(Washington Geology), V. 15, No. 4, October 1987
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Owyhee River, Southeastern Oregon
CHARACTERIZATION OF MASS WASTING THROUGH THE SPECTRAL ANALYSIS OF LiDAR IMAGERY: OWYHEE RIVER, SOUTHEASTERN OREGON __________________________________ A Thesis Presented to The Graduate Faculty Central Washington University __________________________________ In Partial Fulfillment of the Requirements for the Degree Master of Science Geology __________________________________ by Christopher Earl Markley November 2013 CENTRAL WASHINGTON UNIVERSITY Graduate Studies We hereby approve the thesis of Christopher Earl Markley Candidate for the degree of Master of Science APPROVED FOR THE GRADUATE FACULTY ______________ _________________________________________ Dr. Lisa Ely, Committee Chair ______________ _________________________________________ Dr. Elizabeth Safran ______________ _________________________________________ Dr. Audrey Huerta ______________ _________________________________________ Dean of Graduate Studies ii ABSTRACT CHARACTERIZATION OF MASS WASTING THROUGH THE SPECTRAL ANALYSIS OF LiDAR IMAGERY: OWYHEE RIVER, SOUTHEASTERN OREGON by Christopher Earl Markley November 2013 Quantifying landslide character is an important aspect of understanding hillslope- channel interactions. Spectral analysis of high-resolution, LiDAR derived, DEMs was carried out following methods described by Booth et al. (2009) to determine the characteristic spectral signature inherent in different styles of landslides in the Owyhee River Canyon in southeastern Oregon. The main factor in landslide generation in this location is a lithologic contact in which a -
Lewis River ~ Including Clear, Quartz, Siouxon, Pine, Rush, Smith Creeks & the Muddy River
Photo by Susan Saul Wild and Scenic Rivers Support Local Communities The legendary volcanoes in southwestern Washington and the spectacular rivers that originate on their slopes are valuable to the health, economy, and cultural identity of local communities. Rivers like the Green, Cispus, and Lewis provide drinking water to thousands of local residents, world-class recreation, and a high quality of life for local residents. Designating the rivers and key tributaries in Volcano Country under the Wild and Scenic Rivers Act will increase long- term potential for recreation and tourism in the area, ensure cool clean water for fish and people, and protect these natural treasures for future generations. Just a few of the benefits of Wild and Scenic designation include: RECREATION, TOURISM, AND THE ECONOMY: According to the Outdoor Industry Association, outdoor recreation brings in more than $11.7 billion annually to our state, supports an estimated 115,000 jobs, and generates $650 million in annual sales tax revenue. Travel and tourism provide nearly 8000 jobs – or 14 percent of jobs across all economic sectors – in Lewis, Cowlitz, and Skamania counties. In addition to putting a river “on the map” for visitors and outdoor enthusiasts, a Wild and Scenic River designation can lead to access improvements and foster growth in river-based outdoor recreation and tourism. For example, a recent study of the Wild and Scenic section of the Rogue River found that commercial rafting, fishing, and other recreation contributed $30 million a year to the State of Oregon’s economy. The White Salmon and the Klickitat River are two positive examples of Wild and Scenic Rivers in Washington that benefit local recreation economies. -
Nördlingen 2010: the Ries Crater, the Moon, and the Future of Human Space Exploration, P
Program and Abstract Volume LPI Contribution No. 1559 The Ries Crater, the Moon, and the Future of Human Space Exploration June 25–27, 2010 Nördlingen, Germany Sponsors Museum für Naturkunde – Leibniz-Institute for Research on Evolution and Biodiversity at the Humboldt University Berlin, Germany Institut für Planetologie, University of Münster, Germany Deutsches Zentrum für Luft- und Raumfahrt DLR (German Aerospace Center) at Berlin, Germany Institute of Geoscience, University of Freiburg, Germany Lunar and Planetary Institute (LPI), Houston, USA Deutsche Forschungsgemeinschaft (German Science Foundation), Bonn, Germany Barringer Crater Company, Decatur, USA Meteoritical Society, USA City of Nördlingen, Germany Ries Crater Museum, Nördlingen, Germany Community of Otting, Ries, Germany Märker Cement Factory, Harburg, Germany Local Organization City of Nördlingen Museum für Naturkunde – Leibniz- Institute for Research on Evolution and Biodiversity at the Humboldt University Berlin Ries Crater Museum, Nördlingen Center of Ries Crater and Impact Research (ZERIN), Nördlingen Society Friends of the Ries Crater Museum, Nördlingen Community of Otting, Ries Märker Cement Factory, Harburg Organizing and Program Committee Prof. Dieter Stöffler, Museum für Naturkunde, Berlin Prof. Wolf Uwe Reimold, Museum für Naturkunde, Berlin Dr. Kai Wünnemann, Museum für Naturkunde, Berlin Hermann Faul, First Major of Nördlingen Prof. Thomas Kenkmann, Freiburg Prof. Harald Hiesinger, Münster Prof. Tilman Spohn, DLR, Berlin Dr. Ulrich Köhler, DLR, Berlin Dr. David Kring, LPI, Houston Dr. Axel Wittmann, LPI, Houston Gisela Pösges, Ries Crater Museum, Nördlingen Ralf Barfeld, Chair, Society Friends of the Ries Crater Museum Lunar and Planetary Institute LPI Contribution No. 1559 Compiled in 2010 by LUNAR AND PLANETARY INSTITUTE The Lunar and Planetary Institute is operated by the Universities Space Research Association under a cooperative agreement with the Science Mission Directorate of the National Aeronautics and Space Administration. -
Forest Development Following Mudflow Deposition, Mount St. Helens, Washington
437 Forest development following mudflow deposition, Mount St. Helens, Washington Marc H. Weber, Keith S. Hadley, Peter M. Frenzen, and Jerry F. Franklin Abstract: Volcanic mudflows are locally important disturbance agents in the Pacific Northwest rarely studied within the context of forest succession. We describe 18 years (1981–1999) of forest development on the Muddy River mud- flow deposit following the 1980 eruption of Mount St. Helens using permanent plot data collected along two transects traversing the Cedar Flats river terrace. We analyze changing forest structure over the study period and compare results with mudflow deposition using correlation and pairwise comparisons, as well as ordination (detrended correspondence analysis) and cluster analysis. Our results show a statistically significant relationship between mudflow deposition and forest change. Following mudflow deposition, the site consisted of patches of high tree mortality caused by deep mudflow deposits in abandoned river channels as well as patches of accelerated regeneration of surviving understory trees in areas of more shallow mudflow deposition and partial overstory mortality. Mudflow deposition at the site initiated multiple stages of stand development with (1) early-colonizing red alder (Alnus rubra Bong.) dominating deep deposition sites with fewer surviving trees, (2) gap recruitment and establishment by western hemlock (Tsuga heterophylla (Raf.) Sarg.) and Douglas- fir (Pseudotsuga menziesii (Mirb.) Franco) on intermediate to deep deposition sites with more postburial surviving trees, and (3) late-seral conditions and accelerated succession on shallow burial sites, where tree mortality was low. The initia- tion of differing succession trajectories, as well as variability in the extent and timing of tree mortality following mudflow deposition, demonstrates a dynamic response to disturbance in relation to small-scale gradients of mudflow deposition. -
Surficial Extent and Conceptual Model of Hydrothermal System at Mount Rainier, Washington
Journal of Volcanology and Geothermal Research 65 ( 1995) 5 l-80 Surficial extent and conceptual model of hydrothermal system at Mount Rainier, Washington David Frank U.S.Environmental Protection Agency, 1200 Sixth Avenue, ES-098 Seattle, WA 98101, USA Received 8 January 1992; revised version accepted 10 February 1993* Abstract A once massive hydrothermal system was disgorged from the summit of Mount Rainier in a highly destructive manner about 5000 years ago. Today, hydrothermal processes are depositing clayey alteration products that have the potential to reset the stage for similar events in the future. Areas of active hydrothermal alteration occur in three representative settings: ( 1) An extensive area (greater than 12,000 m*) of heated ground and slightly acidic boiling-point fumaroles at 76-82°C at East and West Craters on the volcano’s summit, where alteration products include smectite, halloysite and disordered kaolinite, cristobalite, tridymite, opal, alunite, gibbsite, and calcite. (2) A small area (less than 500 m’) of heated ground and sub-boiling-point fumaroles at 55-60°C on the upper flank at Disappointment Cleaver with smectite alteration and chalcedony, tridymite, and opal-A encrustations. Similar areas probably occur at Willis Wall, Sunset Amphitheater, and the South Tahoma and Kautz headwalls. (3) Sulfate- and carbon dioxide-enriched thermal springs at 9-24°C on the lower flank of the volcano in valley walls beside the Winthrop and Paradise Glaciers, where calcite, opal-A, and gypsum are being deposited. In addition, chloride- and carbon dioxide-enriched thermal springs issue from thin sediments that overlie Tertiary rocks at, or somewhat beyond, the base of the volcanic edifice in valley bottoms of the Nisqually and Ohanapecosh Rivers. -
Canada and Western U.S.A
Appendix B – Region 12 Country and regional profiles of volcanic hazard and risk: Canada and Western U.S.A. S.K. Brown1, R.S.J. Sparks1, K. Mee2, C. Vye-Brown2, E.Ilyinskaya2, S.F. Jenkins1, S.C. Loughlin2* 1University of Bristol, UK; 2British Geological Survey, UK, * Full contributor list available in Appendix B Full Download This download comprises the profiles for Region 12: Canada and Western U.S.A. only. For the full report and all regions see Appendix B Full Download. Page numbers reflect position in the full report. The following countries are profiled here: Region 12 Canada and Western USA Pg.491 Canada 499 USA – Contiguous States 507 Brown, S.K., Sparks, R.S.J., Mee, K., Vye-Brown, C., Ilyinskaya, E., Jenkins, S.F., and Loughlin, S.C. (2015) Country and regional profiles of volcanic hazard and risk. In: S.C. Loughlin, R.S.J. Sparks, S.K. Brown, S.F. Jenkins & C. Vye-Brown (eds) Global Volcanic Hazards and Risk, Cambridge: Cambridge University Press. This profile and the data therein should not be used in place of focussed assessments and information provided by local monitoring and research institutions. Region 12: Canada and Western USA Description Region 12: Canada and Western USA comprises volcanoes throughout Canada and the contiguous states of the USA. Country Number of volcanoes Canada 22 USA 48 Table 12.1 The countries represented in this region and the number of volcanoes. Volcanoes located on the borders between countries are included in the profiles of all countries involved. Note that countries may be represented in more than one region, as overseas territories may be widespread. -
Oblique Photogrammetric Analysis of Dome Growth at Mount St. Helens Volcano, 2004 – 2007 Angela K
Western Washington University Western CEDAR WWU Graduate School Collection WWU Graduate and Undergraduate Scholarship Fall 2007 Oblique Photogrammetric Analysis of Dome Growth at Mount St. Helens Volcano, 2004 – 2007 Angela K. Diefenbach Western Washington University Follow this and additional works at: https://cedar.wwu.edu/wwuet Part of the Geology Commons Recommended Citation Diefenbach, Angela K., "Oblique Photogrammetric Analysis of Dome Growth at Mount St. Helens Volcano, 2004 – 2007" (2007). WWU Graduate School Collection. 785. https://cedar.wwu.edu/wwuet/785 This Masters Thesis is brought to you for free and open access by the WWU Graduate and Undergraduate Scholarship at Western CEDAR. It has been accepted for inclusion in WWU Graduate School Collection by an authorized administrator of Western CEDAR. For more information, please contact [email protected]. OBLIQUE PHOTOGRAMMETRIC ANALYSIS OF DOME GROWTH AT MOUNT ST. HELENS VOLCANO, 2004-2007 BY ANGELA K. DIEFENBACH Accepted in Partial Completion of the Requirements for the Degree Master of Science Geology ____^ r - v.i . Moheb A. Ghali, Dean of the Graduate School Dr. Scott Linneman MASTER’S THESIS In presenting this thesis in partial fulfillment of the requirements for a master’s degree at Western Washington University, I agree that the Library shall make its copies freely available for inspection. I further agree that copying of this thesis in whole or in part is allowable only for scholarly purposes. It is understood, however, that any copying or publication of this thesis for commercial purposes, or for financial gain, shall not be allowed without my written permission. Signature Date l\j^ j Z.OC1 OBLIQUE PHOTOGRAMMETRIC ANALYSIS OF DOME GROWTH AT MOUNT ST. -
ALID VOLCANO in the COLONY of ERITREA (Translation of Angelo
UNITED STATES DEPARTMENT OF THE INTERIOR U.S. GEOLOGICAL SURVEY ALÌD VOLCANO IN THE COLONY OF ERITREA (Translation of Angelo Marini's "IL VULCANO ALÌD NELLA COLONIA ERITREA")* Edited and Translated by Jacob B. Lowenstern1 and Francesco Villa2 Open File Report # 98-218 1 U.S. Geological Survey, Mail Stop 910, 345 Middlefield Road, Menlo Park, CA 94025 2 Frantel Inc., 13847 Skyline Blvd., Los Gatos, CA 95030 ____________________________________________________________________________ *originally published in L'Universo (1938) volume 19, p. 51-65 and p. 131-170 For additional information Copies of this report can be obtained write to: from: Jacob B. Lowenstern U.S. Geological Survey U.S. Geological Survey Branch of Information Services 345 Middlefield Road, MS 910 Box 25286 Menlo Park, CA 94025 USA Denver, CO 80225-0286 USA email: [email protected] Tel: 303-202-4700; Fax: 303-202-4693 1998 i Contents Title Page .............................................................................................................................. i Table of Contents ................................................................................................................. ii Plate 1 .................................................................................................................................. iii Summary............................................................................................................................... 1 Preface ................................................................................................................................. -
Lahar Deposits
Chapter 3—Lahar Deposits CHAPTER 3 Lahar Deposits L. C. Bliss leans against a surviving Douglas fir on the edge of the Muddy River Lahar. The scour marks are 8 m above the deposit (July 1980). What is a lahar? caught in the path, and severely erodes the canyon mar- Lahars, from a Javanese (Indonesia) designation, are pre- gins. Similar events can occur by heating from within, as ferred to the inelegant English term “mudflow” when re- hot magma moves into the cone. As a lahar ebbs, it usually ferring to events on volcanoes. Lahars include any rapidly leaves a deposit of sediments sorted by distance from its flowing masses of earth saturated by water flowing under origin. the force of gravity. They can be triggered when natural A lahar can also form as a debris avalanche hurtles from rubble dams collapses to unleash a pent-up lake trapped a volcano entraining everything in its path. As it becomes behind it. Lahars are mudflows formed in several ways by increasingly liquid, leaving larger materials behind, the de- volcanism. When hot tephra falls onto a cone laden with bris avalanche becomes a less turbulent and continues to snow and ice, the rapid melting causes lahars that flow flow as a lahar. While lahars usually stay confined to the down canyons. Slurries entrain soil, rocks and anything river channel, they can overflow their constraints and spread 27 Chapter 3—Lahar Deposits ago, the flanks of Mt. Rainier collapsed producing a cata- clysmic event. There was no eruption, but over the millen- nia, the summit rock of the then much higher cone was re- peatedly heated and cooled, becoming “rotten” (or as geol- ogists say, hydrothermally altered). -
Roadside Geology of Mount St. Helens National Volcanic Monument and Vicinity
ROADSIDE GEOLOGY OF MOUNT ST. HELENS NATIONAL VOLCANIC MONUMENT AND VICINITY by Patrick T. Pringle WASHINGTON DEPARTMENT OF NATURAL RESOURCES Division of Geology and Earth Resources Information Circular 88 1993 [Revised Edition 2002] Shaded relief map of the Mount St. Helens area showing areas affected by1980 eruption processes. The image was created from 30 m digital elevation data. ROADSIDE GEOLOGY OF MOUNT ST. HELENS NATIONAL VOLCANIC MONUMENT AND VICINITY by Patrick T. Pringle WASHINGTON STATE DEPARTMENTOF Natural Resources Doug Sutherland - Commissioner of Public Lands Washington Division of Geology and Earth Resources Information Circular 88 1993 [Revised Edition 2002) WASHINGTON DEPARTMENT OF NATURAL RESOURCES Doug Sutherland-Commissioner of Public Lands DIVISION OF GEOLOGY AND EARTH RESOURCES Ron Teissere-State Geologist This publication is available from: Publication Sales Washington Department of Natural Resources Division of Geology and Earth Resources PO Box 47007 Olympia, WA 98504-7007 For more information or a list of publications, call (360) 902-1450 or e-mail [email protected]. Also see our website at http://www.wa.gov/dnr/htdocs/ger / This book is also available through the Mount St. Helens visitors centers courtesy of the Mount St. Helens Institute. For more information on how you can get involved in ongoing support of research and education at Mount St. Helens, contact: Mount St. Helens Institute PO Box 820762 Vancouver, WA 98682-0017 (360) 891-5206 www.mshinstitute.org Front Cover. Mount St. Helens from the north shore of Spirit Lake, about 7 mi (11 km) north-northeast of the crater. Photo taken in 1982 by Lyn Topinka, U.S. -
Volcano Hazards in the Mt. Adams Region, WA
U.S. Department of the Interior U.S. Geological Survey Volcano Hazards in the Mount Adams Region, Washington By William E. Scott1, Richard M. Iverson1, James W. Vallance2, and Wes Hildreth3 1. U.S. Geological Survey, David A. Johnston Cascades Volcano Observatory, 5400 MacArthur Blvd., Vancouver WA 98661 2. Department of Civil Enginering and Applied Mechanics, McGill University, Montreal, Canada 43A 2K6 3. U.S. Geological Survey, 345 Middlefield Rd., Menlo Park CA 94025 Open-File Report 95-492 This report is preliminary and has not been reveiwed for conformity with U.S. Geological Survey editorial standards. Any use of trade, product or firm names is for descriptive purposes only and does not imply endorsement by the U.S. Government. 1995 CONTENTS Introduction........ ..... ............................................................ ....................... I Hazardous Events at Mount Adams ...................................... .................................1 Lava flows are the most likely type of future eruptive event. ..............................................1 Lava flows can melt snow and ice and cause pyroclastic flows, lahars, and floods........ ....... ...............2 Even minor tephra falls can be disruptive and hazardous ..................................................2 Landslides and lahars not necessarily related to eruptions pose the most serious threat ..........................2 Debris avalanches and lahars at Mount Adams . ...................... ......... .........................3 Eruptions in Other Nearby Volcanic -
New K=AR Age Dates, Geochemistry, and Stratigraphic Data
NEW K-AR AGE DATES, GEOCHEMISTRY, AND STRATIGRAPHIC DATA FOR THE INDIAN HEAVEN 'QUATERNARY VOLCANIC FIELD, SOUTH CASCADE RANGE, WASHINGTON by MICHAEL A. KOROSEC WASHINGTON DIVISION OF GEOLOGY AND EARTH RESOURCES OPEN FILE REPORT 89-3 December 1989 This report has not been edited or reviewed for conformity with Division of Geology and Earth Resources standards and nomenclature •• WASlilNGTON STATE DEPARTMENT Of ~~--==~:.- Natural Resources Bnan Boyle · Commissioner ot Public Lands Art Stearns - Supervisor Division of Geology and Earth Resources Raymond Lasmanis, State Geologist DISCLAIMER This report was prepared as an account of work sponsored by an agency of the United States Government. Neither the United States Government nor any agency thereof, nor any of their employees, makes any warranty, express of implied, or assumes any legal liability or responsibility for the accuracy, completeness, or usefulness of any information, apparatus, product, or process disclosed, or represents that its use would not infringe privately owned rights. Reference herein to any specific commercial product, process, or service by trade name, trademark, manufacturer, or otherwise does not necessarily constitute or imply its endorsement, recommendation, or favoring by the United States Government or any agency thereof. The views and opinions of authors expressed herein do not necessarily state or reflect those of the United States Government or any agency thereof. This report has been reproduced directly from the best available copy. Available from the National Technical Information Service, U.S. Department of Commerce, Springfield, Virginia 22161. CONTENTS Introduction ....................................................... 1 Data Collection and Presentation ••••••••••••••••••••••••••••••••••• 1 Unit Description for Indian Heaven Lava Flows and Cinder Cones •••••••••••••••••••••••••••••••••••••••••••••••• 9 Discussion .