Vanadium Minerals in Siliceous Sedimentary Rocks from Unuma
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Roscoelite K(V ; Al; Mg)2Alsi3o10(OH)2 C 2001 Mineral Data Publishing, Version 1.2 ° Crystal Data: Monoclinic
3+ Roscoelite K(V ; Al; Mg)2AlSi3O10(OH)2 c 2001 Mineral Data Publishing, version 1.2 ° Crystal Data: Monoclinic. Point Group: 2=m: As minute scales, in druses, rosettes, or fan-shaped groups; ¯brous and in felted aggregates; as impregnations, massive. Physical Properties: Cleavage: Perfect on 001 . Hardness = Soft. D(meas.) = 2.92{2.94 D(calc.) = [2.89] f g Optical Properties: Transparent to translucent. Color: Dark clove-brown, greenish brown to dark greenish brown. Luster: Pearly. Optical Class: Biaxial ({). Pleochroism: X = green-brown; Y = Z = olive-green. ® = 1.59{1.610 ¯ = 1.63{1.685 ° = 1.64{1.704 2V(meas.) = 24.5±{39.5± Cell Data: Space Group: C2=c: a = 5.26 b = 9.09 c = 10.25 ¯ = 101:0± Z = 2 X-ray Powder Pattern: Paradox Valley, Colorado, USA. 10.0 (100), 4.54 (80), 3.35 (80), 2.60 (80), 1.52 (60), 3.66 (50), 3.11 (50) Chemistry: (1) SiO2 47.82 Al2O3 12.60 V2O5 19.94 FeO 3.30 MgO 2.43 CaO trace Na2O 0.33 K2O 8.03 + H2O 5.13 Total 99.58 (1) Stuckslager mine, California, USA. Polymorphism & Series: Forms a series with muscovite; 1M polytype. Mineral Group: Mica group. Occurrence: An early-stage gangue mineral in low-temperature epithermal Au-Ag-Te deposits; from the oxidized portions of low-temperature sedimentary U-V ores. Association: Quartz, pyrite, carbonates, °uorite, gold (Au-Ag-Te mineral association); corvusite, hewettite, carnotite, tyuyamunite (U-V mineral association). Distribution: In the USA, from the Stuckslager mine, Lotus, El Dorado Co., California; in Colorado, from Cripple Creek, Teller Co., La Plata district, La Plata Co., Magnolia district, Boulder Co., the Gateway district, Mesa Co., in the Uravan and Paradox, Bull Canyon, and Slick Rock districts, in Montrose, San Miguel, and Dolores Cos. -
Spectral Evolution Gold Exploration
spectral evolution Gold Exploration SPECTRAL EVOLUTION’s oreXpress and oreXpress Platinum with EZ-ID software for mineral identification are well-suited for gold exploration. These rugged, field spectrometers can be used in field mapping and mineral identification for many different gold deposit types, including: Paleoplacer deposits Massive sulfides Hot spring deposits Low sulfidation High sulfidation Breccia pipes Porphyry gold deposits Skarns Orogenic deposits Carbonate placements Greenstone belts oreXpress and oreXpress Platinum spectrometers are ideal With our oreXpress spectrometers and EZ-ID software, geologists can scan and identify for single-user field exploration in common alteration minerals, such as: gold mining. For low sulfidation: illite, kaolinite, chlorite, illite/smectite, buddingtonite, epidote, montmorillonite, zeolite, quartz, calcite, hematite For high sulfidation: alunite, opal, dickite, pyrophyllite, diaspora, zunyite, topaz, illite, kaolinite, chlorite, epidote, quartz, montmorillonite, goethite, jaosite, hematite For orogenic gold: muscovite, paragonite muscovite, roscoelite, illite, kaolinite, quartz, siderite, ankerite, calcite, dolomite, carbonates Using EZ-ID with the USGS spectral library, or the SpecMIN™ library available from Spectral International, the software quickly provides accurate matching of an unknown target with a known mineral spectra. With an oreXpress spectrometer and EZ-ID a geologist can identify minerals indicating gold in real-time, in the field. Benefits include: Quickly collect a lot of scans EZ-ID software identifies minerals Cover more ground in less time for better mapping in real-time by matching your Collect more accurate data for a more complete picture of the area target spectra against a known you are exploring spectral library such as the USGS Get results immediately instead of waiting for lab analysis library, or the SpecMIN library. -
CORVUSITE and RILANDITE, NEW MINERALS from the UTAH-COLORADO CARNOTITE REGIOI{ Eowenn P
CORVUSITE AND RILANDITE, NEW MINERALS FROM THE UTAH-COLORADO CARNOTITE REGIOI{ Eowenn P. HBNonnsoNAND Fnaxr L. Hnss,x U. S. National, Museum. InrnonucrroN In the carnotite-bearing depositsof Colorado and Utah the sand- stone and accompanying clays are impregnated with many dark brown and black mineral masses,which show no crystal form to the unaided eye and few other definite characteristics. The most common of the dark colored minerals are listed below. Roscoelite vanadium mica Rauvite CaO'2UOr'6VzOr'2OHrO Vanoxite 2VzOr'VzOs(S* )HzO Corvusite VrOr'6VeOs'XH:O Rilandite hydrouschromium aluminum silicate Lignite Tar (?) Asphaltite Psilomelane Iron-copper-cobaltoxide. Two of the names, corvusite and rilandite, are new and are pro- posed in this paper. The authors hesitated to give names to such compounds as those to which they are applied becauseno entirely satisfactory formula can be ofiered for either, but since the sub- stance called corvusite is common in the carnotite region a verbal handle seemsnecessary. Rilandite, although at present known from only one locality, was obtained in rather large quantity and its as- sociation is such that it seemslikely that it will be obtained from other places in the carnotite region. If at some future date further study shows these names unnecessarythey can easily be relegated to oblivion. Gr,Nnner, Rnr.attoNsrups Roscoelite or a similar dark mineral is provisionally identifiable by the microscope from many places in this region. Roscoelite is well known, rauvite and vanoxitel and the asphaltitez have been * Published by permission of the Secretary of the Smithsonian Institution. I Hess, Frank L., New and known minerals from the Utah-Colorado carnotite region: U. -
Alkalic-Type Epithermal Gold Deposit Model
Alkalic-Type Epithermal Gold Deposit Model Chapter R of Mineral Deposit Models for Resource Assessment Scientific Investigations Report 2010–5070–R U.S. Department of the Interior U.S. Geological Survey Cover. Photographs of alkalic-type epithermal gold deposits and ores. Upper left: Cripple Creek, Colorado—One of the largest alkalic-type epithermal gold deposits in the world showing the Cresson open pit looking southwest. Note the green funnel-shaped area along the pit wall is lamprophyre of the Cresson Pipe, a common alkaline rock type in these deposits. The Cresson Pipe was mined by historic underground methods and produced some of the richest ores in the district. The holes that are visible along several benches in the pit (bottom portion of photograph) are historic underground mine levels. (Photograph by Karen Kelley, USGS, April, 2002). Upper right: High-grade gold ore from the Porgera deposit in Papua New Guinea showing native gold intergrown with gold-silver telluride minerals (silvery) and pyrite. (Photograph by Jeremy Richards, University of Alberta, Canada, 2013, used with permission). Lower left: Mayflower Mine, Montana—High-grade hessite, petzite, benleonardite, and coloradoite in limestone. (Photograph by Paul Spry, Iowa State University, 1995, used with permission). Lower right: View of north rim of Navilawa Caldera, which hosts the Banana Creek prospect, Fiji, from the portal of the Tuvatu prospect. (Photograph by Paul Spry, Iowa State University, 2007, used with permission). Alkalic-Type Epithermal Gold Deposit Model By Karen D. Kelley, Paul G. Spry, Virginia T. McLemore, David L. Fey, and Eric D. Anderson Chapter R of Mineral Deposit Models for Resource Assessment Scientific Investigations Report 2010–5070–R U.S. -
Volborthite Cu3v2o7(OH)2 • 2H2O C 2001-2005 Mineral Data Publishing, Version 1
Volborthite Cu3V2O7(OH)2 • 2H2O c 2001-2005 Mineral Data Publishing, version 1 Crystal Data: Monoclinic, pseudohexagonal. Point Group: 2/m. Typically as rosettelike aggregates of scaly crystals, which may have a hexagonal or triangular outline, to 5 mm. Physical Properties: Cleavage: One, perfect. Hardness = 3.5 D(meas.) = 3.5–3.8 D(calc.) = 3.52 Optical Properties: Semitransparent. Color: Dark olive-green, green, yellowish green; green to yellowish green in transmitted light. Luster: Vitreous, oily, resinous, waxy, pearly on the cleavage. Optical Class: Biaxial (–) or biaxial (+). Pleochroism: Faint. Dispersion: r<v,r>v, inclined. α = 1.820–2.01 β = 1.835–2.05 γ = 1.92–2.07 2V(meas.) = 63◦–83◦ Cell Data: Space Group: C2/m. a = 10.610(2) b = 5.866(1) c = 7.208(1) β =95.04(2)◦ Z=2 X-ray Powder Pattern: Monument No. 1 mine, Arizona, USA. 7.16 (10), 2.643 (7), 2.571 (7), 2.389 (7), 4.103 (5), 3.090 (5), 2.998 (5) Chemistry: (1) (2) (1) (2) V2O5 36.65 38.32 CuO 48.79 50.29 SiO2 1.37 H2O [11.49] 11.39 V2O3 1.70 Total [100.00] 100.00 (1) Scrava mine, Italy; by electron microprobe; V2O3 assumed for charge balance, H2Oby 5+ 3+ • • difference; corresponds to Cu2.89V1.90V0.11Si0.11O7(OH)2 2H2O. (2) Cu3V2O7(OH)2 2H2O. Occurrence: An uncommon secondary mineral in the oxidized zone of vanadium-bearing hydrothermal mineral deposits. Association: Brochantite, malachite, atacamite, tangeite, chrysocolla, barite, gypsum. Distribution: In Russia, originally from an unknown locality; later identified at the Sofronovskii copper mine, near Perm, and at Syssersk and Nizhni Tagil, Ural Mountains. -
Arxiv:2103.13254V2 [Cond-Mat.Str-El] 20 May 2021
Magnetic ordering of the distorted kagome antiferromagnet Y3Cu9(OH)18[Cl8(OH)] prepared via optimal synthesis W. Sun,1 T. Arh,2, 3 M. Gomilˇsek,2 P. Koˇzelj,2, 3 S. Vrtnik,2 M. Herak,4 J.-X. Mi,1 and A. Zorko2, 3, ∗ 1Fujian Provincial Key Laboratory of Advanced Materials, Department of Materials Science and Engineering, College of Materials, Xiamen University, Xiamen 361005, Fujian Province, People’s Republic of China 2JoˇzefStefan Institute, Jamova c. 39, SI-1000 Ljubljana, Slovenia 3Faculty of Mathematics and Physics, University of Ljubljana, Jadranska u. 19, SI-1000 Ljubljana, Slovenia 4Institute of Physics, Bijeniˇckac. 46, HR-10000 Zagreb, Croatia (Dated: May 21, 2021) Experimental studies of high-purity kagome-lattice antiferromagnets (KAFM) are of great impor- tance in attempting to better understand the predicted enigmatic quantum spin-liquid ground state of the KAFM model. However, realizations of this model can rarely evade magnetic ordering at low temperatures due to various perturbations to its dominant isotropic exchange interactions. Such a situation is for example encountered due to sizable Dzyaloshinskii-Moriya magnetic anisotropy in YCu3(OH)6Cl3, which stands out from other KAFM materials by its perfect crystal structure. We find evidence of magnetic ordering also in the distorted sibling compound Y3Cu9(OH)18[Cl8(OH)], which has recently been proposed to feature a spin-liquid ground state arising from a spatially anisotropic kagome lattice. Our findings are based on a combination of bulk susceptibility, specific heat, and magnetic torque measurements that disclose a N´eeltransition temperature of TN = 11 K in this material, which might feature a coexistence of magnetic order and persistent spin dynamics as previously found in YCu3(OH)6Cl3. -
3F, a New Apatite-Group Mineral and the Novel Natural Ternary Solid
2 3 4 Pliniusite, Ca5(VO4)3F, a new apatite-group mineral and the novel natural ternary solid- 5 solution system pliniusite–svabite–fluorapatite 6 7 Igor V. Pekov1*, Natalia N. Koshlyakova1, Natalia V. Zubkova1, Arkadiusz Krzątała2, Dmitry I. 8 Belakovskiy3, Irina O. Galuskina2, Evgeny V. Galuskin2, Sergey N. Britvin4, Evgeny G. 9 Sidorov5†, Yevgeny Vapnik6 and Dmitry Yu. Pushcharovsky1 10 11 1Faculty of Geology, Moscow State University, Vorobievy Gory, 119991 Moscow, Russia 12 2Institute of Earth Sciences, Faculty of Natural Sciences, University of Silesia, Będzińska 60, 13 41-200 Sosnowiec, Poland 14 3Fersman Mineralogical Museum of the Russian Academy of Sciences, Leninsky Prospekt 18-2, 15 119071 Moscow, Russia 16 4Department of Crystallography, St. Petersburg State University, University Emb. 7/9, 199034 St. 17 Petersburg, Russia 18 5Institute of Volcanology and Seismology, Far Eastern Branch of Russian Academy of Sciences, 19 Piip Boulevard 9, 683006 Petropavlovsk-Kamchatsky, Russia 20 6Department of Geological and Environmental Sciences, Ben-Gurion University of the Negev, POB 21 653, Beer-Sheva 84105, Israel 22 23 † Deceased 20 March 2021 24 25 *Corresponding author: [email protected] 26 2 28 ABSTRACT 29 The new apatite-group mineral pliniusite, ideally Ca5(VO4)3F, was found in fumarole deposits at the 30 Tolbachik volcano (Kamchatka, Russia) and in a pyrometamorphic rock of the Hatrurim Complex 31 (Israel). Pliniusite, together with fluorapatite and svabite, forms a novel and almost continuous 32 ternary solid-solution system characterized by wide variations of T5+ = P, As and V. In paleo- 33 fumarolic deposits at Mountain 1004 (Tolbachik), members of this system, including the holotype 34 pliniusite, are associated with hematite, tenorite, diopside, andradite, kainotropite, baryte and 35 supergene volborthite, brochantite, gypsum and opal. -
Articles Devoted to Silicate Minerals from Fumaroles of the Tol- Bachik Volcano (Kamchatka, Russia)
Eur. J. Mineral., 32, 101–119, 2020 https://doi.org/10.5194/ejm-32-101-2020 © Author(s) 2020. This work is distributed under the Creative Commons Attribution 4.0 License. Unusual silicate mineralization in fumarolic sublimates of the Tolbachik volcano, Kamchatka, Russia – Part 1: Neso-, cyclo-, ino- and phyllosilicates Nadezhda V. Shchipalkina1, Igor V. Pekov1, Natalia N. Koshlyakova1, Sergey N. Britvin2,3, Natalia V. Zubkova1, Dmitry A. Varlamov4, and Eugeny G. Sidorov5 1Faculty of Geology, Moscow State University, Vorobievy Gory, 119991 Moscow, Russia 2Department of Crystallography, St Petersburg State University, University Embankment 7/9, 199034 St. Petersburg, Russia 3Kola Science Center of Russian Academy of Sciences, Fersman Str. 14, 184200 Apatity, Russia 4Institute of Experimental Mineralogy, Russian Academy of Sciences, Academica Osypyana ul., 4, 142432 Chernogolovka, Russia 5Institute of Volcanology and Seismology, Far Eastern Branch of Russian Academy of Sciences, Piip Boulevard 9, 683006 Petropavlovsk-Kamchatsky, Russia Correspondence: Nadezhda V. Shchipalkina ([email protected]) Received: 19 June 2019 – Accepted: 1 November 2019 – Published: 29 January 2020 Abstract. This is the initial paper in a pair of articles devoted to silicate minerals from fumaroles of the Tol- bachik volcano (Kamchatka, Russia). These papers contain the first systematic data on silicate mineralization of fumarolic genesis. In this article nesosilicates (forsterite, andradite and titanite), cyclosilicate (a Cu,Zn- rich analogue of roedderite), inosilicates (enstatite, clinoenstatite, diopside, aegirine, aegirine-augite, esseneite, “Cu,Mg-pyroxene”, wollastonite, potassic-fluoro-magnesio-arfvedsonite, potassic-fluoro-richterite and litidion- ite) and phyllosilicates (fluorophlogopite, yanzhuminite, “fluoreastonite” and the Sn analogue of dalyite) are characterized with a focus on chemistry, crystal-chemical features and occurrence. -
MINERAL POTENTIAL REPORT for the Lands Now Excluded from Grand Staircase-Escalante National Monument
United States Department ofthe Interior Bureau of Land Management MINERAL POTENTIAL REPORT for the Lands now Excluded from Grand Staircase-Escalante National Monument Garfield and Kane Counties, Utah Prepared by: Technical Approval: flirf/tl (Signature) Michael Vanden Berg (Print name) (Print name) Energy and Mineral Program Manager - Utah Geological Survey (Title) (Title) April 18, 2018 /f-P/2ft. 't 2o/ 8 (Date) (Date) M~zr;rL {Signature) 11 (Si~ ~.u.. "'- ~b ~ t:, "4 5~ A.J ~txM:t ;e;,E~ 't"'-. (Print name) (Print name) J.-"' ,·s h;c.-+ (V\ £uA.o...~ fk()~""....:r ~~/,~ L{ ( {Title) . Zo'{_ 2o l~0 +(~it71 ~ . I (Date) (Date) This preliminary repon makes information available to the public that may not conform to UGS technical, editorial. or policy standards; this should be considered by an individual or group planning to take action based on the contents ofthis report. Although this product represents the work of professional scientists, the Utah Department of Natural Resources, Utah Geological Survey, makes no warranty, expressed or implied, regarding it!I suitability for a panicular use. The Utah Department ofNatural Resources, Utah Geological Survey, shall not be liable under any circumstances for any direct, indirect, special, incidental, or consequential damages with respect to claims by users ofthis product. TABLE OF CONTENTS SUMMARY AND CONCLUSIONS ........................................................................................................... 4 Oil, Gas, and Coal Bed Methane ........................................................................................................... -
Tungsten Minerals and Deposits
DEPARTMENT OF THE INTERIOR FRANKLIN K. LANE, Secretary UNITED STATES GEOLOGICAL SURVEY GEORGE OTIS SMITH, Director Bulletin 652 4"^ TUNGSTEN MINERALS AND DEPOSITS BY FRANK L. HESS WASHINGTON GOVERNMENT PRINTING OFFICE 1917 ADDITIONAL COPIES OF THIS PUBLICATION MAY BE PROCURED FROM THE SUPERINTENDENT OF DOCUMENTS GOVERNMENT PRINTING OFFICE WASHINGTON, D. C. AT 25 CENTS PER COPY CONTENTS. Page. Introduction.............................................................. , 7 Inquiries concerning tungsten......................................... 7 Survey publications on tungsten........................................ 7 Scope of this report.................................................... 9 Technical terms...................................................... 9 Tungsten................................................................. H Characteristics and properties........................................... n Uses................................................................. 15 Forms in which tungsten is found...................................... 18 Tungsten minerals........................................................ 19 Chemical and physical features......................................... 19 The wolframites...................................................... 21 Composition...................................................... 21 Ferberite......................................................... 22 Physical features.............................................. 22 Minerals of similar appearance................................. -
Identification and Occurrence of Uranium and Vanadium Minerals from the Colorado Plateaus
SpColl £2' 1 Energy I TEl 334 Identification and Occurrence of Uranium and Vanadium Minerals from the Colorado Plateaus ~ By A. D. Weeks and M. E. Thompson ~ I"\ ~ ~ Trace Elements Investigations Report 334 UNITED STATES DEPARTMENT OF THE INTERIOR GEOLOGICAL SURVEY IN REPLY REFER TO: UNITED STATES DEPARTMENT OF THE INTERIOR GEOLOGICAL SURVEY WASHINGTON 25, D. C. AUG 12 1953 Dr. PhilUp L. Merritt, Assistant Director Division of Ra1'r Materials U. S. AtoTILic Energy Commission. P. 0. Box 30, Ansonia Station New· York 23, Nei< York Dear Phil~ Transmitted herewith are six copies oi' TEI-334, "Identification and occurrence oi' uranium and vanadium minerals i'rom the Colorado Plateaus," by A , D. Weeks and M. E. Thompson, April 1953 • We are asking !41'. Hosted to approve our plan to publish this re:por t as a C.i.rcular .. Sincerely yours, Ak~f777.~ W. H. ~radley Chief' Geologist UNCLASSIFIED Geology and Mineralogy This document consists or 69 pages. Series A. UNITED STATES DEPARTMENT OF TEE INTERIOR GEOLOGICAL SURVEY IDENTIFICATION AND OCCURRENCE OF URANIUM AND VANADIUM MINERALS FROM TEE COLORADO PLATEAUS* By A• D. Weeks and M. E. Thompson April 1953 Trace Elements Investigations Report 334 This preliminary report is distributed without editorial and technical review for conformity with ofricial standards and nomenclature. It is not for public inspection or guotation. *This report concerns work done on behalf of the Division of Raw Materials of the u. s. Atomic Energy Commission 2 USGS GEOLOGY AllU MINEFALOGY Distribution (Series A) No. of copies American Cyanamid Company, Winchester 1 Argulllle National La:boratory ., ., ....... -
Geology, Geochemistry, and Mineralogy of the Ridenour Mine Breccia Pipe, Arizona
UNITED STATES DEPARTMENT OF THE INTERIOR GEOLOGICAL SURVEY Geology, Geochemistry, and Mineralogy of the Ridenour Mine Breccia Pipe, Arizona by Karen J. Wenrich1 , Earl R. Verbeek 1 , Hoyt B. Sutphin2 , Peter J. Modreski 1 , Bradley S. Van Gosen 11, and David E. Detra Open-File Report 90-0504 This study was funded by the Bureau of Indian Affairs in cooperation with the Hualapai Tribe. 1990 This report is preliminary and has not been reviewed for conformity with U.S. Geological Survey editorial standards and stratigraphic nomenclature. U.S. Geological Survey 2U.S. Pollution Control, Inc. Denver, Colorado Boulder, Colorado CONTENTS Page Abstract ................................................................... 1 Introduction ............................................................... 2 Geology and structure of the Ridenour mine ................................. 5 Structural control of the Ridenour and similar pipes ....................... 7 Mine workings ............................................................. 11 Geochemistry .............................................................. 11 Metals strongly enriched at the Ridenour pipe ......................... 23 Vanadium ......................................................... 23 Silver ........................................................... 30 Copper ........................................................... 30 Gallium .......................................................... 30 Isotopic studies ...................................................... 30 Mineralogy ...............................................................