Stratigraphi" and Str Ttural Eastward to Mount Tttylor, C~Ht:Ra
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How to Identify Rocks and Minerals
How to Identify Rocks and Minerals fluorite calcite epidote quartz gypsum pyrite copper fluorite galena By Jan C. Rasmussen (Revised from a booklet by Susan Celestian) 2012 Donations for reproduction from: Freeport McMoRan Copper & Gold Foundation Friends of the Arizona Mining & Mineral Museum Wickenburg Gem & Mineral Society www.janrasmussen.com ii NUMERICAL LIST OF ROCKS & MINERALS IN KIT See final pages of book for color photographs of rocks and minerals. MINERALS: IGNEOUS ROCKS: 1 Talc 2 Gypsum 50 Apache Tear 3 Calcite 51 Basalt 4 Fluorite 52 Pumice 5 Apatite* 53 Perlite 6 Orthoclase (feldspar group) 54 Obsidian 7 Quartz 55 Tuff 8 Topaz* 56 Rhyolite 9 Corundum* 57 Granite 10 Diamond* 11 Chrysocolla (blue) 12 Azurite (dark blue) METAMORPHIC ROCKS: 13 Quartz, var. chalcedony 14 Chalcopyrite (brassy) 60 Quartzite* 15 Barite 61 Schist 16 Galena (metallic) 62 Marble 17 Hematite 63 Slate* 18 Garnet 64 Gneiss 19 Magnetite 65 Metaconglomerate* 20 Serpentine 66 Phyllite 21 Malachite (green) (20) (Serpentinite)* 22 Muscovite (mica group) 23 Bornite (peacock tarnish) 24 Halite (table salt) SEDIMENTARY ROCKS: 25 Cuprite 26 Limonite (Goethite) 70 Sandstone 27 Pyrite (brassy) 71 Limestone 28 Peridot 72 Travertine (onyx) 29 Gold* 73 Conglomerate 30 Copper (refined) 74 Breccia 31 Glauberite pseudomorph 75 Shale 32 Sulfur 76 Silicified Wood 33 Quartz, var. rose (Quartz, var. chert) 34 Quartz, var. amethyst 77 Coal 35 Hornblende* 78 Diatomite 36 Tourmaline* 37 Graphite* 38 Sphalerite* *= not generally in kits. Minerals numbered 39 Biotite* 8-10, 25, 29, 35-40 are listed for information 40 Dolomite* only. www.janrasmussen.com iii ALPHABETICAL LIST OF ROCKS & MINERALS IN KIT See final pages of book for color photographs of rocks and minerals. -
Crystalline Silica, Cristobalite (CAS No
Crystalline Silica, Quartz (CAS No. 14808-60-7) Crystalline Silica, Cristobalite (CAS No. 14464-46-1) Crystalline Silica, Tridymite (CAS No. 15468-32-3) Diatomaceous earth (CAS No. 61790-53-2) This dossier on crystalline silica, quartz, cristobalite and tridymite and diatomaceous earth presents the most critical studies pertinent to the risk assessment of these substances in their use in drilling muds and cement additives. This dossier does not represent an exhaustive or critical review of all available data. The majority of information presented in this dossier was obtained from the ECHA database that provides information on chemicals that have been registered under the EU REACH (ECHA). Where possible, study quality was evaluated using the Klimisch scoring system (Klimisch et al., 1997). For the purpose of this dossier, crystalline silica, quartz (CAS No. 14808-60-7) has been reviewed as representative of crystalline silica cristobalite and tridymite. Crystalline silica, quartz is also considered representative of diatomaceous earth, as they both consist mainly of silicon dioxide. Screening Assessment Conclusion – Crystalline silica, quartz, cristobalite and tridymite and diatomaceous earth are classified as tier 1 chemicals and require a hazard assessment only. 1 BACKGROUND Crystalline silica is a common mineral found in the earth's crust. Materials like sand, stone, concrete and mortar contain crystalline silica. It is also used to make products such as glass, pottery, ceramics, bricks and artificial stone. Silica, in the form of sand, is used as the main ingredient in sand casting for the manufacture of metallic components in engineering and other applications. The high melting point of silica enables it to be used in such applications. -
The Hoodoo U.S
National Park Service The Hoodoo U.S. Department of the Interior Bryce Canyon Map & Hiking Guide Fall - Winter - Spring 2010 – 2011 Questions? Bring this newspaper to the Visitor Center! What’s Inside EMERGENCY INFORMATION PAGE 2 Accessibility . 2 Backpacking . 5 Geology . .3 Hiking Map . 5 Information & Services . 2 Natural History Association . 7 Visitor Center Hours Nearby Attractions . 8 Park Map . 4 October 3 – November 6, 2010 Prescribed Fire . 6 8 a.m. – 6 p.m. Ranger Programs . 3 November 7, 2010 – April 2, 2011 Safety . 2 8 a.m. – 4:30 p.m. Trail Guide . 5 Volunteers, Partners & Donors . 7 April 3 - May 7, 2011 Weather . 6 8 a.m. – 6 p.m. Wildlife . 6 Kevin Doxstater Emergencies Call 911 or 435-676-2411 National Park Service Be Safe at U.S. Department of the Interior Bryce Canyon 24–hours a day or contact a Park Ranger Park Headquarters Mailing Address Web How many people die at Bryce? Fortunately, Bryce averages less than 1 435 834-5322 PO Box 640201 Website: www.nps.gov/brca fatality per year. In order of decreasing Fax 435 834-4703 Bryce, Utah 84764-0201 abundance fatalities are caused by: Twitter: brycecanyonNPS •Heart attacks Lost & Found: 435 834-4736 •Falling off cliffs •Lightning Travelers Information Station: Tune radio to 1590 AM for park information •Vehicle accidents Unfortunately, hundreds of serious injuries have also needlessly occurred, Information and Services some out of ignorance, but too many Park Roads Entrance Fees Lodging from ignoring park safety warnings. The main park road is open year-round S Private Vehicle: $25 per vehicle, Bryce Canyon Lodge: Open Top 10 Causes of Bryce Injuries but may be temporarily closed immediately good for 7 days at Bryce Canyon only. -
Bedrock Geology Glossary from the Roadside Geology of Minnesota, Richard W
Minnesota Bedrock Geology Glossary From the Roadside Geology of Minnesota, Richard W. Ojakangas Sedimentary Rock Types in Minnesota Rocks that formed from the consolidation of loose sediment Conglomerate: A coarse-grained sedimentary rock composed of pebbles, cobbles, or boul- ders set in a fine-grained matrix of silt and sand. Dolostone: A sedimentary rock composed of the mineral dolomite, a calcium magnesium car- bonate. Graywacke: A sedimentary rock made primarily of mud and sand, often deposited by turbidi- ty currents. Iron-formation: A thinly bedded sedimentary rock containing more than 15 percent iron. Limestone: A sedimentary rock composed of calcium carbonate. Mudstone: A sedimentary rock composed of mud. Sandstone: A sedimentary rock made primarily of sand. Shale: A deposit of clay, silt, or mud solidified into more or less a solid rock. Siltstone: A sedimentary rock made primarily of sand. Igneous and Volcanic Rock Types in Minnesota Rocks that solidified from cooling of molten magma Basalt: A black or dark grey volcanic rock that consists mainly of microscopic crystals of pla- gioclase feldspar, pyroxene, and perhaps olivine. Diorite: A plutonic igneous rock intermediate in composition between granite and gabbro. Gabbro: A dark igneous rock consisting mainly of plagioclase and pyroxene in crystals large enough to see with a simple magnifier. Gabbro has the same composition as basalt but contains much larger mineral grains because it cooled at depth over a longer period of time. Granite: An igneous rock composed mostly of orthoclase feldspar and quartz in grains large enough to see without using a magnifier. Most granites also contain mica and amphibole Rhyolite: A felsic (light-colored) volcanic rock, the extrusive equivalent of granite. -
Slabs | Tiles | Accessories Bring Your Vision to Life
SLABS | TILES | ACCESSORIES BRING YOUR VISION TO LIFE ¨STONES MARBLE ONYX LIMESTONE GRANITE TRAVERTINE QUARTZITE SEMI-PRECIOUS SPECIALTY STONE SLATE AGGLOMERATES MOSAICS MAGNUM OPUSTONE There is nothing quite like it. When you encounter the ideal stone, nothing else even comes close. More than just color, tone, texture and complexity, our stone must possess a certain character that elevates it and brings it to life. Richness, depth, a soul. We travel the globe to source the finest possible stones in a relentless pursuit of perfection. From quarry to quarry, we seek out and purchase the very best, the most distinctive, the only stones worthy of being Opustone. And we back it up with phenomenal industry-leading service, the kind of service you would only expect from a company that brings you the finest stones on earth. After all, we are not merely distributors of natural and manufactured stone. We assemble a distinctive, natural palette of materials for the design and creation of unique living spaces. Our stones were destined to be lived with. Nothing but Opustone will ever do. ¨GRANITE ¨MARBLE LEGENDARY AND TIMELESS. DESIGNED BY NATURE TO DEFINE THE SPACES WHERE HISTORY TAKES PLACE. ONYX¨ DEEP AND PONDEROUS. LOOK CLOSELY AND DISCOVER VAST WORLDS WITHIN. ¨LIMESTONE DEFINE YOUR SPACE WITH SUBTLE COLORS AND COMPLEX TEXTURES. BEAUTY ENDURES, SOLID AND ETERNAL, GRANITE¨ WAVES OF COLOR MELDING INTO ONE. COMPLEXITY IN ITS MOST SIMPLE FORM. ¨TRAVERTINE QUARTZITE¨ A DRAMATIC EXPERIENCE IN RICH TONES AND STRIKING DETAIL. ¨SEMI-PRECIOUS TRANSCENDING TIME WHERE. VISIONS BECOME REALITY. SPECIALTY STONE¨ ELEGANCE THAT GOES WELL BEYOND THE GOES WELL BEYOND ELEGANCE THAT OF THE ORDINARY. -
Geology of the Hoodoo Mountain Area (NTS 104B/14W)
Geology of the Hoodoo Mountain Area (NTS 104B/14W) by M.G. Mihalynuk1, A. Zagorevski2 and F. Cordey3 KEYWORDS: Hoodoo Mountain, Sphaler Creek, Stikine information is included herein; see Mihalynuk et al. assemblage, Stuhini Group, copper porphyry, Galore (2010, 2011a) for additional unit descriptions and Creek, Dirk prospect, Telena prospect, volcanic-hosted previous work. massive sulphide, Rock and Roll, Andrei Icefield, Iskut River LOCATION AND ACCESS INTRODUCTION Hoodoo Mountain area (NTS 104/14W) can be accessed either via the Bronson airstrip to the immediate Hoodoo Mountain area is located between the south, or via the Espaw camp located at kilometre 91 on enormous copper-gold resource defined at Galore Creek the incomplete Galore Creek access road, immediately and the past-producing gold deposits of the Bronson north of the map area. At the time of our field program, Camp. Reserves at Galore Creek in proven and probable both required air transport from Bob Quinn airstrip categories are 528 Mt grading 0.58% Cu, 0.32 g/t Au and located on Highway 37, approximately 400 km by road 6.02 g/t Ag (Gill et al., 2011). In the Bronson Camp, the from both Smithers and Terrace (Figure 1). Bob Quinn Snip mine produced 32 million grams of gold, 12 million airstrip is 60 km from both Bronson airstrip and Espaw grams silver and nearly 250 000 kilograms copper from Camp. about 1.2 million tonnes between 1991 and 1999; Johnny Mountain produced for less than two years with produced, proven, probable and “possible” categories totalling 0.622 Mt at 19.54 g/t Au (MINFILE, 2011). -
S a N R a F a E L S W E
UTAH GEOLOGICAL SURVEY SURVEY NOTES Volume 34, Number 2 June 2002 S AN R AFAEL S WELL TABLE OF CONTENTS Cache Valley Sensitivity and The Vulnerabilty to Pesticides . 1 New Publications . 4 GeoSights: Little Egypt . 5 Director’s Landslide Damaged Six Layton Homes . 6 Perspective Glad You Asked: What are minerals used for? . 8 by Richard G. Allis San Rafael Swell Proposed as New National Monument . 9 Energy News: Growing Importance of Coalbed Gas in Utah . 12 n an eleventh-hour decision as the assumed to be the exact way the Act will actually be administered. A Survey News . 13 Utah legislature ended its session Ithis March, the “Professional Geolo- license will be required for all geologi- cal work relevant to public welfare, or Design by Vicky Clarke gist Licensing Act” was passed, and it has subsequently been signed into law. safeguarding the life, health, property and the environment in Utah. Among Cover: San Rafael Swell, photograph courtesy Utah becomes the 31st state to require of Utah Travel Council. professional geologist licensure, and it several exclusions are subordinates of is the 27th to adopt the National Asso- a licensed professional geologist, indi- State of Utah ciation of State Boards of Geology viduals engaged in teaching or Michael O. Leavitt, Governor (ASBOG) exam as the standard for research in the physical or natural sci- Department of Natural Resources Robert Morgan, Executive Director licensure. The relatively rapid passing ences who are not otherwise engaged UGS Board of the Act is a tribute to the energy, in practicing geology before the public, Robert Robison, Chair enthusiasm and lobbying skills of prac- employees of companies if their work Geoff Bedell Craig Nelson ticing geologists in Utah. -
List of Stones
LIST OF STONES cognac colour diamond DN prehnite PR diamond D pyrite PY, MA heat enhanced black diamond DB quartzite QW amazonite AZ treated quartz RA amber AMB, R rhodolite RHL, RHG, RHP amethyst AM, AMP rock crystal RC, BK aquamarine AQ rose quartz RQ black onyx ON, O ruby RU black spinel SPB, ME sapphire SA black/white agate cameo CAM smoky quartz SQ blue topaz BTP, TPA smoky quartz/mother of pearl doublet P carnelian CAR, K tanzanite TZ chalcedony CA tourmalinated quartz BRU chrysoprase CH treated quartz RA citrine CI, CIG, CIC, CIY treated topaz, paraiba blue TPP cognac quartz CQ treated topaz, pink TPK garnet GR, GA treated pink sapphire PSA green quartz GQ, GAM turquoise TQ grey moonstone MSG whisky quartz WQ, BQ hematite HEM white agate AGW iolite IO, IOB white opal WOP labradorite LBG black crystal NCK lapis lazuli LP, L black cubic zirconia CZK lemon quartz LQ blue cubic zirconia CZB light colour amethyst PAM brown cubic zirconia BCZ moonstone MS champagne coloured cubic zirconia CCZ nephrite-jade NJA cubic zirconia CZ orange moonstone MSO dark blue synthetic spinel SSB peridot PE, PEA dark green cubic zirconia CZN pink opal POP green cubic zirconia GCZ pink rock PRO, RNI grey crystal NGY pink sapphire PSA honey cubic zirconia CZM pink tourmaline TU lavender cubic zirconia LCZ light blue cubic zirconia CZA copper coloured cultured pearl PRC, RRC light blue synthetic spinel SSL golden mabe cultured pearl PGO light rose cubic zirconia TCZ green cultured pearl PG lime cubic zirkonia CZL grey faceted cultured pearl PSG orange cubic -
Geological Field Trip 1 from Opals and Ancient Mountaintops to Ice Age Lakes Guide Written by Dr
1 Geological Field Trip 1 From Opals and Ancient Mountaintops to Ice Age Lakes Guide written by Dr. E.K. Peters WSU Geology Department OVERVIEW: The first portion of the trip is in central Pullman and may be most easily accomplished on foot. It consists of five stops, "A" through "E," and can be done in an hour or two. The rest of the trip requires a vehicle and will take the remainder of a long day. SKETCH MAP OF THE TRIP Start: Kate Webster Physical Science Building, WSU-Pullman Campus, College Avenue Proceed west on the service portion of College Avenue, under the skywalk of Owen Science Library and then onto the regular section of College Avenue. Continue west, going downhill. The steepest portion of College Avenue takes you 2 past engineering buildings on your right and then by WSU's power plant at the bottom of the hill. Stop A: Depending on the season, you may see large piles of bituminous coal at the power plant. Coal is the compressed and compacted remains of ancient plants. You can think of it as fossil plant matter, made mostly of carbon. There are three common grades of coal used in the world: 1. Brown coal or lignite: this is low grade coal. It has abundant nitrogen and sulfur impurities. It therefore does not burn cleanly. The nitrogen and sulfur compounds go up in the smoke and then combine with water droplets in the air to make "acid rain" (small amounts of nitric and sulfuric acids). Lignite (brown coal) is used in China today, but not in the U.S. -
The Dalradian Rocks of the North-East Grampian Highlands of Scotland
Revised Manuscript 8/7/12 Click here to view linked References 1 2 3 4 5 The Dalradian rocks of the north-east Grampian 6 7 Highlands of Scotland 8 9 D. Stephenson, J.R. Mendum, D.J. Fettes, C.G. Smith, D. Gould, 10 11 P.W.G. Tanner and R.A. Smith 12 13 * David Stephenson British Geological Survey, Murchison House, 14 West Mains Road, Edinburgh EH9 3LA. 15 [email protected] 16 0131 650 0323 17 John R. Mendum British Geological Survey, Murchison House, West 18 Mains Road, Edinburgh EH9 3LA. 19 Douglas J. Fettes British Geological Survey, Murchison House, West 20 Mains Road, Edinburgh EH9 3LA. 21 C. Graham Smith Border Geo-Science, 1 Caplaw Way, Penicuik, 22 Midlothian EH26 9JE; formerly British Geological Survey, Edinburgh. 23 David Gould formerly British Geological Survey, Edinburgh. 24 P.W. Geoff Tanner Department of Geographical and Earth Sciences, 25 University of Glasgow, Gregory Building, Lilybank Gardens, Glasgow 26 27 G12 8QQ. 28 Richard A. Smith formerly British Geological Survey, Edinburgh. 29 30 * Corresponding author 31 32 Keywords: 33 Geological Conservation Review 34 North-east Grampian Highlands 35 Dalradian Supergroup 36 Lithostratigraphy 37 Structural geology 38 Metamorphism 39 40 41 ABSTRACT 42 43 The North-east Grampian Highlands, as described here, are bounded 44 to the north-west by the Grampian Group outcrop of the Northern 45 Grampian Highlands and to the south by the Southern Highland Group 46 outcrop in the Highland Border region. The Dalradian succession 47 therefore encompasses the whole of the Appin and Argyll groups, but 48 also includes an extensive outlier of Southern Highland Group 49 strata in the north of the region. -
Geographic Names
GEOGRAPHIC NAMES CORRECT ORTHOGRAPHY OF GEOGRAPHIC NAMES ? REVISED TO JANUARY, 1911 WASHINGTON GOVERNMENT PRINTING OFFICE 1911 PREPARED FOR USE IN THE GOVERNMENT PRINTING OFFICE BY THE UNITED STATES GEOGRAPHIC BOARD WASHINGTON, D. C, JANUARY, 1911 ) CORRECT ORTHOGRAPHY OF GEOGRAPHIC NAMES. The following list of geographic names includes all decisions on spelling rendered by the United States Geographic Board to and including December 7, 1910. Adopted forms are shown by bold-face type, rejected forms by italic, and revisions of previous decisions by an asterisk (*). Aalplaus ; see Alplaus. Acoma; township, McLeod County, Minn. Abagadasset; point, Kennebec River, Saga- (Not Aconia.) dahoc County, Me. (Not Abagadusset. AQores ; see Azores. Abatan; river, southwest part of Bohol, Acquasco; see Aquaseo. discharging into Maribojoc Bay. (Not Acquia; see Aquia. Abalan nor Abalon.) Acworth; railroad station and town, Cobb Aberjona; river, IVIiddlesex County, Mass. County, Ga. (Not Ackworth.) (Not Abbajona.) Adam; island, Chesapeake Bay, Dorchester Abino; point, in Canada, near east end of County, Md. (Not Adam's nor Adams.) Lake Erie. (Not Abineau nor Albino.) Adams; creek, Chatham County, Ga. (Not Aboite; railroad station, Allen County, Adams's.) Ind. (Not Aboit.) Adams; township. Warren County, Ind. AJjoo-shehr ; see Bushire. (Not J. Q. Adams.) Abookeer; AhouJcir; see Abukir. Adam's Creek; see Cunningham. Ahou Hamad; see Abu Hamed. Adams Fall; ledge in New Haven Harbor, Fall.) Abram ; creek in Grant and Mineral Coun- Conn. (Not Adam's ties, W. Va. (Not Abraham.) Adel; see Somali. Abram; see Shimmo. Adelina; town, Calvert County, Md. (Not Abruad ; see Riad. Adalina.) Absaroka; range of mountains in and near Aderhold; ferry over Chattahoochee River, Yellowstone National Park. -
Quartzite Rocks Transported Long Distances Northwest States and Adjacent Canada
Part IV Quartzite Rocks Transported Long Distances Northwest States and Adjacent Canada During uplift and erosion of the continents, a wide variety of rocks were eroded by Flood currents rushing off the continents. The softer rocks, like siltstone, sandstone, limestone, basalt, and granite, would be rapidly pulverized during transport. The resistant rocks would be carried down current and quickly rounded. These resistant rocks would became smaller the farther the rocks were transported. If the distance of transport was far enough, however, even resistant rocks would be totally annihilated into fine particles. But before the resistant rocks could be totally pulverized, many of them were deposited on the Earth’s surface, leaving a trail left behind that demonstrates the powerful currents sweep- ing off the continents during the Retreating Stage of the Flood. The finer-grained rocks that were pulverized would sometimes be deposited with the resistant rocks, but much of this sediment would be carried off the continents. If the resistant rock type is unique to a particular area, one can calculate the distance from the point of erosion to the rounded gravel deposits down current to see how far the unique type of rock was transported. We can compare such distances to the drainage pat- tern today to see if modern rivers were responsible for the transport, as mostly claimed within the uniformitarian paradigm. This part will summarize extensive research over about 20 years by Peter Klevberg, John Hergenrather, and myself on the numerous locations where well-rounded quartzite rocks are found on the surface in the northwest states and adjacent Canada.