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Geomathematics in Hungarian Geology
JOURNAL OF HUNGARIAN GEOMATHEMATICS Volume 1 Geomathematics in Hungarian Geology George Bárdossy1 1Hungarian Academy of Sciences ([email protected]) Abstract The application of mathematical methods has a long tradition in Hungary. The main bases of geomathematics are the universities of the country, more closely the departments related to geology, such as general geology, stratigraphy, paleontology, structural geology, mineralogy, pet-rography, geochemistry, hydrogeology and applied geology. The Hungarian Geological Survey, the Geological Institute of Hungary and the Geochemical Research Laboratory of the Hungarian Academy of Sciences are institutions where geomathematical methods found broad applications. Finally, some mining and exploration companies, like the Hungarian Oil Company (MOL), the Bakony Bauxite Mining Company and others are regularly using geomathematical methods, mainly for the evaluation of exploration results, for deposit and reservoir modelling and for the estimation of resources. Keywords: geomathematics, applications. The application of mathematical methods has a long tradition in Hungary. The main bases of geomathematics are the universities of the country, more closely the departments related to geology, such as general geology, stratigraphy, paleontology, structural geology, mineralogy, pet-rography, geochemistry, hydrogeology and applied geology. The Hungarian Geological Survey, the Geological Institute of Hungary and the Geochemical Research Laboratory of the Hungarian Academy of Sciences are institutions where geomathematical methods found broad applications. Finally, some mining and exploration companies, like the Hungarian Oil Company (MOL), the Bakony Bauxite Mining Company and others are regularly using geomathematical methods, mainly for the evaluation of exploration results, for deposit and reservoir modelling and for the estimation of resources. In the following examples of recent geomathematical applications are listed. -
Applied Computing and Geosciences
APPLIED COMPUTING AND GEOSCIENCES AUTHOR INFORMATION PACK TABLE OF CONTENTS XXX . • Description p.1 • Editorial Board p.2 • Guide for Authors p.3 ISSN: 2590-1974 DESCRIPTION . Applied Computing & Geosciences is an online-only, open access journal focused on all aspects of computing in the geosciences. Like its companion title Computers & Geosciences, Applied Computing & Geosciences' mission is to advance and disseminate knowledge in all the related areas of at the interface between computer sciences and geosciences. Applied Computing & Geosciences publishes original articles, review articles and case-studies. Alongside welcoming direct submissions, the journal will benefit from an Article Transfer Service which will allow the author(s) to transfer their manuscript online from Computers & Geosciences thus saving authors time and effort spent on formatting and resubmitting. Applied Computing & Geosciences offers the community an innovative, efficient and flexible route for the publication of scientifically and ethically sound articles which address problems in the geosciences which includes: Algorithms; Artificial Intelligence; Computational Methods; Computer Graphics; Computer Visualization; Data Models; Data Processing; Database Retrieval; Distributed Systems; E-Geoscience; Geocomputation; Geographical Information Systems; Geoinformatics; Geomathematics; Image Analysis; Information Retrieval; Modelling; Near and Remote Sensing Data Analysis; Ontologies; Parallel Systems; Programming Languages; Remote Sensing; Simulation; Social Media; -
2006 Executive Committee CSPG 2005 Strategic Planning Session Geoscience Mixer 2005 William (Bill) Carruthers Gu
December 11/11/05 6:16 PM Page 1 Canadian Publication Mail Contract - 40070050 $3.00 VOLUME 32, ISSUE 11 DECEMBER 2005 ■ 2006 Executive Committee ■ CSPG 2005 Strategic Planning Session ■ Geoscience Mixer 2005 ■ William (Bill) Carruthers Gussow (1908-2005) ■ 2006 CSPG CSEG CWLS Joint Convention December 11/14/05 9:19 PM Page 2 December 11/11/05 6:16 PM Page 3 CSPG OFFICE #160, 540 - 5th Avenue SW Calgary,Alberta, Canada T2P 0M2 Tel:403-264-5610 Fax: 403-264-5898 Web: www.cspg.org Office hours: Monday to Friday, 8:30am to 4:00pm CONTENTS Business Manager:Tim Howard Email: [email protected] Office Manager: Deanna Watkins Email: [email protected] Communications Manager: Jaimè Croft Larsen Email: [email protected] Conventions Manager: Lori Humphrey-Clements ARTICLES Email: [email protected] Corporate Relations Manager: Kim MacLean 2006 EXECUTIVE COMMITTEE . 28 Email: [email protected] CSPG 2005 STRATEGIC PLANNING SESSION . 33 EDITORS/AUTHORS Please submit RESERVOIR articles to the CSPG GEOSCIENCE MIXER 2005 . 35 office. Submission deadline is the 23rd day of the month, two months prior to issue date. GOOGLING GEOMORPHOLOGY . 36 (e.g., January 23 for the March issue). To publish an article, the CSPG requires digital WILLIAM (BILL) CARRUTHERS GUSSOW (1908 - 2005) . 38 copies of the document. Text should be in Microsoft Word format and illustrations should 2006 CSPG CSEG CWLS JOINT CONVENTION . 43 be in TIFF format at 300 dpi. For additional information on manuscript preparation, refer to the Guidelines for Authors published in the CSPG Bulletin or contact the editor. -
Seismic Wavefield Imaging of Earth's Interior Across Scales
TECHNICAL REVIEWS Seismic wavefield imaging of Earth’s interior across scales Jeroen Tromp Abstract | Seismic full- waveform inversion (FWI) for imaging Earth’s interior was introduced in the late 1970s. Its ultimate goal is to use all of the information in a seismogram to understand the structure and dynamics of Earth, such as hydrocarbon reservoirs, the nature of hotspots and the forces behind plate motions and earthquakes. Thanks to developments in high- performance computing and advances in modern numerical methods in the past 10 years, 3D FWI has become feasible for a wide range of applications and is currently used across nine orders of magnitude in frequency and wavelength. A typical FWI workflow includes selecting seismic sources and a starting model, conducting forward simulations, calculating and evaluating the misfit, and optimizing the simulated model until the observed and modelled seismograms converge on a single model. This method has revealed Pleistocene ice scrapes beneath a gas cloud in the Valhall oil field, overthrusted Iberian crust in the western Pyrenees mountains, deep slabs in subduction zones throughout the world and the shape of the African superplume. The increased use of multi- parameter inversions, improved computational and algorithmic efficiency , and the inclusion of Bayesian statistics in the optimization process all stand to substantially improve FWI, overcoming current computational or data- quality constraints. In this Technical Review, FWI methods and applications in controlled- source and earthquake seismology are discussed, followed by a perspective on the future of FWI, which will ultimately result in increased insight into the physics and chemistry of Earth’s interior. -
Colorado Fourteeners Checklist
Colorado Fourteeners Checklist Rank Mountain Peak Mountain Range Elevation Date Climbed 1 Mount Elbert Sawatch Range 14,440 ft 2 Mount Massive Sawatch Range 14,428 ft 3 Mount Harvard Sawatch Range 14,421 ft 4 Blanca Peak Sangre de Cristo Range 14,351 ft 5 La Plata Peak Sawatch Range 14,343 ft 6 Uncompahgre Peak San Juan Mountains 14,321 ft 7 Crestone Peak Sangre de Cristo Range 14,300 ft 8 Mount Lincoln Mosquito Range 14,293 ft 9 Castle Peak Elk Mountains 14,279 ft 10 Grays Peak Front Range 14,278 ft 11 Mount Antero Sawatch Range 14,276 ft 12 Torreys Peak Front Range 14,275 ft 13 Quandary Peak Mosquito Range 14,271 ft 14 Mount Evans Front Range 14,271 ft 15 Longs Peak Front Range 14,259 ft 16 Mount Wilson San Miguel Mountains 14,252 ft 17 Mount Shavano Sawatch Range 14,231 ft 18 Mount Princeton Sawatch Range 14,204 ft 19 Mount Belford Sawatch Range 14,203 ft 20 Crestone Needle Sangre de Cristo Range 14,203 ft 21 Mount Yale Sawatch Range 14,200 ft 22 Mount Bross Mosquito Range 14,178 ft 23 Kit Carson Mountain Sangre de Cristo Range 14,171 ft 24 Maroon Peak Elk Mountains 14,163 ft 25 Tabeguache Peak Sawatch Range 14,162 ft 26 Mount Oxford Collegiate Peaks 14,160 ft 27 Mount Sneffels Sneffels Range 14,158 ft 28 Mount Democrat Mosquito Range 14,155 ft 29 Capitol Peak Elk Mountains 14,137 ft 30 Pikes Peak Front Range 14,115 ft 31 Snowmass Mountain Elk Mountains 14,099 ft 32 Windom Peak Needle Mountains 14,093 ft 33 Mount Eolus San Juan Mountains 14,090 ft 34 Challenger Point Sangre de Cristo Range 14,087 ft 35 Mount Columbia Sawatch Range -
Environmental Science Challenge for the Seventies
Environmental Science Challenge for the Seventies NATIONAL SCIENCE BOARD 1971 IVAltIliJiTit4iU1J REPORT OF THE NATIONAL SCIENCE BOARD NATIONAL SCIENCE BOARD NATIONAL SCIENCE FOUNDATION 1971 For sale by the Superintendent of Documents, U.S. Government Printing Office Washington, D.C. 20402- Price 40 cents LETTER OF TRANSMITTAL January 31, 1971 My Dear Mr. President: It is an honor to transmit to you this Report, prepared in re sponse to Section 4(g) of the National Science Foundation Act, as amended by Public Law 90-407, which requires the National Sci ence Board to submit annually an appraisal of the status and health of science, as well as that of the related matters of manpower and other resources, in reports to be forwarded to the Congress. This is the third report of this series. In choosing environmental science as the topic of this Report, the National Science Board hopes to focus attention on a critical aspect of environmental concern, one that is frequently taken for granted, whose status is popularly considered to be equivalent to that of science generally, and yet one whose contribution to human welfare will assume rapidly growing importance during the decades immediately ahead. The National Science Board strongly supports the many recent efforts of the Executive Branch, the Congress, and other public and private organizations to deal with the bewildering array of environmental problems that confront us all. Many of these prob lems can be reduced in severity through the use of today's science and technology by an enlightened citizenry. This is especially true of many forms of pollution and environmental degradation result ing from overt acts of man. -
Quaternary) Climates in New Mexico
Lucas, S.G., Morgan, G.S. and Zeigler, K.E., eds., 2005, New Mexico’s Ice Ages, New Mexico Museum of Natural History and Science Bulletin No. 28. 115 RIVER RESPONSES TO ICE AGE (QUATERNARY) CLIMATES IN NEW MEXICO FRANK J. PAZZAGLIA Department of Earth and Environmental Science, Lehigh University, 31 Williams, Bethlehem, PA 18015, [email protected] Abstract–Rivers shape landscapes by responding to a range of external forces including climate and climate change. This paper examines the general role that Quaternary climates play in river channel form and process and how rivers in New Mexico have responded specifically to Pleistocene and Holocene climatic changes. The impact of Quaternary climates on New Mexican streams is cast in the context of how channel form and process has evolved through the Phanerozoic and in light of a large and growing data set for measurable changes in channel form and watershed hydrology over human time scales. Changes in channel form and process are commonly equivocal; there is no single unique response that follows from a given change in climate. Neverthe- less, geomorphologists have developed process-response models that limit the range of expected responses and help guide an interpretation of how Quaternary climates ultimately have shaped the New Mexican landscape. Long-term landscape evolution trends like the rate of valley incision and human-scale trends like the arroyo incision-aggradation cycle are discussed in the context of Quaternary climates. The general conclusion is that climate change through the Quaternary has had a major impact on pacing the rate of valley incision and defining the geomorphic thresholds that control arroyo incision, but that other factors, including tectonics and humans, also contribute. -
San Juan National Forest
SAN JUAN NATIONAL FOREST Colorado UNITED STATES DEPARTMENT OF AGRICULTURE V 5 FOREST SERVICE t~~/~ Rocky Mountain Region Denver, Colorado Cover Page. — Chimney Rock, San Juan National Forest F406922 UNITED STATES GOVERNMENT PRINTING OFFICE WASHINGTON : 1942 * DEPOSITED BY T,HE UNITED STATES OF AMERICA San Juan National Forest CAN JUAN NATIONAL FOREST is located in the southwestern part of Colorado, south and west of the Continental Divide, and extends, from the headwaters of the Navajo River westward to the La Plata Moun- \ tains. It is named after the San Juan River, the principal river drainage y in this section of the State, which, with its tributaries in Colorado, drains the entire area within the forest. It contains a gross area of 1,444,953 ^ acres, of which 1,255,977 are Government land under Forest Service administration, and 188,976 are State and privately owned. The forest was created by proclamation of President Theodore Roosevelt on June 3, 1905. RICH IN HISTORY The San Juan country records the march of time from prehistoric man through the days of early explorers and the exploits of modern pioneers, each group of which has left its mark upon the land. The earliest signs of habitation by man were left by the cliff and mound dwellers. Currently with or following this period the inhabitants were the ancestors of the present tribes of Indians, the Navajos and the Utes. After the middle of the eighteenth century the early Spanish explorers and traders made their advent into this section of the new world in increasing numbers. -
American Rockies: Photographs by Gus Foster EXHIBITION LIST All
American Rockies: Photographs by Gus Foster EXHIBITION LIST All photographs courtesy of artist except Windom Peak. Photographs are Ektacolor prints. Dimensions are frame size only. 1. Wheeler Peak, 1987 Sangre de Cristo Range Wheeler Peak Wilderness, New Mexico 360 degree panoramic photograph 30" x 144" 2. Continental Divide, 1998 Black Range Aldo Leopold Wilderness, New Mexico 372 degree panoramic photograph 24" x 96" 3. Truchas Lakes, 1986 Sangre de Cristo Range Pecos Wilderness, New Mexico 378 degree panoramic photograph 24" x 96" 4. Pecos Big Horns, 1989 Sangre de Cristo Range Pecos Wilderness, New Mexico 376 degree panoramic photograph 24" x 96" 5. Aspens, 1993 Sangre de Cristo Range Santa Fe National Forest, New Mexico 375 degree panoramic photograph 30" x 144" 6. Sandia Mountains, 1997 Sangre de Cristo Range Sandia Mountain Wilderness, New Mexico 365 degree panoramic photograph 16" x 70" 7. Chimayosos Peak, 1988 Sangre de Cristo Range Pecos Wilderness, New Mexico 376 degree panoramic photograph 16" x 70" 8. Venado Peak, 1990 Sangre de Cristo Range Latir Wilderness, New Mexico 380 degree panoramic photograph 16" x 70" 9. Winter Solstice, 1995 Sangre de Cristo Range Carson National Forest, New Mexico 368 degree panoramic photograph 16" x 70" 10. Beaver Creek Drainage, 1988 Carson National Forest Cruces Basin Wilderness, New Mexico 384 degree panoramic photograph 30" x 144" 11. Mt. Antero, 1990 Sawatch Range San Isabel National Forest, Colorado 368 degree panoramic photograph 24" x 96" 12. Mt. Yale, 1988 Sawatch Range Collegiate Peaks Wilderness, Colorado 370 degree panoramic photograph 24" x 96" 13. Windom Peak, 1989 Needle Mountains, San Juan Range Weminuche Wilderness, Colorado 378 degree panoramic photograph 30" x 144" Collection of The Albuquerque Museum 14. -
Description of the Telluride Quadrangle
DESCRIPTION OF THE TELLURIDE QUADRANGLE. INTRODUCTION. along the southern base, and agricultural lands water Jura of other parts of Colorado, and follow vents from which the lavas came are unknown, A general statement of the geography, topography, have been found in valley bottoms or on lower ing them comes the Cretaceous section, from the and the lavas themselves have been examined slopes adjacent to the snow-fed streams Economic Dakota to the uppermost coal-bearing member, the only in sufficient degree to show the predominant and geology of the San Juan region of from the mountains. With the devel- imp°rtance- Colorado. Laramie. Below Durango the post-Laramie forma presence of andesites, with other types ranging opment of these resources several towns of tion, made up of eruptive rock debris and known in composition from rhyolite to basalt. Pene The term San Juan region, or simply " the San importance have been established in sheltered as the "Animas beds," rests upon the Laramie, trating the bedded series are several massive Juan," used with variable meaning by early valleys on all sides. Railroads encircle the group and is in turn overlain by the Puerco and higher bodies of often coarsely granular rocks, such as explorers, and naturally with indefinite and penetrate to some of the mining centers of Eocene deposits. gabbro and diorite, and it now seems probable limitation during the period of settle- sa^juan the the interior. Creede, Silverton, Telluride, Ouray, Structurally, the most striking feature in the that the intrusive bodies of diorite-porphyry and ment, is. now quite. -
Katannilik Territorial Park
Nunavut Parks & Special Places – Editorial Series January, 2008 KatanniLik TErritOriaL Park Stretching across south Baffin Island’s Iqaluit. Today, the Itijjagiaq Trail is followed by skiers, Meta Incognita Peninsula from Frobisher Bay snowmobilers, dog teams, and hikers, as well as the to the Hudson Strait at Kimmirut, Katannilik Inuit who travel regularly between Kimmirut and Territorial Park is the crown jewel of Nunavut’s Iqaluit and continue to use the Soper River valley as territorial park system and a true destination park, their traditional hunting area. offering superlative arctic experiences in summer The Soper River valley, which runs through the and during the snow season. park, is sheltered from harsh winds and is 4 to “Katannilik” is an Inuktitut word meaning 5 degrees warmer than elsewhere. This unique “where there are waterfalls”, and refers to the many microclimate supports a lush profusion of arctic waterfalls cascading down the valley walls into the wildflowers as well as unusually tall willows that Soper River, a Canadian Heritage River which was are growing faster than willows in central Alberta. designated in 1992 for its outstanding natural and The wildflowers, including white arctic heather, cultural heritage values, and its incredible recreational mountain avens, and large-flowered wintergreen, opportunities. Inuit call the Soper River Kuujuaq, or are best in mid-July, and berries (bearberry, “great river”, and have traveled through this natural blueberry, lingonberry, and crowberry) ripen in inland corridor for centuries, on the Itijjagiaq Trail, mid-August. In early September, the tundra is which means “over the land”. This traditional trail resplendent in fall colours. -
Union County Glacier
In Memory of Luna B. Leopold e c n e i c S y r a t e n a l P 1915–2006 & h t r a E f o . t p e D y e l e k r e B C U y s e t r u o c o t o h P una Leopold, professor emeritus at the University of Cali- 1972 to 1986 he held the position of professor of earth and plane- fornia, Berkeley, and former chief hydrologist of the U.S. tary science and of landscape architecture at the University of Cal- LGeological Survey died at his home in Berkeley on February ifornia, Berkeley. “He made crucial discoveries about the nature of 23, 2006. The son of conservationist Aldo Leopold, Luna Leopold rivers, especially their remarkable regularity,” William Dietrich, a became widely recognized as one of our country’s most distin- UC Berkeley colleague of Leopold’s and professor of earth and guished earth scientists and will be remembered for his pioneer- planetary science, said in a news release. “He showed that this ing studies of rivers and fluvial geomorphology and for his tire- regularity of form applies to all rivers, whether they are in sand less work toward protecting and restoring rivers, water resources, boxes or draining entire continents, at scales of a laboratory flume and the environment. or the Gulf Stream.” Luna Leopold was born in Albuquerque. His father, Aldo During his time with the U.S. Geological Survey Leopold was Leopold, was pursuing his career with the U.S.