минералов. Получены новые данные о минерализации в тропических условиях водорослевых отложений, древесины, корневой системы растительности, биопленок и бактерий и последовательном их превращении в биоморфозы, совершенные
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| Аннотация =  A systematic study of lateritic bauxite using electron microscopes revealed abundant products of the interaction of organic matter (biota) and minerals. New data were obtained on the mineralization in tropical conditions of algal deposits, wood, the root system of vegetation, biofilms and bacteria and their subsequent transformation into biomorphoses, perfect crystals of goethite, hematite, gibbsite, calcite and bizarre forms of psilomelan. Unique photographs demonstrate the ground products of the digestive tract of digging and crawling organisms and the single prismatic Gibbsite crystals formed from them, and then their mass development. It has been established that monomineral gibbsite is crystallized in the passages and burrows of worms in bauxites. In the free spaces of large pores and caverns on the surface of biofilms, similar products turn into a mixture of gibbsite, hematite, calcite, in some places, halloysite and psilomelan. Undoubtedly, the composition of mineral associations is affected by microlocal conditions and the influx of calcium, silicon, and other chemical elements with capillary waters during dry seasons. Biomineralization products are microscopic in size, but they have universal and global significance for all weathering crusts (especially tropical ones) and the associated sedimentary deposits of bauxite, iron and manganese ores, kaolin and bentonite.<br>
кристаллыгётита, гематита, гиббсита, кальцита и причудливые формы псиломелана. Уникальные фотографии демонстрируют перемолотые продукты пищеварительного тракта роющих и ползающих организмов и образовавшиеся из них одиночные призматические кристаллы гиббсита, а затем их массовое развитие.
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'''Key words:''' biominerals, biofilms, biomorphoses, burrowing organisms, bauxite, gibbsite, hematite, psilomelan, calcite.
Установлено, что в ходах и норах червей в бокситах кристаллизуется мономинеральный гиббсит. В свободных пространствах крупных пор и каверн на поверхности биопленок подобные продукты превращаются в смесь гиббсита, гематита, кальцита, местами, галлуазита и псиломелана. Несомненно, на состав минеральных ассоциаций влияют микролокальные обстановки и поступление кальция, кремния и других химических элементов с капиллярными водами во время сухих сезонов. Продукты биоминерализации имеют микроскопические размеры, но они имеют универсальное и глобальное значение для всех кор выветривания (особенно тропических) и ассоциирующих с ними осадочных месторождений бокситов, железных и марганцевых руд, каолинов и бентонитов.
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| Файл =  
| Файл = NDM51_2016_Slykin.pdf
 
| Страницы = 52-61
 
 
}}{{NDM_article
 
}}{{NDM_article
| Авторы = Путинцева Е.В., Спиридонов Э.М.
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| Авторы = Putintseva E.V., Spiridonov E.M.
| Название = Древнейшие в России алмазоносные кимберлиты и метакимберлиты Кимозера, Карелия
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| Название = The oldest diamondiferous kimberlites and metakimberlites of Kimozer, Karelia in Russia
| Аннотация =  Рассмотрена историяформирования минерального состава древнейших в России кимберлитов Кимозера, Карелия. Кимберлиты прорвали габбро-долериты и шунгитоносные осадочные породы людиковия (палеопротерозоя) и содержат их ксенолиты. Все эти породытектонизированыи однотипно метаморфизованы.
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| Аннотация =  The history of the formation of the mineral composition of the oldest in Russia kimberlites Kimoser, Karelia is considered. Kimberlites broke through gabbro-dolerites and schungite-bearing sedimentary rocks of the Ludovic (Paleoproterozoic) and contain their xenoliths. All these rocks are tectonized and similarly metamorphosed. The kimberlite minerals are described - phlogopite, chrome spinelides, ilmenite group (heikilite, picroilmenite, Mn ilmenite, pyrophanite), titanomagnetite, apatite, zircon, baddeleyite. The evolution of the composition of chrome spinels and minerals of the ilmenite group is considered, their common feature is the enrichment of Mn. It can be assumed that Kimozero kimberlites arose with the participation of carbonatite melts of high alkalinity. The xenolith metagabbro-dolerites in kimberlites compose albite, clinocoisite, epidote, chlorites, actinolite, prenite, pumpelli (Fe), titanite, quartz, Al kronstedtite, hematite, Mn-Mg ferroaxinite, lennylene peite; these are formations of the prenite-pumpellite facies. The metamorphosed kimberlites of Kimoser are the petrotype of metakimberlites of the prenite-pumpellite facies (PPF). Serpentines (antigorite, relict lysardite), tremolite, actinolite, calcite, dolomite, clinochlorine, magnetite, titanite, corrensite, talcum, apatite, rutile, hematite, ferropepsybrucite, allanite- (Ce), hydroxylbastnose are described - (La), hydroxylparisite- (Ce), hydroxylparisit- (La), bastnesite- (Ce), parisit- (Ce), monazite- (Ce), niobeshinite- (Ce), apatite, zircon, baddeleyite, pentlandite, pyrrhotite , polydimite, zygenite, thorite, bixbyite, relict and late millerite. There are no strontium minerals. Minerals REE metakimberlites - allanite, bastnesite, parisite, monazite, niobeshinite inherited Ce, Ce-La and Ce-La-Nd specificity of magmatic calcite, perovskite and apatite. The boundaries of the crystals of minerals REE and titanite, antigorite, tremolite –inductive surfaces of joint growth. The most common allanite is (Ce). Specificity of metamorphogenic allanite: its crystals are non-zonal, significant variability of REE contents and Fe3 + / Fe2 + ratios in crystals spaced apart by a few tens of microns from each other, compositional diversity: some crystals are selectively Ce, others are rich in La, and in the third, Nd> La. Allanite in clinochlor aggregates is poor in Ti, Cr, and V; in intergrowths with titanite, it contains 1–2 wt.% TiO2, and in contact with ferrichromite, it contains up to 9 wt.% Cr2O3. Most of Kimozer's allanite belongs to the allanite – ferriallanite series (up to 30% of the ferriallanite minal), the smaller part to the allanite chromallanite series. In subsequent metamorphism processes, allanite was replaced by hydroxylbastnesite and hydroxylparisite or monazite. Germination of bastnesitis and parisitis are common. Monazite (Ce) is extremely poor in Y, P and Th, poor in Nd and enriched in La, usually developed in antigorite metakimberlites. Kimozero metakimberlites contain irregularly shaped non-zircon zircon and baddeleyite up to “diffuse”. These minerals lack Nb, Th, Y, Ti. Metamorphogenic zircon is poor in hafnium and contains 0.5–0.7 wt.% HfO2. A new genetic type is distinguished - metamorphogenic-hydrothermal REE and Zr mineralization in metakimberlites of PPF. The Sm-Nd dating of metakimberlites from the prenite-pumpellite facies reflects the time of their metamorphism, and not the time of kimberlite introduction. <br>
Описаны минералы кимберлитов – флогопит, хромшпинелиды, группа ильменита (гейкилит, пикроильменит, Mn ильменит, пирофанит), титаномагнетит, апатит, циркон, бадделеит. Рассмотрена эволюция состава хромшпинелидов и минералов группы ильменита, их общая особенность – обогащенность Mn.
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'''Key words:''' kimberlites, chrome spinels, ilmenite group, apatite, zircon, baddeleyite, metakimberlites, actinolite, allanite, bastnesite, parisite, monazite, niobeshinite, thorite.
Можно предположить, что кимберлитыКимозера возникли при участии карбонатитовых расплавов повышенной щелочности. Метагаббро-долериты ксенолитов в кимберлитах слагают альбит, клиноцоизит, эпидот, хлориты, актинолит, пренит, пумпеллиит�(Fe), титанит, кварц, Al кронштедтит, гематит, Mn-Mg ферроаксинит, ленниленапеит; это образования пренит-пумпеллиитовой фации. Метаморфизованные кимберлиты Кимозера–петротип метакимберлитов пренит-пумпеллиитовой фации (ППФ). Описаны слагающие их серпентины (антигорит, реликтовый лизардит), тремолит, актинолит, кальцит, доломит, клинохлор, магнетит, титанит, корренсит, тальк, апатит, рутил, гематит, ферропсевдобрукит, алланит-(Се), гидроксилбастнезит-(Се), гидроксилбастнезит-(La), гидроксилпаризит-(Се), гидроксилпаризит-(La), бастнезит-(Се), паризит-(Се), монацит-(Се), ниобоэшинит-(Ce), апатит, циркон, бадделеит, пентландит, пирротин, полидимит, зигенит, торит, биксбиит, реликтовый и поздний миллерит.Минералы стронция отсутствуют. Минералы REE метакимберлитов – алланит, бастнезит, паризит, монацит, ниобоэшинит наследовали Ce, Ce-La и Ce-La-Nd специфику магматических кальцита, перовскита и апатита. Границы кристаллов минералов REE и титанита, антигорита, тремолита–индукционные поверхности совместного роста. Наиболее распространен алланит-(Се). Специфика метаморфогенного алланита: его кристаллы незональны, значительная изменчивость содержаний REE и соотношения Fe3+/Fe2+ в кристаллах, удаленных друг от
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| Файл =  
друга на первые десятки мкм, разнообразие состава: одни кристаллы селективно Ce, в составе других обилен La, в третьих Nd > La. Алланит в агрегатах клинохлора беден Ti, Cr и V; в срастаниях с титанитом содержит 1–2 мас.% TiО2, на контакте с феррихромитом – до 9 мас.% Cr2О3. Большая часть алланита Кимозера принадлежит ряду алланит–ферриалланит (до 30% минала ферриалланита), меньшая ряду алланит–хромалланит. При последующих процессах метаморфизма алланит замещали гидроксилбастнезит и гидроксилпаризит или монацит. Распространены прорастания бастнезита и паризита. Монацит-(Се) крайне беден Y, P и Th, беден Nd и обогащен La, обычно развит в метакимберлитах антигоритового состава. Метакимберлиты Кимозера содержат выделения незональных циркона и бадделеита неправильной формы до «диффузных». Эти минералы лишены Nb, Th, Y, Ti. Метаморфогенный циркон беден гафнием, содержит 0.5–0.7 мас.% HfO2. Выделяется новый генетический тип - метаморфогенно-гидротермальная REE и Zr минерализация в метакимберлитах ППФ. Sm-Nd датировка метакимберлитов пренит-пумпеллиитовой фации отражает время их метаморфизма, а не время внедрения кимберлитов.
 
| Файл = NDM51_2016_Pytintceva.pdf
 
| Страницы = 62-94
 
 
}}
 
}}
  
====Минералогические музеи и коллекции====
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==== '''Issue 2''' Mineralogical museums and collections====
 
{{NDM_article
 
{{NDM_article
| Авторы = Гаранин В.К., Борисова Е.А., Мохова Н.А.
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| Авторы = Garanin V.K., Borisova E.A., Mokhova N.A.
| Название = К 300-летию Минералогического музея им. А.Е. Ферсмана Российской академии наук: история поступления коллекций
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| Название = To the 300th anniversary of the Fersman Mineralogical Museum of Russian Academy of Sciences: Collection History
| Аннотация =  История минералогического собрания музея, носящего сейчас имя выдающегося минералога и геохимика академика А.Е. Ферсмана, восходит к началу XVIII столетия, когда в 1716 г. при Кунсткамере Петра I был создан Минеральный кабинет. Сейчас это одно из крупнейших собраний минералов в мире, насчитывающее в основном фонде свыше 140 000 образцов. На музейных выставках демонстрируются около 15 000 экспонатов. Среди них более 3700 минеральных видов, образцы из частных коллекций, поступавших в музей на протяжении его 300-летней истории, уникальные камнерезные изделия императорских гранильных фабрик и знаменитой фирмы Карла Фаберже. В работе кратко изложена история поступления коллекций и приведены некоторые сведения об их авторах.
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| Аннотация =  The history of the mineralogical collection of the museum, now bearing the name of the outstanding mineralogist and geochemist Academician A.E. Fersman, dates back to the beginning of the XVIII century, when in 1716 under the Kunstkamera Peter I the Mineral Cabinet was created. Now it is one of the largest collections of minerals in the world, with more than 140,000 samples in the main fund. Museum exhibitions showcase around 15,000 exhibits. Among them are more than 3,700 mineral species, samples from private collections that have entered the museum over its 300-year history, unique stone-carving products of the imperial lapidary factories and the famous company Carl Faberge. The paper briefly describes the history of collections and provides some information about their authors.<br>
| Файл = NDM51_2016_Garanin.pdf
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'''Key words:''' kimberlites, chrome spinels, ilmenite group, apatite, zircon, baddeleyite, metakimberlites, actinolite, allanite, bastnesite, parisite, monazite, niobeshinite, thorite.
| Страницы = 96-115
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| Файл =
 
}}{{NDM_article
 
}}{{NDM_article
| Авторы =Свешникова О.Л., Гриценко Ю.Д., Паутов Л.А., Спиридонов Э.М.
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| Авторы =Sveshnikova O.L., Gritsenko Yu.D., Pautov L.A., Spiridonov E.M.  
| Название = Минералогический музей имени Александра Евгеньевича Ферсмана: 300 лет исканий и достижений
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| Название = Mineralogical Museum named after Alexander Evgenievich Fersman: 300 years of searches and achievements
| Аннотация = ИсторияМинералогического музея Российской академии наук–это история становления и развития минералогии в России. С первых лет существования важнейшей задачей Музея наряду с пополнением коллекций было их научное изучение. Трехсотлетняя история Музея тесно связана с именами многих выдающихся ученых своего времени. В статье рассматривается вклад большинства из них в развитие Музея и минералогии. Особенно велика роль академиков В.И. Вернадского и А.Е. Ферсмана, деятельность которых способствовала превращению Музея в центр минералогических исследований высокого научного уровня. В современных условиях Музей имеет статус научно-исследовательского института Российской академии наук, оставаясь при этом одним из крупнейших в мире хранилищ минералов (более 150 000 экспонатов).  
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| Аннотация = The history of the Mineralogical Museum of the Russian Academy of Sciences is the history of the formation and development of mineralogy in Russia. From the first years of its existence, the most important task of the Museum, along with the replenishment of collections, was their scientific study. The three hundred year history of the Museum is closely connected with the names of many prominent scientists of its time. The article considers the contribution of most of them to the development of the Museum and mineralogy. The role of academicians V.I. Vernadsky and A.E. Fersman, whose activities contributed to the transformation of the Museum into a center of mineralogical research of a high scientific level. In modern conditions, the Museum has the status of a research institute of the Russian Academy of Sciences, while remaining one of the largest mineral storages in the world (more than 150,000 exhibits). <br>
| Файл = NDM51_2016_Sveshnikova.pdf
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'''Key words:''' Mineralogical Museum named after A.E. Fersman RAS, Kunstkamera, V.I. Vernadsky, A.E. Fersman, mineral research, new minerals, thematic mineral exhibitions.
| Страницы = 116-127
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| Файл =  
 
}}{{NDM_article
 
}}{{NDM_article
| Авторы =Генералов М.Е.
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| Авторы =Generalov M.E.
| Название = Вагнер и его мотивы
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| Название = Wagner and his motives
| Аннотация =  Поиск данных о Вагнере, авторе коллекции, приобретенной Кунсткамерой в 1806 г., позволил отождествить его с аптекарем Иоганном (Яном) Вагнером, выходцем из саксонской семьи, перешедшим в 1811 г. в российское подданство, родоначальником династии, давшей России ряд известных людей. Анализ коллекции Вагнера показывает, что его основным интересом были рудные месторождения, находившиеся на территориях, принадлежавших монархии Габсбургов.
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| Аннотация =  A search for data on Wagner, the author of the collection acquired by the Kunstkamera in 1806, allowed him to be identified with the pharmacist Johann (Jan) Wagner, a native of the Saxon family, who transferred to Russian citizenship in 1811, the ancestor of the dynasty that gave Russia a number of famous people. An analysis of the Wagner collection shows that his main interest was ore deposits located in territories belonging to the Habsburg monarchy.<br>
| Файл = NDM51_2016_Generalov.pdf
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'''Key words:''' Mineralogical Museum, Kunstkamera, Wagner, historical collections.
| Страницы = 128-133
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| Файл =
 
}}{{NDM_article
 
}}{{NDM_article
| Авторы =Свешникова О.Л.
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| Авторы =Sveshnikova O.L.
| Название = Выставка «Минералы хрусталеносных кварцевых жил» в Минералогическом музее им. А.Е. Ферсмана Российской академии наук
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| Название = The exhibition "Minerals of crystal-bearing quartz veins" in the Mineralogical Museum named after A.E. Fersman Russian Academy of Sciences
| Аннотация =  Выставка, созданная в музее в 2016 г. и получившая название «Минералы хрусталеносных кварцевых жил», построена в основном на материале из хрусталеносных месторождений Приполярного Урала. В этом регионе в настоящее время выделяют 2 типа хрусталеносных жил. Один, известный под названием альпийских жил, относится к латераль-секреционным образованиям, другой имеет гидротермально-метаморфогенную природу.Полости в обоих типах жил выполнены практически одинаковым комплексом минералов, состоящих почти исключительно из литофильных элементов. Главный минерал полостей – кварц, среди ассоциирующих с ним минералов наиболее часты адуляр, альбит, карбонаты, титансодержащие минералы: рутил, брукит, анатаз, ильменит, титанит; минералы бора: турмалин и аксинит; эпидот, хлорит и др. Все эти минералы, представленные, как правило, прекрасно образованными кристаллами, демонстрируются на выставке. Особое внимание уделено онтогении кристаллов кварца. На выставке показаны кристаллы различного габитуса, разной степени искажения формы, обладающие теми или иными особенностями макростроения (или анатомии). Приводятся примеры важности изучения онтогении минералов
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| Аннотация =  The exhibition, created in the museum in 2016 and called “Minerals of crystal-bearing quartz veins”, is built mainly on the material from crystal-bearing deposits of the Subpolar Urals. In this region, 2 types of crystal-bearing veins are currently distinguished. One, known as alpine veins, refers to lateral secretions, the other is hydrothermally metamorphic in nature. The cavities in both types of veins are made of almost the same complex of minerals, consisting almost exclusively of lithophilic elements. The main cavity mineral is quartz; among the minerals associated with it, adularia, albite, carbonates, and titanium-containing minerals are most common: rutile, brookite, anatase, ilmenite, titanite; boron minerals: tourmaline and axinite; epidote, chlorite, etc. All these minerals, represented, as a rule, by perfectly formed crystals, are on display at the exhibition. Particular attention is paid to the ontogeny of quartz crystals. The exhibition shows crystals of various habit, varying degrees of shape distortion, possessing some particular macrostructure (or anatomy). Examples of the importance of studying the ontogeny of minerals for solving genetic problems are given.<br>
для решения генетических вопросов.
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'''Key words:''' exhibition, Mineralogical Museum, hydrothermally metamorphogenic crystal-bearing quartz veins, alpine veins, quartz, ontogeny.
| Файл = NDM51_2016_Sveshnikova_2.pdf
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| Файл =
| Страницы = 134-145
 
 
}}
 
}}
  
====Минералогические заметки====
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==== '''Issue 3''' Mineralogical notes====
 
{{NDM_article
 
{{NDM_article
| Авторы =Генералов М.Е.
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| Авторы =Generalov M.E.
| Название = Святой из коллекции кристаллов
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| Название = Saint from the collection of crystals
| Аннотация =  Анализ рисунка на образце кварца с включениями актинолита из коллекции Минералогического музея Российской академии наук дает основание утверждать, что здесь изображен почитаемый в западном христианстве святой Иероним Стридонский, и предположить, что данный предмет исторически связан с периодом, когда Нидерланды предпринимали попытки колонизации Бразилии (середина XVII века).
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| Аннотация =  An analysis of the pattern on a quartz sample with actinolite inclusions from the collection of the Mineralogical Museum of the Russian Academy of Sciences suggests that it depicts St. Jerome Stridonsky revered in Western Christianity and suggests that this subject is historically connected with the period when the Netherlands attempted to colonize Brazil (mid XVII century).<br>
| Файл = NDM51_2016_Generalov_2.pdf
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'''Key words:''' quartz, actinolite, Mineralogical Museum, history of the exhibit, St. Jerome.  
| Страницы = 147-150
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| Файл =  
 
}}
 
}}
  
====Персоналии====
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==== '''Issue 4''' Personalities====
 
{{NDM_article
 
{{NDM_article
| Авторы =Докучаев А.Я., Крехан Г.-Р., Каргин А.В., Курдюков Е.Б., Лексин А.Б., Лобанов К.В., Смольянинова В.Н., Суханов М.К., Юткина Е.В.
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| Авторы =Dokuchaev A.Ya., Krekhan G.-R., Kargin A.V., Kurdyukov E.B., Leksin A.B., Lobanov K.V., Smolyaninova V.N., Sukhanov M.K., Yutkina E.V.  
| Название = Выдающийся исследователь Арктики Э.В. Толль в документах и материалах Рудно-петрографического музея (ИГЕМ РАН,Москва)
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| Название = Outstanding Arctic Explorer E.V. Toll in documents and materials of the Ore and Petrographic Museum (IGEM RAS, Moscow)
| Аннотация = Впервые опубликованы письма выдающегося русского полярного исследователя Эдуарда Васильевича Толля, ученого хранителя Минералогического музея Императорской Академии наук (1887–1896 гг.) и руководителя Русской полярной экспедиции (РПЭ) 1900–1902 гг. (Новосибирские острова). Письма адресованы дяде–академику, генералу Федору Богдановичу (Фридриху Карлу) Шмидту, директору этого музея,
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| Аннотация = Letters of the outstanding Russian polar explorer Eduard Vasilievich Toll, the scientific keeper of the Mineralogical Museum of the Imperial Academy of Sciences (1887–1896) and the head of the Russian Polar Expedition (RPE) 1900–1902 were published for the first time. (Novosibirsk islands). The letters are addressed to Uncle Academician General Fedor Bogdanovich (Friedrich Karl) Schmidt, the director of this museum, who was directly responsible for organizing the RPE. The letters provide details of the expedition’s preparations, starting in 1885. Historical information is provided to more fully understand their contents.<br>
непосредственно отвечавшему за организацию РПЭ. В письмах сообщаются детали подготовки экспедиции, начиная с 1885 г. Приведена историческая информация, позволяющая более полно понять их содержание.
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'''Key words:''' E.V. Toll, F.B. Schmidt, Mineralogical Museum of the Imperial Academy of Sciences, Russian Polar Expedition (RPE), Novosibirsk Islands, Bennett Island.  
| Файл = NDM51_2016_Dokychaev.pdf
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| Файл =  
| Страницы = 152-162
 
 
}}{{NDM_article
 
}}{{NDM_article
| Авторы =Криулина Г.Ю., Гаранин В.К., Борисова Е.А.
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| Авторы =Criulina G.Yu., Garanin V.K., Borisova E.A.
| Название = Международная научная конференция, посвященная 300-летию Минералогического музея им. А.Е. Ферсмана Российской академии наук, 21–24 ноября 2016 года, Москва
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| Название = International scientific conference dedicated to the 300th anniversary of the Mineralogical Museum named after A.E. Fersman Russian Academy of Sciences, November 21–24, 2016, Moscow
| Аннотация = Международная конференция, посвященная 300-летию Минералогического музея им. А.Е. Ферсмана, проходила с 21 по 24 ноября 2016 г. в здании Российской академии наук на площади им. Ю.А.Гагарина и в конференц-зале музея. Гостями и участниками конференции стали более 200 человек: выдающиеся академики, профессора и другие ученые-минералоги из России и зарубежья, аспиранты, студенты, любители
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| Аннотация = International conference dedicated to the 300th anniversary of the Mineralogical Museum named after A.E. Fersman, was held from November 21 to November 24, 2016 in the building of the Russian Academy of Sciences on the square. Yu.A. Gagarina and in the conference hall of the museum. Guests and participants of the conference were more than 200 people: outstanding academicians, professors and other mineral scientists from Russia and abroad, graduate students, students, mineral lovers, philanthropists, businessmen. In total, over 40 oral presentations and 20 posters were presented.
минералов, меценаты, бизнесмены. Всего было представлено свыше 40 устных докладов и 20 стендовых.  
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| Файл =  
| Файл = NDM51_2016_Kriylina.pdf
 
| Страницы = 163-164
 
 
}}
 
}}

Текущая версия на 07:31, 5 июня 2020

New Data on Minerals, Volume 51, 2016

New Data on Minerals. Volume 51, 2016, 160 pages, 166 photos, drawings, and schemes.

Summary

Volume 51 is dedicated to the 300th anniversary of the Fersman Mineralogical Museum of RAS, and scientific sections precede greeting to the museum and its employees from the Department of Earth Sciences of the Russian Academy of Sciences and introductory article by the director of the museum and the editor-in-chief of the journal, Dr. med. P.Yu. Plechova.
The first section contains a description of the new iron sulfide and elements of the platinum group - ferodsite, discovered in the Nizhny Tagil ultrabasic massif (Urals) and in the Conder placer (Khabarovsk Territory), and also of the supposedly new uranium phase - calcium titanosilicate, found in samples from Aldan deposits and Novokonstantinovskoye deposits (Ukraine). Unusual endogenous Association of non-sulfide minerals of chalcophilic elements from the Pelagonian massif (Macedonia), Ni-Zn-containing folbortite (“Uzbekite”) from vanadium shales of Southern Kyrgyzstan, rare silicides (nagchuit, lingzhiit, lobusait and collet) from the Sarmatian limestones of Crimea. New data on minerals of the Shishim mine in the South Urals, biominerals of lateritic bauxites, diamondiferous kimberlites and metakimberlites of Kimozero, Karelia.
The section "Mineralogical museums and collections" contains articles on the history of collections in collection of the Fersman Mineralogical Museum and about one of such collections collected by I. Wagner, as well as about the new museum exhibition “Minerals of crystal-bearing quartz veins”.
The section “Mineralogical notes” tells about one of the historical museum exhibits from the collection Wagner - quartz with an engraved pattern on it.
"Personalities" include an article on the scientific keeper of the Imperial Mineralogical Museum Academy of Sciences (1887–1896) E.V. Toll, who led the Russian polar expedition of 1900–1902. The issue closes with a note on the scientific conference held at the Mineralogical Museum dedicated to its 300th anniversary (November 2016, Moscow).
This journal is of interest for mineralogists, geochemists, geologists, staff of natural history museums, collectors, and rocks aficionados.

Editorial Board

Editor in Chief: P.Yu. Plechov - Doctor of Geology and Mineralogy, Professor
Executive Editor: E.A. Borisova - Ph.D.of Geology and Mineralogy
Members of Editorial Board:
V.K. Garanin - Doctor of Geology and Mineralogy, Professor
M.I. Novgorodova - Doctor of Geology and Mineralogy, Professor
B.E. Borutsky - Doctor of Geology and Mineralogy
E.I. Semenov - Doctor of Geology and Mineralogy
S.N. Nenasheva - PhD in Geology and Mineralogy
E.N. Matvienko - PhD in Geology and Mineralogy
M.E. Generalov - PhD in Geology and Mineralogy
L.A. Pautov - Senior Researcher

Publishing group

Photo - M.B. Leybov
Leader of Publishing group - M.B. Leybov
Managing Editor - L.A. Cheshko
Design - D. Ershov
Layout - I.A. Eyes

You can order the current issue or subscribe to the magazine at www.minbook.com or by email minbooks@online.ru

Сontent

Plechov P.Yu. From the editors.

The 51st issue of the Magazine "New Data on Minerals" is a special. It is dedicated to the 300th anniversary of the Fersman Mineralogical Museum of RAS. Therefore, we expanded the section devoted to the collections and history of the Museum, and placed a brief report on the scientific conference held at the Presidium of the RAS and the Minmuseum in November 2016 and dedicated to the 300th anniversary of the Fersman Mineralogical Museum of the RAS.



Gliko A.O. 300 years of the Fersman Mineralogical Museum of Russian Academy of Sciences. Greetings to the 300th anniversary of the museum from the academician-secretary of the Department of Earth Sciences of Russian Academy of Sciences.

The Department of Earth Sciences of Russian Academy of Sciences wholeheartedly congratulates with the 300th anniversary! We must remember the main stages of the history of the Museum. In 1716, in the Kunstkamera founded by Peter the Great, the Mineralogical Cabinet was created. It became the part of the Geological Museum of the Russian Academy of Sciences.



Issue 1 New minerals and their varieties, new finds of rare minerals, mineral paragenesis

Begizov V.D., Zavyalov E.N. Ferodsit (Fe, Rh, Ir, Ni, Cu, Pt, Co) 9-xS8 is a new mineral from the Nizhny Tagil ultrabasic massif

Ferodsite was found in bedrock of the Nizhny Tagil ultrabasic massif (Urals) and in the Conder placer (Khabarovsk Territory). The new mineral is in intergrowth and association with Pt-Fe minerals, chendeite and platinum sulfides. The mineral is black with a bronze hue, metallic luster, perfect cleavage according to (111). Grain sizes are mainly 10–50 μm, splices up to 100 μm. In reflected light, light, brownish-gray, slight birefringence. The chemical composition corresponds to the formula (Fe, Rh, Ni, Ir, Cu, Pt) 9xS8, where x varies from 0 to 1. Syngony is tetragonal, a = 10.009 (5) Å, c = 9.840 (8) Å, V = 985.78 ( 9) Å3, Z = 4. A sample with ferodsite is stored in the Mineralogical Museum named after A.E. Fersman RAS. The article has 3 tables, 1 figure, a list of references from one name.
Key words: ferodsite, platinum minerals, Nizhny Tagil ultrabasic massif, Conder.



Ermolaeva V.N., Chukanov N.V., Yanchev S., Van K.V. Endogenous paragenesis of non-sulfide minerals of chalcophilic elements in the orogenic zone of the “Mixed Series” of the Pelagonian Massif, Macedonia

New data on the specific metasomatic association of oxide minerals containing chalcophilic elements from metasomatic rocks of the orogenic zone of the “Mixed Series” metamorphic complex located in the Pelagonian massif, Macedonia are obtained. Based on the ratios of the mineral phases, the following order of the sequence of formation of minerals is revealed: zincochromite + zircon + Zn-containing talcum powder + barite-> franklinite + heterolith-> ganite -> romeite + almeidaite -> Fe3 + analogue of zincheggombite -> ferricoronadite + Mn-analog of plumboferrite. In the process of metasomatic conversion under highly oxidizing conditions, the sequential addition of Zn, Al, Sb, and Pb led to the formation of zinc spinelids (including ganite, replacing franklinite and heterolith), the Sb-containing iron analog of zincheggombite (epitaxy on zinc spinelides), and ferricoronadal (late hydrotherm streaks). The introduction of As occurred in 2 stages.
Key words: mineralogenesis, chalcophilic elements, “Mixed Series”, ganite, franklinite, heterolith, hogbomite, Pelagonian massif, Macedonia.



Karpenko V.Yu., Pautov L.A., Agakhanov A.A. About Ni-Zn-containing folbortite (“Uzbekite”) from vanadium schists of South Kyrgyzstan

The results of the re-study of "Uzbekite" - water copper vanadate, described for the first time in Kara-Chagyr, Kyrgyzstan, based on materials from the funds of the Fersman Mineralogical Museum of RAS (Moscow) and authors` fees. “Uzbekit” from Kara-Chagyr was identified as folbortite with high contents of zinc and nickel (wt.%): ZnO up to 5.2 (average ~ 1.0–2.5); NiO up to 2.4 (average ~ 0.5–2.0). Elevated Zn and Ni contents were also found in folwortite at the U-deposit Kara-Tangi, Kyrgyzstan. Microprobe analyzes of folbortite from Kyrgyzstan and from the Karatau ridge, Kazakhstan, and water content for some samples are presented. Crystals of various morphology are described: lamellar, skeletal, forming sagenite type lattices, and unusual needle ones. Powder patterns for lamellar and needle crystals are given; their cell parameters, respectively: a = 10.620 (2), b = 5.893 (2), c = 7.213 (2) Å; b = 94.96 (2) °; V = 449.7 (4) Å3, Z = 2 and a = 10.616 (2), b = 5.899 (2), c = 7.212 (2) Å; b = 94.96 (2) °; V = 450.0 (4) Å ^ 3, Z = 2. It was shown that “Uzbekite” from other locations is either folbortite (Potekhino, Khakassia, Russia), or it is mixed with other minerals (case-like crystals of tangeite filled with a mixture of vesigneite and folbortite from Agalyk, Uzbekistan). An assumption was made of the existence of phases close to folbortite, but different in structure.
Key words: folbortite, Uzbekite, nickel alumite, vanadium schists, Kara Chagyr.



Tishchenko A.I., Kasatkin A.V., Skoda R. Silicides (nagchuit, lingzhiit, lobusait and collet) in the Sarmatian limestones of Crimea

Nagchuit, lingzhiit, lobusaite and collet were found in a powdery, insoluble in HCl diluted residue of a dark gray color from organogenic clastic limestone of the Evpatoria deposit (Crimea). Among the silicide grains, nagchuit and lingzhiite predominate; lobusaite is found in subordinate quantities. Nagchuit and lingzhiit often grow together, forming grains up to 120 microns in size. Lobusaite is observed in the form of individual rare grains up to 100 microns in size. Tsangpoit was found in three grains up to 15 microns in size in close intergrowth with lingzhiit. Single grains of native silicon, presumably panguitite and unnamed Ti and W silicide, were also noted. The chemical composition (wt.%, Microprobe) of nagchuita (average of 9 anal.): Al 0.11, Ti 0.01, V 0.09, Cr 0.15, Mn 0.54, Fe 63.25 , Co 0.35, Ni 0.61, Cu 0.10, Zn 0.17, Zr 0.26, Si 33.63, sum 99.27, corresponds to the empirical formula (calculation for 2 atoms) Fe0.96Mn0.01Co0.01Ni0.01Si1.01; lingzhiita (average of 8 ann.): Al 1.83, V 0.03, Cr 0.09, Mn 0.23, Fe 46.54, Co 0.23, Ni 0.04, Zr 0.18, Si 49.94, sum 99.11, corresponds to the empirical formula (calculation for 3 atoms) Fe0. 93Al0.08Si1.99; lobusaite (average of 4 ann.): Al 1.20, V 0.06, Cr 0.15, Mn 0.11, Fe 42.60, Ni 0.10, Zr 0.73, Si 54.71, sum 99.66, corresponds to the empirical formula (calculation for 2 Si atoms) Fe0.78Al0. 05Zr0.01Si2.00; collet (average of 3 ann.): Mg 0.06, Al 1.05, Ca 0.12, Sc 0.05, Ti 24.58, V 0.36, Cr 0.43, Mn 0.36, Fe 31.49, Co 0.18, Ni 0.44, Cu 0.22, Zn 0.03, Zr 3.50 , Nb 0.58, Mo 0.55, Cd 0.12, In 0.11, Sn 0.09, Cs 0.21, W1.97, Si 32.70, sum 99.20, corresponds to the empirical formula (calculation for 4 atoms) Ti0.86Zr0.07W0.02V0.01Nb0.01Mo0. 01Fe0.94Ca0.01Cr0.01Mn0.01Co0.01Ni0.01Cu0.01Si1.95Al0.07. Diagnostics of nagchuit, lingzhiit and lobusaite is confirmed by x-ray; for other minerals, due to their rarity and small size, X-ray characteristics were not obtained. Lobusaite and zangpoite were the first in Russia, and they were first found in the Crimea and Linguiite.
Key words: silicides, nagchuit, lingzhiit, lobusaite, collet, native silicon, panguit, Sarmatian region-tier, Evpatoria deposit, Crimea.



Krinov D.I., Saltykov A.S., Dymkov Yu.M., Azarova Yu.V., Koltsov V.Yu. On calcium uranium titanosilicate and its significance for the technological processing of uranium ores

When studying samples from various uranium deposits of Aldan (Elkonsky gold-uranium ore cluster) and the Novokonstantinovskoye deposit (Ukraine), a mineral was discovered with the composition: UO2 »58–62%; CaO 5-7%; TiO2 »18–22%; SiO2 »10–11%, which can be described by the idealized formula Ca (U, Ca) 3Ti3 [SiO4] 2 (O, OH) 8 (calculated for 16 oxygen atoms). It was established in breccias with carbonate cement of various compositions developed in quartz-feldspar metasomatites in the form of microgranular clusters and clusters of prismatic crystals (10–50 μm) in breccia cement. Sometimes it performs cracks in veins of glandular dolomite in polyphase breccias. Energy dispersive spectra showed the absence of superposition of the lines of the studied phase and associated minerals. The chemical composition was determined using a CamScan electron scanning microscope with a Link spectrometer and AN10000 analyzer. The results obtained allow us to consider this mineral as a potentially new mineral species, conventionally called "calcium uranium titanosilicate." The mineral was formed in association with glandular dolomite, siderite and / or ankerite. Probably, his education preceded brannerite. The mineral fraction in the uranium component of ores is 20–80%, that is, “calcium uranium titanosilicate” is one of the main ore minerals in the considered objects. The prevalence of it and other calcium-containing ore minerals in the studied ores, as well as the presence of a carbonate component in them, makes it necessary to modernize the methods for extracting useful components from them. The use of circulating volumes of solutions, the absence of the need for additional enrichment and other measures will positively affect the economic and environmental performance of production.
Key words: uranium calcium titanosilicate, brannerite, potassium feldspar, quartz ore breccia, uranium ores, Elkon gold uranium ore cluster, Elkon deposit, Neprozhimoe deposit, Novokonstantinovskoye deposit.



Nenasheva S.N., Agakhanov A.A. New data on minerals of the Shishim mine, Shishim mountains, Southern Urals, Russia

The new minerals were found in skarne samples from the Shishimsky mine (South Ural): thaumasite Ca3 (SO4) [Si (OH) 6] (CO3) · 12H2O, described in the Urals only in the Nikolai-Maximiliansky mine; CaO lime, known at the Gumeshevsky deposit and in the burnt dumps of the Chelyabinsk coal basin; ferroacermanite Ca2Fe [Si2O7], not previously encountered in nature, but known as a synthetic product. In addition, new mineral phases were discovered: the AMg10 phase [(Si6.6Al3.4) 10O28] · 8.6H2O and the phase X with the empirical formula (Ca1.98V0.02) 2.00 (OH) 0.86 (PO4) 0.86 (Si2O7) 0.07 ( SO4) 0.14Cl0.03. Ferroacermanite is a ferruginous analogue of ackermanite Ca2Mg [Si2O7], a mineral of the melilite group. Earlier, minerals of this group were not found in the Urals. The listed minerals and mineral phases new for the Shishimsky mine are in close intergrowth with each other and with calcite, monticellite, forsterite, diopside, chondrodite, perovskite, cordierite, magnesioferrite and other minerals already known on this mine.
Key words: Shishimsky mine, thaumasite, lime, ferroakermanite, new mineral phases.



Slukin A.D., Boeva ​​N.M., Zhegallo E.A., Zaitseva L.V. Laterite bauxite biominerals - new data from electron microscopic studies

A systematic study of lateritic bauxite using electron microscopes revealed abundant products of the interaction of organic matter (biota) and minerals. New data were obtained on the mineralization in tropical conditions of algal deposits, wood, the root system of vegetation, biofilms and bacteria and their subsequent transformation into biomorphoses, perfect crystals of goethite, hematite, gibbsite, calcite and bizarre forms of psilomelan. Unique photographs demonstrate the ground products of the digestive tract of digging and crawling organisms and the single prismatic Gibbsite crystals formed from them, and then their mass development. It has been established that monomineral gibbsite is crystallized in the passages and burrows of worms in bauxites. In the free spaces of large pores and caverns on the surface of biofilms, similar products turn into a mixture of gibbsite, hematite, calcite, in some places, halloysite and psilomelan. Undoubtedly, the composition of mineral associations is affected by microlocal conditions and the influx of calcium, silicon, and other chemical elements with capillary waters during dry seasons. Biomineralization products are microscopic in size, but they have universal and global significance for all weathering crusts (especially tropical ones) and the associated sedimentary deposits of bauxite, iron and manganese ores, kaolin and bentonite.
Key words: biominerals, biofilms, biomorphoses, burrowing organisms, bauxite, gibbsite, hematite, psilomelan, calcite.



Putintseva E.V., Spiridonov E.M. The oldest diamondiferous kimberlites and metakimberlites of Kimozer, Karelia in Russia

The history of the formation of the mineral composition of the oldest in Russia kimberlites Kimoser, Karelia is considered. Kimberlites broke through gabbro-dolerites and schungite-bearing sedimentary rocks of the Ludovic (Paleoproterozoic) and contain their xenoliths. All these rocks are tectonized and similarly metamorphosed. The kimberlite minerals are described - phlogopite, chrome spinelides, ilmenite group (heikilite, picroilmenite, Mn ilmenite, pyrophanite), titanomagnetite, apatite, zircon, baddeleyite. The evolution of the composition of chrome spinels and minerals of the ilmenite group is considered, their common feature is the enrichment of Mn. It can be assumed that Kimozero kimberlites arose with the participation of carbonatite melts of high alkalinity. The xenolith metagabbro-dolerites in kimberlites compose albite, clinocoisite, epidote, chlorites, actinolite, prenite, pumpelli (Fe), titanite, quartz, Al kronstedtite, hematite, Mn-Mg ferroaxinite, lennylene peite; these are formations of the prenite-pumpellite facies. The metamorphosed kimberlites of Kimoser are the petrotype of metakimberlites of the prenite-pumpellite facies (PPF). Serpentines (antigorite, relict lysardite), tremolite, actinolite, calcite, dolomite, clinochlorine, magnetite, titanite, corrensite, talcum, apatite, rutile, hematite, ferropepsybrucite, allanite- (Ce), hydroxylbastnose are described - (La), hydroxylparisite- (Ce), hydroxylparisit- (La), bastnesite- (Ce), parisit- (Ce), monazite- (Ce), niobeshinite- (Ce), apatite, zircon, baddeleyite, pentlandite, pyrrhotite , polydimite, zygenite, thorite, bixbyite, relict and late millerite. There are no strontium minerals. Minerals REE metakimberlites - allanite, bastnesite, parisite, monazite, niobeshinite inherited Ce, Ce-La and Ce-La-Nd specificity of magmatic calcite, perovskite and apatite. The boundaries of the crystals of minerals REE and titanite, antigorite, tremolite –inductive surfaces of joint growth. The most common allanite is (Ce). Specificity of metamorphogenic allanite: its crystals are non-zonal, significant variability of REE contents and Fe3 + / Fe2 + ratios in crystals spaced apart by a few tens of microns from each other, compositional diversity: some crystals are selectively Ce, others are rich in La, and in the third, Nd> La. Allanite in clinochlor aggregates is poor in Ti, Cr, and V; in intergrowths with titanite, it contains 1–2 wt.% TiO2, and in contact with ferrichromite, it contains up to 9 wt.% Cr2O3. Most of Kimozer's allanite belongs to the allanite – ferriallanite series (up to 30% of the ferriallanite minal), the smaller part to the allanite – chromallanite series. In subsequent metamorphism processes, allanite was replaced by hydroxylbastnesite and hydroxylparisite or monazite. Germination of bastnesitis and parisitis are common. Monazite (Ce) is extremely poor in Y, P and Th, poor in Nd and enriched in La, usually developed in antigorite metakimberlites. Kimozero metakimberlites contain irregularly shaped non-zircon zircon and baddeleyite up to “diffuse”. These minerals lack Nb, Th, Y, Ti. Metamorphogenic zircon is poor in hafnium and contains 0.5–0.7 wt.% HfO2. A new genetic type is distinguished - metamorphogenic-hydrothermal REE and Zr mineralization in metakimberlites of PPF. The Sm-Nd dating of metakimberlites from the prenite-pumpellite facies reflects the time of their metamorphism, and not the time of kimberlite introduction.
Key words: kimberlites, chrome spinels, ilmenite group, apatite, zircon, baddeleyite, metakimberlites, actinolite, allanite, bastnesite, parisite, monazite, niobeshinite, thorite.



Issue 2 Mineralogical museums and collections

Garanin V.K., Borisova E.A., Mokhova N.A. To the 300th anniversary of the Fersman Mineralogical Museum of Russian Academy of Sciences: Collection History

The history of the mineralogical collection of the museum, now bearing the name of the outstanding mineralogist and geochemist Academician A.E. Fersman, dates back to the beginning of the XVIII century, when in 1716 under the Kunstkamera Peter I the Mineral Cabinet was created. Now it is one of the largest collections of minerals in the world, with more than 140,000 samples in the main fund. Museum exhibitions showcase around 15,000 exhibits. Among them are more than 3,700 mineral species, samples from private collections that have entered the museum over its 300-year history, unique stone-carving products of the imperial lapidary factories and the famous company Carl Faberge. The paper briefly describes the history of collections and provides some information about their authors.
Key words: kimberlites, chrome spinels, ilmenite group, apatite, zircon, baddeleyite, metakimberlites, actinolite, allanite, bastnesite, parisite, monazite, niobeshinite, thorite.



Sveshnikova O.L., Gritsenko Yu.D., Pautov L.A., Spiridonov E.M. Mineralogical Museum named after Alexander Evgenievich Fersman: 300 years of searches and achievements

The history of the Mineralogical Museum of the Russian Academy of Sciences is the history of the formation and development of mineralogy in Russia. From the first years of its existence, the most important task of the Museum, along with the replenishment of collections, was their scientific study. The three hundred year history of the Museum is closely connected with the names of many prominent scientists of its time. The article considers the contribution of most of them to the development of the Museum and mineralogy. The role of academicians V.I. Vernadsky and A.E. Fersman, whose activities contributed to the transformation of the Museum into a center of mineralogical research of a high scientific level. In modern conditions, the Museum has the status of a research institute of the Russian Academy of Sciences, while remaining one of the largest mineral storages in the world (more than 150,000 exhibits).
Key words: Mineralogical Museum named after A.E. Fersman RAS, Kunstkamera, V.I. Vernadsky, A.E. Fersman, mineral research, new minerals, thematic mineral exhibitions.



Generalov M.E. Wagner and his motives

A search for data on Wagner, the author of the collection acquired by the Kunstkamera in 1806, allowed him to be identified with the pharmacist Johann (Jan) Wagner, a native of the Saxon family, who transferred to Russian citizenship in 1811, the ancestor of the dynasty that gave Russia a number of famous people. An analysis of the Wagner collection shows that his main interest was ore deposits located in territories belonging to the Habsburg monarchy.
Key words: Mineralogical Museum, Kunstkamera, Wagner, historical collections.



Sveshnikova O.L. The exhibition "Minerals of crystal-bearing quartz veins" in the Mineralogical Museum named after A.E. Fersman Russian Academy of Sciences

The exhibition, created in the museum in 2016 and called “Minerals of crystal-bearing quartz veins”, is built mainly on the material from crystal-bearing deposits of the Subpolar Urals. In this region, 2 types of crystal-bearing veins are currently distinguished. One, known as alpine veins, refers to lateral secretions, the other is hydrothermally metamorphic in nature. The cavities in both types of veins are made of almost the same complex of minerals, consisting almost exclusively of lithophilic elements. The main cavity mineral is quartz; among the minerals associated with it, adularia, albite, carbonates, and titanium-containing minerals are most common: rutile, brookite, anatase, ilmenite, titanite; boron minerals: tourmaline and axinite; epidote, chlorite, etc. All these minerals, represented, as a rule, by perfectly formed crystals, are on display at the exhibition. Particular attention is paid to the ontogeny of quartz crystals. The exhibition shows crystals of various habit, varying degrees of shape distortion, possessing some particular macrostructure (or anatomy). Examples of the importance of studying the ontogeny of minerals for solving genetic problems are given.
Key words: exhibition, Mineralogical Museum, hydrothermally metamorphogenic crystal-bearing quartz veins, alpine veins, quartz, ontogeny.



Issue 3 Mineralogical notes

Generalov M.E. Saint from the collection of crystals

An analysis of the pattern on a quartz sample with actinolite inclusions from the collection of the Mineralogical Museum of the Russian Academy of Sciences suggests that it depicts St. Jerome Stridonsky revered in Western Christianity and suggests that this subject is historically connected with the period when the Netherlands attempted to colonize Brazil (mid XVII century).
Key words: quartz, actinolite, Mineralogical Museum, history of the exhibit, St. Jerome.



Issue 4 Personalities

Dokuchaev A.Ya., Krekhan G.-R., Kargin A.V., Kurdyukov E.B., Leksin A.B., Lobanov K.V., Smolyaninova V.N., Sukhanov M.K., Yutkina E.V. Outstanding Arctic Explorer E.V. Toll in documents and materials of the Ore and Petrographic Museum (IGEM RAS, Moscow)

Letters of the outstanding Russian polar explorer Eduard Vasilievich Toll, the scientific keeper of the Mineralogical Museum of the Imperial Academy of Sciences (1887–1896) and the head of the Russian Polar Expedition (RPE) 1900–1902 were published for the first time. (Novosibirsk islands). The letters are addressed to Uncle Academician General Fedor Bogdanovich (Friedrich Karl) Schmidt, the director of this museum, who was directly responsible for organizing the RPE. The letters provide details of the expedition’s preparations, starting in 1885. Historical information is provided to more fully understand their contents.
Key words: E.V. Toll, F.B. Schmidt, Mineralogical Museum of the Imperial Academy of Sciences, Russian Polar Expedition (RPE), Novosibirsk Islands, Bennett Island.



Criulina G.Yu., Garanin V.K., Borisova E.A. International scientific conference dedicated to the 300th anniversary of the Mineralogical Museum named after A.E. Fersman Russian Academy of Sciences, November 21–24, 2016, Moscow

International conference dedicated to the 300th anniversary of the Mineralogical Museum named after A.E. Fersman, was held from November 21 to November 24, 2016 in the building of the Russian Academy of Sciences on the square. Yu.A. Gagarina and in the conference hall of the museum. Guests and participants of the conference were more than 200 people: outstanding academicians, professors and other mineral scientists from Russia and abroad, graduate students, students, mineral lovers, philanthropists, businessmen. In total, over 40 oral presentations and 20 posters were presented.