Ore Deposits and Metallogenesis of Tasmania
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West Coast Land Use Planning Strategy
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Mineralogy and Geochemistry of Nephrite Jade from Yinggelike Deposit, Altyn Tagh (Xinjiang, NW China)
minerals Article Mineralogy and Geochemistry of Nephrite Jade from Yinggelike Deposit, Altyn Tagh (Xinjiang, NW China) Ying Jiang 1, Guanghai Shi 1,* , Liguo Xu 2 and Xinling Li 3 1 State Key Laboratory of Geological Processes and Mineral Resources, China University of Geosciences, Beijing 100083, China; [email protected] 2 Geological Museum of China, Beijing 100034, China; [email protected] 3 Xinjiang Uygur Autonomous Region Product Quality Supervision and Inspection Institute, Xinjiang 830004, China; [email protected] * Correspondence: [email protected]; Tel.: +86-010-8232-1836 Received: 6 April 2020; Accepted: 6 May 2020; Published: 8 May 2020 Abstract: The historic Yinggelike nephrite jade deposit in the Altyn Tagh Mountains (Xinjiang, NW China) is renowned for its gem-quality nephrite with its characteristic light-yellow to greenish-yellow hue. Despite the extraordinary gemological quality and commercial significance of the Yinggelike nephrite, little work has been done on this nephrite deposit, due to its geographic remoteness and inaccessibility. This contribution presents the first systematic mineralogical and geochemical studies on the Yinggelike nephrite deposit. Electron probe microanalysis, X-ray fluorescence (XRF) spectrometry, inductively coupled plasma mass spectrometry (ICP-MS) and isotope ratio mass spectrometry were used to measure the mineralogy, bulk-rock chemistry and stable (O and H) isotopes characteristics of samples from Yinggelike. Field investigation shows that the Yinggelike nephrite orebody occurs in the dolomitic marble near the intruding granitoids. Petrographic studies and EMPA data indicate that the nephrite is mainly composed of fine-grained tremolite, with accessory pargasite, diopside, epidote, allanite, prehnite, andesine, titanite, zircon, and calcite. Geochemical studies show that all nephrite samples have low bulk-rock Fe/(Fe + Mg) values (0.02–0.05), as well as low Cr (0.81–34.68 ppm), Co (1.10–2.91 ppm), and Ni (0.52–20.15 ppm) contents. -
Around the Bend
Cultural Studies Review volume 18 number 1 March 2012 http://epress.lib.uts.edu.au/journals/index.php/csrj/index pp. 86–106 Emily Bullock 2012 Around the Bend The Curious Power of the Hills around Queenstown, Tasmania EMILY BULLOCK UNIVERSITY OF TASMANIA Approaching the town of Queenstown you can’t help but be taken aback by the sight of the barren hillsides, hauntingly bare yet strangely beautiful. This lunar landscape has a majestic, captivating quality. In December 1994 after 101 years of continuous mining—A major achievement for a mining company—the Mount Lyell Mining and Railway Company called it a day and closed the operation thus putting Queenstown under threat of becoming a ghost town. Now, with the mine under the ownership of Copper Mines of Tasmania, the town and the mine are once again thriving. Although Queenstown is primarily a mining town, it is also a very popular tourist destination offering visitors unique experiences. So, head for the hills and discover Queenstown—a unique piece of ‘Space’ on earth.1 In his discussion of the labour of the negative in Defacement: Public Secrecy and the Labour of the Negative, Michael Taussig opens out into a critique of criticism. ISSN 1837-8692 Criticism, says Taussig, is in some way a defacement, a tearing away at an object that ends up working its magic on the critic and forging a ‘curious complicity’ between object and critic.2 Taussig opens up a critical space in which to think with the object of analysis, cutting through transcendental critique, as a critical defacement, which, in the very act of cutting, produces negative energy: a ‘contagious, proliferating, voided force’ in which the small perversities of ‘laughter, bottom-spanking, eroticism, violence, and dismemberment exist simultaneously in violent silence’.3 This complicity in thinking might be charged by critical methodologies which engage in, and think through, peripatetic movements. -
Riebeckite Na2[(Fe2+,Mg)3Fe 2 ]Si8o22(OH)
2+ 3+ Riebeckite Na2[(Fe ; Mg)3Fe2 ]Si8O22(OH)2 c 2001 Mineral Data Publishing, version 1.2 ° Crystal Data: Monoclinic. Point Group: 2=m: As prismatic crystals, to 20 cm. Commonly ¯brous, asbestiform; earthy, massive. Twinning: Simple or multiple twinning 100 . k f g Physical Properties: Cleavage: Perfect on 110 , intersecting at 56 and 124 ; partings f g ± ± on 100 , 010 . Fracture: [Conchoidal to uneven.] Tenacity: Brittle. Hardness = 6 f g f g D(meas.) = 3.28{3.44 D(calc.) = 3.380 Optical Properties: Semitransparent. Color: Black, dark blue; dark blue to yellow-green in thin section. Luster: Vitreous to silky. Optical Class: Biaxial (+) or ({). Pleochroism: X = blue, indigo; Y = yellowish green, yellow- brown; Z = dark blue. Orientation: Y = b; X c = 8 to 7 ; Z c = 6 {7 . Dispersion: ^ ¡ ± ¡ ± ^ ± ± Strong. ® = 1.656{1.697 ¯ = 1.670{1.708 ° = 1.665{1.740 2V(meas.) = 50±{90±. Cell Data: Space Group: C2=m: a = 9.822 b = 18.07 c = 5.334 ¯ = 103:52± Z = 2 X-ray Powder Pattern: Doubrutscha [Dobrudja], Romania. (ICDD 19-1061). 8.40 (100), 3.12 (55), 2.726 (40), 2.801 (18), 4.51 (16), 2.176 (16), 3.27 (14) Chemistry: (1) (2) (1) (2) SiO2 52.90 50.45 CaO 0.12 0.08 TiO2 0.57 0.14 Li2O 0.54 Al2O3 0.12 1.96 Na2O 6.85 6.80 Fe2O3 17.20 17.52 K2O 0.03 1.48 Cr2O3 0.04 F 2.58 + FeO 17.95 17.90 H2O 0.87 MnO 0.00 1.40 O = F 1.09 ¡ 2 MgO 2.96 0.05 Total 98.74 100.68 (1) Dales Gorge Iron Formation, Western Australia; by electron microprobe, corresponds to 2+ 3+ (Na2:00Ca0:02K0:01)§=2:03(Fe2:26Mg0:66Ti0:06)§=2:98Fe1:95(Si7:98Al0:02)§=8:00O22(OH)2: (2) Pikes 2+ Peak area, Colorado, USA; corresponds to (Na2:02K0:29Ca0:01)§=2:32(Fe2:30Li0:33Mn0:18Al0:10 3+ Ti0:02Mg0:01)§=2:94Fe2:02(Si7:75Al0:25)§=8:00O22[F1:25(OH)0:89]§=2:14: Polymorphism & Series: Forms a series with magnesioriebeckite. -
CRYSTAL SRUKTUR of CALCIUM TITANATE (Catio3) PHOSPHOR DOPED with PRASEODYMIUM and ALUMINIUM IONS
CRYSTAL SRUKTUR OF CALCIUM TITANATE (CaTiO3) PHOSPHOR DOPED WITH PRASEODYMIUM AND ALUMINIUM IONS STRUKTUR KRISTAL FOSFOR KALSIUM TITANIA DIDOPKAN DENGAN ION PRASEODYMIUM DAN ALUMINIUM IONS Siti Aishah Ahmad Fuzi1* and Rosli Hussin2 1 Material Technology Group, Industrial Technology Division, Malaysian Nuclear Agency, Bangi, 43000 Kajang, Selangor Darul Ehsan, Malaysia. 2 Department of Physics, Faculty of Science, Universiti Teknologi Malaysia, 81310 Skudai, Johor 1*[email protected], [email protected] Abstract The past three decades have witnessed rapid growth in research and development of luminescence phenomenon because of their diversity in applications. In this paper, Calcium Titanate (CaTiO3) was studied to find a new host material with desirable structural properties for luminescence-based applications. Solid state reactions o 3+ methods were used to synthesis CaTiO3 at 1000 C for 6 hours. Crystal structure of CaTiO3 co-doped with Pr 3+ and Al were investigated using X-Ray Diffraction (XRD) method. Optimum percentage to synthesis CaTiO3 was 3+ obtained at 40 mol%CaO-60 mol%TiO2 with a single doping of 1 mol%Pr . However, a crystal structure of 4 mol% of Al3+ co-doped with Pr3+ was determined as an optimum parameter which suitable for display imaging. Keywords: calcium titanate, anatase, rutile Abstrak Semenjak tiga dekad yang lalu telah menunjukkan peningkatan yang ketara bagi kajian dan pembangunan dalam bidang fotolumiscen. Peningkatan ini berkembang dengan meluas disebabkan oleh kebolehannya untuk diaplikasikan dalam pelbagai kegunaan harian. Dalam manuskrip ini, kalsium titania (CaTiO3) telah dikaji untuk mencari bahan perumah dengan sifat struktur yang bersesuaian bagi aplikasi luminescen. Tindak balas keadaan o pepejal telah digunakan bagi mensintesis CaTiO3 pada suhu 1000 C selama 6 jam. -
C:\Documents and Settings\Alan Smithee\My Documents\MOTM
Rdosdladq1//6Lhmdq`knesgdLnmsg9@bshmnkhsd This month’s featured mineral has many interesting and unusual varieties: While our specimens have well-developed prismatic crystals, which is unusual for actinolite, a fibrous variety is a former ore of asbestos, and a microcrystalline variety is one of the two types of the gemstone jade. Read on! OGXRHB@K OQNODQSHDR 2+ Chemistry: GCa2(Mg,Fe )5Si8O22(OH)2 Basic Calcium Magnesium Iron Silicate (Calcium Magnesium Iron Silicate Hydroxide) Class: Silicates Subclass: Inosilicates (Double-Chain Silicates) Group: Tremolite (Amphibole Group) Crystal System: Monoclinic Crystal Habits: Usually long prismatic with diamond-shaped cross section; also bladed, columnar, acicular, divergent, fibrous (asbestiform), and radiating. A compact, microcrystalline form is known as nephrite jade. Color: Bright-to-dark green, grayish-green, and greenish-black. Luster: Vitreous; silky and pearly on cleavage surfaces. Transparency: Transparent to translucent Streak: Colorless to white Cleavage: Perfect in two directions lengthwise with intersecting cleavage planes. Fracture: Splintery, uneven; fibrous forms are flexible. Hardness: 5.0-6.0, nephrite variety is 6.5. Specific Gravity: 3.0-3.5 Luminescence: None Refractive Index: 1.63-1.66 Distinctive Features and Tests: Best field marks are the prismatic, often-radiating crystal habit and narrow cleavage-intersection angle. Can be confused with wollastonite, which is fluorescent; the tourmaline-group minerals, which lack cleavage; and epidote, which has a broader cleavage angle. Laboratory methods are necessary to differentiate actinolite from tremolite and ferro- actinolite, as explained in the box on Page 3. Dana Classification Number: 66.1.3a.2 M @L D The name “actinolite,” pronounced ack-TIH-no-lite, derives from the Greek aktino, meaning “ray,” a reference to the common radiate habit of its prismatic crystals. -
Henty Gold Limited A.C.N
Henty Gold Mine Howards Road HENTY TAS 7467 PO Box 231 QUEENSTOWN TAS 7467 Australia Telephone: + 61 3 6473 2444 Facsimile: + 61 3 6473 1857 HENTY GOLD LIMITED A.C.N. 008 764 412 Final Report 2003 EL 13/2001 Langdon HELD BY: AURIONGOLD EXPLORATION PTY LTD MANAGER & OPERATOR: AURIONGOLD EXPLORATION PTY LTD AUTHOR(s): Michael Vicary 24 March 2003 PROSPECTS: MAP SHEETS: 1:250,000: 1:100,000: GEOGRAPHIC COORDS Min East: Max East: Min North: Max North: COMMODITY(s): Au, Cu, Pb, Zn KEY WORDS: Distribution: o AurionGold Exploration Information Centre Reference: o AurionGold Exploration - Zeehan o Mineral Resources Tasmania Langdon EL 13/2001 Relinquishment Report 2003 SUMMARY This report documents the work completed on EL 13/2001 – Langdon by AurionGold Exploration. In late 2002, AurionGold Exploration was acquired by Placer Dome Asia Pacific and a detailed review of Tasmanian exploration program completed. As a result of the review all non-mine lease exploration was suspended and several exploration tenements (including the Langdon EL) were recommended to be relinquished. i Langdon EL 13/2001 Relinquishment Report 2003 Table of Contents SUMMARY i 1 INTRODUCTION 1 1.1 Location and Access 1 1.2 Topography and Vegetation 1 1.3 Tenure 1 1.4 Aims 3 1.5 Exploration Model 3 2 PREVIOUS EXPLORATION 6 3WORK COMPLETED 7 4 REHABILITATION 8 5 DISCUSSION and RECOMMENDATIONS 8 6. REFERENCES 9 List of Figures 1 Langdon EL Location Map 2 Henty Model 3 Regional Geology 4 Chargeability Image ii Langdon EL 13/2001 Relinquishment Report 2003 1 INTRODUCTION EL 13/2001 - Langdon is held and explored by AurionGold Exploration Pty Ltd (formerly Goldfields Exploration Pty Ltd). -
Sr–Pb Isotopes Signature of Lascar Volcano (Chile): Insight Into Contamination of Arc Magmas Ascending Through a Thick Continental Crust N
Sr–Pb isotopes signature of Lascar volcano (Chile): Insight into contamination of arc magmas ascending through a thick continental crust N. Sainlot, I. Vlastélic, F. Nauret, S. Moune, F. Aguilera To cite this version: N. Sainlot, I. Vlastélic, F. Nauret, S. Moune, F. Aguilera. Sr–Pb isotopes signature of Lascar volcano (Chile): Insight into contamination of arc magmas ascending through a thick continental crust. Journal of South American Earth Sciences, Elsevier, 2020, 101, pp.102599. 10.1016/j.jsames.2020.102599. hal-03004128 HAL Id: hal-03004128 https://hal.uca.fr/hal-03004128 Submitted on 13 Nov 2020 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. Copyright Manuscript File Sr-Pb isotopes signature of Lascar volcano (Chile): Insight into contamination of arc magmas ascending through a thick continental crust 1N. Sainlot, 1I. Vlastélic, 1F. Nauret, 1,2 S. Moune, 3,4,5 F. Aguilera 1 Université Clermont Auvergne, CNRS, IRD, OPGC, Laboratoire Magmas et Volcans, F-63000 Clermont-Ferrand, France 2 Observatoire volcanologique et sismologique de la Guadeloupe, Institut de Physique du Globe, Sorbonne Paris-Cité, CNRS UMR 7154, Université Paris Diderot, Paris, France 3 Núcleo de Investigación en Riesgo Volcánico - Ckelar Volcanes, Universidad Católica del Norte, Avenida Angamos 0610, Antofagasta, Chile 4 Departamento de Ciencias Geológicas, Universidad Católica del Norte, Avenida Angamos 0610, Antofagasta, Chile 5 Centro de Investigación para la Gestión Integrada del Riesgo de Desastres (CIGIDEN), Av. -
Squires Catalogue
Type and Figured Palaeontological Specimens in the Tasmanian Museum and Art Gallery A CATALOGUE Compiled by Tasmanian Museum and Art Gallery Don Squires Hobart, Tasmania Honorary Curator of Palaeontology May, 2012 Type and Figured Palaeontological Specimens in the Tasmanian Museum and Art Gallery A CATALOGUE Compiled by Don Squires Honorary Curator of Palaeontology cover image: Trigonotreta stokesi Koenig 1825, the !rst described Australian fossil taxon occurs abundantly in its type locality in the Tamar Valley, Tasmania as external and internal moulds. The holotype, a wax cast, is housed at the British Museum (Natural History). (Clarke, 1979) Hobart, Tasmania May, 2012 Contents INTRODUCTION ..........................................1 VERTEBRATE PALAEONTOLOGY ...........122 PISCES .................................................. 122 INVERTEBRATE PALAEONTOLOGY ............9 AMPHIBIA .............................................. 123 NEOGENE ....................................................... 9 REPTILIA [SP?] ....................................... 126 MONOTREMATA .................................... 127 PLEISTOCENE ........................................... 9 MARSUPIALIA ........................................ 127 Gastropoda .......................................... 9 INCERTAE SEDIS ................................... 128 Ostracoda ........................................... 10 DESCRIBED AS A VERTEBRATE, MIOCENE ................................................. 14 PROBABLY A PLANT ............................. 129 bivalvia ............................................... -
The Rutile Deposits of the Eastern United States
THE RUTILE DEPOSITS OF THE EASTERN UNITED STATES. By THOMAS L. WATSON. INTRODUCTION. The titanium-bearing minerals comprise more than 60 distinct species, grouped under a variety of mineral and chemical forms, chiefly as oxides, titanates, titano-silicates, silicates, columbates, and iantalates. These minerals are widely distributed in a variety of associations and in such quantity as to make titanium a relatively abundant element. Clarke* estimates the. amount of titanium in the solid crust of the earth to be 0.44 per cent, equivalent in oxide to 0.73 per cent, the element thus standing in the ninth place in the scale of abundance, next to potassium. Most of the titanium-bearing minerals, however, are rare and are only of scientific interest. The largest concentrations of the element are as oxide (rutile), as iron titanate (ilmenite), and in iron ferrate (magnetite) as intergrown ilmenite. Of these three forms the prin cipal source of the element at present is rutile. The known workable deposits of rutile, however, are extremely few and widely sepa rated, and as the demand for titanium has greatly increased in the last few years it has been necessary for some uses to turn to ilmenite or highly titaniferous magnetites. This paper briefly summarizes present knowledge of the geology of the rutile deposits in the eastern United States and for the sake of comparison discusses several foreign deposits, each of which has produced some rutile. Of the known deposits in the United, States only those in Virginia are of commercial importance. These have been made the subject of a special report 2 by the Virginia Geological Survey, which was preceded by a preliminary paper on the rutile deposits of Amherst and Nelson counties.3 1 Clarke, F. -
Mount Lyell Abt Railway Tasmania
Mount Lyell Abt Railway Tasmania Nomination for Engineers Australia Engineering Heritage Recognition Volume 2 Prepared by Ian Cooper FIEAust CPEng (Retired) For Abt Railway Ministerial Corporation & Engineering Heritage Tasmania July 2015 Mount Lyell Abt Railway Engineering Heritage nomination Vol2 TABLE OF CONTENTS BIBLIOGRAPHIES CLARKE, William Branwhite (1798-1878) 3 GOULD, Charles (1834-1893) 6 BELL, Charles Napier, (1835 - 1906) 6 KELLY, Anthony Edwin (1852–1930) 7 STICHT, Robert Carl (1856–1922) 11 DRIFFIELD, Edward Carus (1865-1945) 13 PHOTO GALLERY Cover Figure – Abt locomotive train passing through restored Iron Bridge Figure A1 – Routes surveyed for the Mt Lyell Railway 14 Figure A2 – Mount Lyell Survey Team at one of their camps, early 1893 14 Figure A3 – Teamsters and friends on the early track formation 15 Figure A4 - Laying the rack rail on the climb up from Dubbil Barril 15 Figure A5 – Cutting at Rinadeena Saddle 15 Figure A6 – Abt No. 1 prior to dismantling, packaging and shipping to Tasmania 16 Figure A7 – Abt No. 1 as changed by the Mt Lyell workshop 16 Figure A8 – Schematic diagram showing Abt mechanical motion arrangement 16 Figure A9 – Twin timber trusses of ‘Quarter Mile’ Bridge spanning the King River 17 Figure A10 – ‘Quarter Mile’ trestle section 17 Figure A11 – New ‘Quarter Mile’ with steel girder section and 3 Bailey sections 17 Figure A12 – Repainting of Iron Bridge following removal of lead paint 18 Figure A13 - Iron Bridge restoration cross bracing & strengthening additions 18 Figure A14 – Iron Bridge new -
Composition of Garnet from the Xianghualing Skarn Sn Deposit, South China: Its Petrogenetic Significance and Exploration Potential
minerals Article Composition of Garnet from the Xianghualing Skarn Sn Deposit, South China: Its Petrogenetic Significance and Exploration Potential Fan Yu 1, Qihai Shu 1,2,* , Xudong Niu 1, Kai Xing 1,3, Linlong Li 1,4, David R. Lentz 3 , Qingwen Zeng 1 and Wenjie Yang 1 1 State Key Laboratory of Geological Processes and Mineral Resources, School of Earth Sciences and Resources, China University of Geosciences, Beijing 100083, China; [email protected] (F.Y.); [email protected] (X.N.); [email protected] (K.X.); [email protected] (L.L.); [email protected] (Q.Z.); [email protected] (W.Y.) 2 Key Laboratory of Deep-Earth Dynamics of Ministry of Natural Resources, Chinese Academy of Geological Sciences, Beijing 100037, China 3 Department of Earth Sciences, University of New Brunswick, Fredericton, NB E3B 5A3, Canada; [email protected] 4 School of Earth and Space Sciences, Peking University, Beijing 100871, China * Correspondence: [email protected]; Tel.: +86-10-82322750 Received: 11 April 2020; Accepted: 15 May 2020; Published: 18 May 2020 Abstract: The Xianghualing skarn Sn deposit in the southwestern part of the southern Hunan Metallogenic Belt is a large Sn deposit in the Nanling area. In this paper, the garnet has been analyzed by laser ablation-inductively coupled plasma-mass spectrometry (LA-ICP-MS) to obtain the concentrations of the major and trace elements. The results reveal that the garnets from the Xianghualing deposit mainly belong to andradite-grossular (grandite) solid solution and are typically richer in Al than in Fe. They show enrichment in heavy rare earth elements (HREEs) and notably lower light rare earth elements (LREEs), and commonly negative Eu anomalies, indicative of a relatively reduced formation environment.