Papers and Proceedings of the Royal Society of Tasmania
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Source and Bedrock Distribution of Gold and Platinum-Group Metals in the Slate Creek Area, Northern.Chistochina Mining District, East-Central Alaska
Source and Bedrock Distribution of Gold and Platinum-Group Metals in the Slate Creek Area, Northern.Chistochina Mining District, East-Central Alaska By: Jeffrey Y. Foley and Cathy A. Summers Open-file report 14-90******************************************1990 UNITED STATES DEPARTMENT OF THE INTERIOR Manuel Lujan, Jr., Secretary BUREAU OF MINES T S Arv. Director TN 23 .U44 90-14 c.3 UNITED STATES BUREAU OF MINES -~ ~ . 4,~~~~1 JAMES BOYD MEMORIAL LIBRARY CONTENTS Abstract 1 Introduction 2 Acknowledgments 2 Location, access, and land status 2 History and production 4 Previous work 8 Geology 8 Regional and structural geologic setting 8 Rock units 8 Dacite stocks, dikes, and sills 8 Limestone 9 Argillite and sandstone 9 Differentiated igneous rocks north of the Slate Creek Fault Zone 10 Granitic rocks 16 Tertiary conglomerate 16 Geochemistry and metallurgy 18 Mineralogy 36 Discussion 44 Recommendations 45 References 47 ILLUSTRATIONS 1. Map of Slate Creek and surrounding area, in the northern Chistochina Mining District 3 2. Geologic map of the Slate Creek area, showing sample localities and cross section (in pocket) 3. North-dipping slaty argillite with lighter-colored sandstone intervals in lower Miller Gulch 10 4. North-dipping differentiated mafic and ultramafic sill capping ridge and overlying slaty argillite at upper Slate Creek 11 5. Dike swarm cutting Jurassic-Cretaceous turbidites in Miller Gulch 12 6 60-ft-wide diorite porphyry and syenodiorite porphyry dike at Miller Gulch 13 7. Map showing the locations of PGM-bearing mafic and ultramafic rocks and major faults in the east-central Alaska Range 14 8. Major oxides versus Thornton-Tuttle differentiation index 17 9. -
Australian Hualong Pty Ltd 1 Fowler Street Zeehan Tasmania 7469 Australia; Ph: 03 6471 6613; ACN 131 800 934
Australian Hualong Pty Ltd 1 Fowler Street Zeehan Tasmania 7469 Australia; Ph: 03 6471 6613; ACN 131 800 934 13 November 2019 The Chairperson Board of Environmental Protection Authority Department of Primary Industries, Parks, Water and Environment GPO Box 44 Hobart, TAS 7001 Via email "Mulligan, Helen (EPA)" <[email protected]> Dear Sir/Madam: Re: Tenth Legion Iron Ore Mine; DRAFT 3 Notice Of Intent - Level 2 Extractive Industries 1 Proponent This submission is made by Australian Hualong Limited (AHL). Contact details are; Dr Joe Xie Australian Hualong Pty Ltd. Tel/Fax: 02 8197 6518 ABN 96131800934 ACN 131 800 934. Operations: 1 Fowler Street Zeehan Tasmania 7469. PO Box 231 Zeehan Tasmania 7469 Ph: 03 6471 6613 Registered Address: 41 Kambala Road, Bellevue Hill, NSW 2023 Mr. Zhian Zhang, sole owner of Australian Hualong, has extensive experience in iron ore, tin and base metal mining, processing and smelting, mostly through his operations in Yunnan, China. More details about Mr. Zhang's operation under Zhida Industry in China are provided in the document attached, if required. Zhida in China is also owned and controlled by Mr. Zhang. 2 Project name and location The project name is the Tenth Legion Iron Ore Mine. The Project is located approximately 10km west of the township of Zeehan on the west coast of Tasmania (Figure 1). Australian Hualong Magnetite Mine – Draft NOI Revised 3 2 FIGURE 1 PROJECT LOCATION – Zeehan Western Tasmania AHL also owns the nearby Comstock plant site, which is being rehabilitated. AHL is applying for a mining lease over the propose project area, as shown in Figure 2. -
Module 7 Igneous Rocks IGNEOUS ROCKS
Module 7 Igneous Rocks IGNEOUS ROCKS ▪ Igneous Rocks form by crystallization of molten rock material IGNEOUS ROCKS ▪ Igneous Rocks form by crystallization of molten rock material ▪ Molten rock material below Earth’s surface is called magma ▪ Molten rock material erupted above Earth’s surface is called lava ▪ The name changes because the composition of the molten material changes as it is erupted due to escape of volatile gases Rocks Cycle Consolidation Crystallization Rock Forming Minerals 1200ºC Olivine High Ca-rich Pyroxene Ca-Na-rich Amphibole Intermediate Na-Ca-rich Continuous branch Continuous Discontinuous branch Discontinuous Biotite Na-rich Plagioclase feldspar of liquid increases liquid of 2 Temperature decreases Temperature SiO Low K-feldspar Muscovite Quartz 700ºC BOWEN’S REACTION SERIES Rock Forming Minerals Olivine Ca-rich Pyroxene Ca-Na-rich Amphibole Na-Ca-rich Continuous branch Continuous Discontinuous branch Discontinuous Biotite Na-rich Plagioclase feldspar K-feldspar Muscovite Quartz BOWEN’S REACTION SERIES Rock Forming Minerals High Temperature Mineral Suite Olivine • Isolated Tetrahedra Structure • Iron, magnesium, silicon, oxygen • Bowen’s Discontinuous Series Augite • Single Chain Structure (Pyroxene) • Iron, magnesium, calcium, silicon, aluminium, oxygen • Bowen’s Discontinuos Series Calcium Feldspar • Framework Silicate Structure (Plagioclase) • Calcium, silicon, aluminium, oxygen • Bowen’s Continuous Series Rock Forming Minerals Intermediate Temperature Mineral Suite Hornblende • Double Chain Structure (Amphibole) -
Mid-Infrared Optical Constants of Clinopyroxene and Orthoclase Derived from Oriented Single-Crystal Reflectance Spectra
American Mineralogist, Volume 99, pages 1942–1955, 2014 Mid-infrared optical constants of clinopyroxene and orthoclase derived from oriented single-crystal reflectance spectra JESSICA A. ARNOLD1,*, TIMOTHY D. GLOTCH1 AND ANNA M. PLONKA1 1Department of Geosciences, Stony Brook University, Stony Brook, New York 11794, U.S.A. ABSTRACT We have determined the mid-IR optical constants of one alkali feldspar and four pyroxene compo- sitions in the range of 250–4000 cm–1. Measured reflectance spectra of oriented single crystals were iteratively fit to modeled spectra derived from classical dispersion analysis. We present the real and imaginary indices of refraction (n and k) along with the oscillator parameters with which they were modeled. While materials of orthorhombic symmetry and higher are well covered by the current literature, optical constants have been derived for only a handful of geologically relevant monoclinic materials, including gypsum and orthoclase. Two input parameters that go into radiative transfer models, the scattering phase function and the single scattering albedo, are functions of a material’s optical constants. Pyroxene is a common rock-forming mineral group in terrestrial bodies as well as meteorites and is also detected in cosmic dust. Hence, having a set of pyroxene optical constants will provide additional details about the composition of Solar System bodies and circumstellar materials. We follow the method of Mayerhöfer et al. (2010), which is based on the Berreman 4 × 4 matrix formulation. This approach provides a consistent way to calculate the reflectance coefficients in low- symmetry cases. Additionally, while many models assume normal incidence to simplify the dispersion relations, this more general model applies to reflectance spectra collected at non-normal incidence. -
Mount Heemskirk, West Coast
(No. 89.) l 8 8 2. -TASMAN I A. HOUSE OF ASSEMBLY •. MOUNT HEEMSKIRK, WEST COAST: REPORT ON TIN MINES BY G. THUREAU, ESQ., F.G.S. Laid upon the Table by the Minister of Lands, and ordered by the House to be printed, August 16, 1882. Lands and Works Office, Hobart, 5th June, 1882. :Srn, I HAVE the honor to instruct you to visit the West Coast, Mount Heemskirk, to report on the mineral prospects and permanency of the Tin deposits, whether lode or alluvial ; and also as to the progress. that has been made in the development of the mining industry in that locality since your former visit. · · I may also state that it is left to your own option whether you proceed to Heemskirk per steamer Amy, returning vid. Long Plain to report on the gold-fields in · that locality, or, if you prefer it, travel viit Mount Bischoff to Long Plain and Heemskirk, returning per steamer. It is very desirable that you proceed to the West Coast at your earliest possible convenience. I have the honor to be, Sir, Your obedient Servant, C. O'REILLY, Minister of Lands and Works. •G. THuREAU, Esq., F.G.S. Mount Heemskirk, 10th July, 1882. :Srn, I HAVE the honor to inform you that, since my arrival at Trial Harbour on Saturday last, I have decided upon the manner in which I shall proceed with the examinations of the Mmes and mineral deposits in this vicinity in compliance with your instructions. To-morrow I shall visit the Orient and Mount Agnew Mines, returning next day; then the .Cumberland and West Cumberland; the Gap Mines to follow, concluding with the Mines in the vicinity of the Montagu, Cliff, and along the north-western sea shore. -
Gaspersic Contracting Pty Ltd, Rock Processing Facility, Lynchford
Rock Processing Facility – Lynchford Environment Effects Report Prepared by: Barry Williams Date: 24 March 2020 Issue Date Recipient Organisation Revision 0 11 March 2020 Mr Joe Gaspersic Gaspersic Contracting Pty Ltd Revision 1 16 March 2020 Environment Protection Authority Revision 2 24 March 2020 Environment Protection Authority Lynchford rock processing – EER Revision 2 This Report is based entirely on information available to ILMP at the time of its creation. ILMP accepts no liability for any loss or damage, whether direct or indirect, in the event that not all relevant information that the Principal knows or should have known is provided to ILMP prior to the implementation of this Report. TABLE OF CONTENTS Table of Contents .................................................................................................................................... 2 Tables ...................................................................................................................................................... 3 Part A - Proponent information .............................................................................................................. 4 Part B – Proposal description .................................................................................................................. 5 1 Overview of activity and site ........................................................................................................... 5 2 Site layout and development ....................................................................................................... -
LATE WISCONSIN GLACIATION of TASMANIA by Eric A
Papers and Proceedings of the Royal Society of Tasmania, Volume 130(2), 1996 33 LATE WISCONSIN GLACIATION OF TASMANIA by Eric A. Calhoun, David Hannan and Kevin Kiernan (with two tables, four text-figures and one plate) COLHOUN, E.A., HANNAN, D. & KIERNAN, K., 1996 (xi): Late Wisconsin glaciation of Tasmania. In Banks, M. R. & Brown, M.F. (Eds): CLIMATIC SUCCESSION AND GLACIAL HISTORY OF THE SOUTHERN HEMISPHERE OVER THE LAST FIVE MILLION YEARS. Pap. Proc. R. Soc. Tasm. 130(2): 33-45. https://doi.org/10.26749/rstpp.130.2.33 ISSN 0080-4703. Department of Geography, University of Newcastle, Callaghan, NSW, Australia 2308 (EAC); Department of Physical Sciences, University of Tasmania at Launceston, Tasmania, Australia 7250 (DH); Forest Practices Board ofTasmania, 30 Patrick Street, Hobart, Tasmania, Australia 7000 (KK). During the Late Wisconsin, icecap and outlet glacier systems developed on the West Coast Range and on the Central Plateau ofTasmania. Local cirque and valley glaciers occurred in many other mountain areas of southwestern Tasmania. Criteria are outlined that enable Late Wisconsin and older glacial landforms and deposits to be distinguished. Radiocarbon dates show Late Wisconsin ice developed after 26-25 ka BP, attained its maximum extent c. 19 ka BP, and disappeared from the highest cirques before 10 ka BP. Important Late Wisconsin age glacial landforms and deposits of the West Coast Range, north-central and south-central Tasmania are described. Late Wisconsin ice was less extensive than ice formed during middle and earlier Pleistocene glaciations. Late Wisconsin snowline altitudes, glaciological conditions and palaeodimatic conditions are outlined. Key Words: glaciation, Tasmania, Late Wisconsin, snowline altitude, palaeoclimate. -
Zeehan Mountain Bike (MTB) Trail Design Plan
Heemskirk MTB Trails- Design Plan West Coast,Heemskirk Tasmania Mountain Bike Trail Design Plan – West Coast, Tasmania Dirt Art Pty Ltd 1 West Coast Council October 2020 Table of Contents 1 Executive Summary 6 2 Introduction 8 2.1 Project Overview 8 2.2 Key Objectives 8 2.3 Project Background 8 2.4 Establishing the West Coast as a Mountain Bike Destination 9 3 Methodology 10 3.1 Background Analysis 10 3.2 Stage 1 Consultation 10 3.3 Desktop Analysis 10 3.4 Field Analysis 11 3.5 Detailed Trail Design 11 3.6 Stage 2 Consultation 11 3.7 Report Preparation 11 4 Site Analysis 12 4.1.1 Overview 12 4.1.2 Topography 12 4.1.3 Climate 12 4.1.4 Geology 13 4.1.5 Vegetation 13 4.1.6 Environmental and Cultural Values 13 4.1.7 Land Tenure 14 4.1.8 Land Lease and License Considerations 14 5 Consultation 15 5.1 Overview 15 5.2 Key Stakeholders 15 5.2.1 West Coast Council 15 5.2.2 Tasmanian Parks and Wildlife Service 15 5.2.3 Mining and Minerals Tasmania (MMT) 15 5.2.4 Destination West Coast (DWC) 15 5.2.5 West Coast Mountain Bike Club (WCMTBC) 15 5.2.6 Police and Emergency Services 15 5.2.7 Business Community 16 5.2.8 West Coast MTB Reference Group 16 5.2.9 Community Consultation 16 6 Proposed Development 17 6.1 Overview 17 6.1.1 Project Staging 17 6.1.2 Location Map 17 6.2 Trail Head Developments 19 6.2.1 Primary Trail Head 19 Heemskirk Mountain Bike Trail Design Plan – West Coast, Tasmania Dirt Art Pty Ltd 2 6.3 Functional Trail Head 21 6.3.1 Overview 21 6.3.2 Infrastructure Development 21 6.4 Proposed Trail Network 23 6.4.1 Overview 23 6.4.2 Trail -
Mineral Collecting Sites in North Carolina by W
.'.' .., Mineral Collecting Sites in North Carolina By W. F. Wilson and B. J. McKenzie RUTILE GUMMITE IN GARNET RUBY CORUNDUM GOLD TORBERNITE GARNET IN MICA ANATASE RUTILE AJTUNITE AND TORBERNITE THULITE AND PYRITE MONAZITE EMERALD CUPRITE SMOKY QUARTZ ZIRCON TORBERNITE ~/ UBRAR'l USE ONLV ,~O NOT REMOVE. fROM LIBRARY N. C. GEOLOGICAL SUHVEY Information Circular 24 Mineral Collecting Sites in North Carolina By W. F. Wilson and B. J. McKenzie Raleigh 1978 Second Printing 1980. Additional copies of this publication may be obtained from: North CarOlina Department of Natural Resources and Community Development Geological Survey Section P. O. Box 27687 ~ Raleigh. N. C. 27611 1823 --~- GEOLOGICAL SURVEY SECTION The Geological Survey Section shall, by law"...make such exami nation, survey, and mapping of the geology, mineralogy, and topo graphy of the state, including their industrial and economic utilization as it may consider necessary." In carrying out its duties under this law, the section promotes the wise conservation and use of mineral resources by industry, commerce, agriculture, and other governmental agencies for the general welfare of the citizens of North Carolina. The Section conducts a number of basic and applied research projects in environmental resource planning, mineral resource explora tion, mineral statistics, and systematic geologic mapping. Services constitute a major portion ofthe Sections's activities and include identi fying rock and mineral samples submitted by the citizens of the state and providing consulting services and specially prepared reports to other agencies that require geological information. The Geological Survey Section publishes results of research in a series of Bulletins, Economic Papers, Information Circulars, Educa tional Series, Geologic Maps, and Special Publications. -
PRELIMINARY EVALUATION of BEDROCK POTENTIAL for NATURALLY OCCURRING ASBESTOS in ALASKA by Diana N
Alaska Division of Geological & Geophysical Surveys MISCELLANEOUS PUBLICATION 157 PRELIMINARY EVALUATION OF BEDROCK POTENTIAL FOR NATURALLY OCCURRING ASBESTOS IN ALASKA by Diana N. Solie and Jennifer E. Athey Tremolite (UAMES 34960) displaying the soft, friable fibers of asbestiform minerals. Sample collected from the Cosmos Hills area, Kobuk District, Alaska, by Eskil Anderson. Image courtesy of the University of Alaska Museum Earth Sciences Department. June 2015 Released by STATE OF ALASKA DEPARTMENT OF NATURAL RESOURCES Division of Geological & Geophysical Surveys 3354 College Road, Fairbanks, Alaska 99709-3707 907-451-5020 dggs.alaska.gov [email protected] $2.00 (text only) $13.00 (per map sheet) TABLE OF CONTENTS Abstract ................................................................................................................................................................................................................................. 1 Introduction ........................................................................................................................................................................................................................ 1 General geology of asbestos ......................................................................................................................................................................................... 2 Naturally occurring asbestos potential in Alaska .............................................................................................................................................. -
Geochemical Analysis of Beaver River Diabase in Comparison to Anorthosite Inclusions and Similar Mid- Continental Rift Diabase
GEOCHEMICAL ANALYSIS OF BEAVER RIVER DIABASE IN COMPARISON TO ANORTHOSITE INCLUSIONS AND SIMILAR MID- CONTINENTAL RIFT DIABASE Jenna Fischer NDSU Petrology Dr. Saini- Eidukat 5/3/16 BACKGROUND MID- CONTINENT RIFT SYSTEM • Also known as Keweenawan Rift • Middle Proterozoic in age: ~ 1.1 Ga • Triple- junction rift that extends into Kansas and the lower peninsula of Michigan • Outcrops from the MRS are only seen around the Lake Superior region • Generally composed of flood basalts and intrusions • Source was a mantle plume • End of MRS could be Grenvillian orogeny (debatable) Image: www.earthscope.org Miller (1997) LAKE SUPERIOR REGION • Many intrusions in comparison to volcanic rock (60%) • Types of intrusions: Troctolitic, gabbroic, anorthositic, and granitic • Duluth Complex, North Shore Volcanic Group, and Hypabyssal Intrusions • Most hypabyssal intrusions are younger than Duluth Complex • Transitional boundary between complexes • Faults Green (1972) Miller (1997) Map: Miller and Green (2002) LAKE SUPERIOR REGION Map: Miller and Green (2002) HYPABYSSAL INTRUSIONS • Definition: a sub-volcanic rock; an intrusive igneous rock that is emplaced at medium to shallow depth within the crust between volcanic and plutonic • Largest concentration of these subvolcanic intrusions forms the Beaver Bay Complex • Whole rock compositions approximate the magma compositions • Most hypabyssal intrusions do not display igneous foliation and lack signs of differentiation • But late intrusions do! Ex. Sonju Lake, Beaver River Diabase Miller and Green (2002) -
MEMORY of a JOURNEY Rock Climbing on Ben Lomond
MEMORY OF A JOURNEY Rock Climbing on Ben Lomond by Robert McMahon & Gerry Narkowicz CLIMB TASMANIA INCORPORATED To all those who enjoyed the freedom of the mountain and took part in the great adventure. “Think where man’s glory most begins and ends, And say my glory was I had such friends.” WILLIAM BUTLER YEATS BEN LOMOND First published in 2008 by Climb Tasmania Incorporated, in association with Oriel, 150 Frankford Road Exeter, Tasmania 7275. Copies of this book are available from the above address or by phoning (03) 63944225. Email : [email protected] Copyright © 2008 by Robert McMahon and Gerry Narkowicz of Climb Tasmania Incorporated. ISBN : 0 9578179 8 3 All rights reserved. No part of this publication may be reproduced, stored in or introduced into a Photography by Robert McMahon unless otherwise indicated retrieval system, or transmitted by any means (electronic, mechanical, photocopying, recording or Front Cover: Denison Crag at dawn. otherwise) without the prior permission of the publisher. Any person who does any unauthorized Frontispiece: Brent Oldinger on C.E.W Bean (23) at Ragged Jack. act in relation to this publication may be liable to criminal prosecution and civil claims for damages. Back Cover Inset: Gerry Narkowicz on the marathon second pitch of Howitzer (22) at Pavement Bluff. CONTENTS Numbers in brackets are route numbers Access Map 6 LOCAL LOSER 45 RAGGED JACK 97 Rhine Buttress (292-297) 152 Overview Map 7 Introduction and Access 47 Map To Ragged Jack 98 Trinity Face (298-302) 155 Introduction 8 Local