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Wind/Big Horn Basin Plan Technical Memorandum
WIND/BIG HORN BASIN PLAN TECHNICAL MEMORANDUM April 2, 2003 Subject: WIND RIVER RANGE GLACIERS Prepared By: Harold J. Hutson, P.E., P.G., BRS Engineering INTRODUCTION The Wind River Range of Wyoming is the headwaters of the three major drainage systems in the United States, the Wind-Missouri-Mississippi, Snake-Columbia, and Green-Colorado drainages. The range is also home to a total of 63 glaciers, covering 17 square miles, greater than the total of all other glaciers in the American Rockies at 12 square miles. Seven of the ten largest glaciers in the continental United States are located in the Wind River Range. Of the total area of glaciers in the Wind River Range, 77% by area are located in the Wind River drainages, with the remainder draining to the Green and Snake rivers. (Marston, et. al., 1991). Based upon a literature search of available documents relating to the glaciers in the Wind River Range, the glaciers have been retreating during recent times. Glaciers have been compared to natural reservoirs, which store water in the form of ice during cool periods both on an annual and long term climatological scale, and release water during warmer periods. The melt water from the glaciers contributes to the flow in the Wind River, and is thought to be important during late summer and early fall to supplement flows in the Wind River needed for irrigation and fisheries, and for the fulfillment of interstate water compacts. This report summarizes the results of the literature review, and addresses three potential scenarios for future impacts to the Wind River due to glacial changes. -
The Merlon, North Face: Three New Routes United States, Wyoming, Bighorn Mountains the Glacier Was Calving Every Half Hour All Day and All Night
AAC Publications The Merlon, North Face: Three New Routes United States, Wyoming, Bighorn Mountains The glacier was calving every half hour all day and all night. A thundering boom would reverberate off the narrow cirque walls, then a wave of water would roll across Glacier Lake. During the day we could get used to it, but at night the detonations would blast us right out of our dreams. This was my fifth climbing trip into the Cloud Peak Wilderness, but my first to the cirque below Cloud Peak’s tremendous east face. It was mid-August and I’d come in with two fellow Wyoming climbers: towering, pencil-thin Julian Poush and Chris “Slim” Murray. Poush’s father had actually attempted a route in this cirque over 40 years ago. We had help from horse packers getting our gear to the west end of Cloud Peak Reservoir, then humped heavy packs up past Diamond Lake, from which we scrambled northwest, gaining 700 feet to reach Glacier Lake (11,490’). Our goal was to climb the north face of the Merlon, a separate tower (ca. 13,200’) just south of Cloud Peak’s east face. We accomplished this the first day: Jenga (8 pitches, 5.8 R). We rapped off the eastern prow of the Merlon, replacing old slings that Ken Duncan and I had put in eight years earlier when we climbed No Climb For Old Men on the south face. [Editor’s note: The Merlon was first climbed, by its eastern buttress, in 1961. The south face was first climbed in the 1970s, though the exact line is unknown; the south face has three known routes, all 5.11. -
Snow Cover, Snowmelt Timing and Stream Power in the Wind River Range, Wyoming
University of Nebraska - Lincoln DigitalCommons@University of Nebraska - Lincoln NASA Publications National Aeronautics and Space Administration 2012 Snow cover, snowmelt timing and stream power in the Wind River Range, Wyoming Dorothy K. Hall NASA Goddard Space Flight Center James L. Foster NASA Goddard Space Flight Center Nicolo E. DiGirolamo SSAI, Lanham, MD George A. Riggs SSAI, Lanham, MD Follow this and additional works at: https://digitalcommons.unl.edu/nasapub Part of the Physical Sciences and Mathematics Commons Hall, Dorothy K.; Foster, James L.; DiGirolamo, Nicolo E.; and Riggs, George A., "Snow cover, snowmelt timing and stream power in the Wind River Range, Wyoming" (2012). NASA Publications. 58. https://digitalcommons.unl.edu/nasapub/58 This Article is brought to you for free and open access by the National Aeronautics and Space Administration at DigitalCommons@University of Nebraska - Lincoln. It has been accepted for inclusion in NASA Publications by an authorized administrator of DigitalCommons@University of Nebraska - Lincoln. Geomorphology 137 (2012) 87–93 Contents lists available at ScienceDirect Geomorphology journal homepage: www.elsevier.com/locate/geomorph Snow cover, snowmelt timing and stream power in the Wind River Range, Wyoming Dorothy K. Hall a,⁎, James L. Foster a, Nicolo E. DiGirolamo b, George A. Riggs b a Laboratory for Hydrospheric and Biospheric Processes, NASA Goddard Space Flight Center, Greenbelt, MD 20771, USA b SSAI, Lanham, MD 20706, USA article info abstract Article history: Earlier onset of springtime weather, including earlier snowmelt, has been documented in the western United Received 7 April 2010 States over at least the last 50 years. Because the majority (N70%) of the water supply in the western U.S. -
Estimated Wind River Range (Wyoming, USA) Glacier Melt Water Contributions to Agriculture
THE UNIVERSITY OF ALABAMA® University Libraries Estimated Wind River Range (Wyoming, USA) Glacier Melt Water Contributions to Agriculture Kyle Cheesbrough – University of Wyoming Jake Edmunds – University of Wyoming Glenn Tootle – University of Tennessee Greg Kerr – University of Wyoming Larry Pochup – University of Wyoming Deposited 10/17/2018 Citation of published version: Cheesbrough, K., Edmunds, J., Tootle, G., Kerr, G., Pochup, L. (2009): Estimated Wind River Range (Wyoming, USA) Glacier Melt Water Contributions to Agriculture. Remote Sensing, 1(4). DOI: https://doi.org/10.3390/rs1040818 © 2009 by the authors; licensee Molecular Diversity Preservation International, Basel, Switzerland. This work is licensed under a Creative Commons Attribution 4.0 International License. Remote Sens. 2009, 1, 818-828; doi:10.3390/rs1040818 OPEN ACCESS Remote Sensing ISSN 2072-4292 www.mdpi.com/journal/remotesensing Article Estimated Wind River Range (Wyoming, USA) Glacier Melt Water Contributions to Agriculture Kyle Cheesbrough 1, Jake Edmunds 1, Glenn Tootle 2,*, Greg Kerr 1 and Larry Pochop 1 1 University of Wyoming, Department of Civil and Architectural Engineering, 1000 East University Avenue, Laramie, WY 82070, USA; E-Mails: [email protected] (K.C.); [email protected] (J.E.); [email protected] (G.K.); [email protected] (L.P.) 2 University of Tennessee, Department of Civil and Environmental Engineering, 223 Perkins Hall, Knoxville, TN 37996, USA * Author to whom correspondence should be addressed; E-Mail: [email protected]; Tel.: +1-865-974-7777. Received: 4 September 2009; in revised form: 1 October 2009 / Accepted: 19 October 2009 / Published: 28 October 2009 Abstract: In 2008, Wyoming was ranked 8th in barley production and 20th in hay production in the United States and these crops support Wyoming’s $800 million cattle industry. -
WRHR Route Description
Wind River High Route !Section 1: Green River Lakes Trailhead to Upper Indian Basin! ! The hike starts with the gentlest of introductions. A mellow wander up the flat and scenic drainage of the Green River for the first few hours, with excellent views of Squaretop Mountain. From the Green River Lakes trailhead, take the trail that heads along the eastern shore of the two turquoise colored Green River Lakes. This trail is marked as both the Highline Trail and the Continental Divide Trail. After passing the two lakes, the trail begins a very gradual climb toward Three Forks Park, which is reached after several hours of hiking. At Three Forks Park the trail turns abruptly west and you begin your ascent into the high country, climbing to just above 10000 feet and over Vista Pass. A slight drop and then a climb into a rocky basin towards Cube Rock Pass will bring you above 10000 feet once again. The High Route will stay above 10000 feet for the next 5 or 6 days, not dropping below this barrier until the final hike out to the car, just !a few miles from the Big Sandy Trailhead.! From Cube Rock Pass continue on the trail toward Peak Lake. There is decent camping on the west side of Peak Lake, but even better camping in the basin just east of the lake. From the outlet of Peak Lake, curve around its north shore, passing through a large talus slide that drops all the way to the shore. Then wander east toward Knapsack Col. -
Wind River Expedition Through the Wilderness… a Journey to Holiness July 17-23, 2016
Wind River Expedition Through the Wilderness… a Journey to Holiness July 17-23, 2016 Greetings Mountain Men, John Muir once penned the motivational quote… “The mountains are calling and I must go.” And while I wholeheartedly agree with Muir, I more deeply sense that we are responding to the “Still Small Voice”, the heart of God calling us upward to high places. And when God calls we must answer, for to do so is to embark on an adventure like no other! Through the mountain wilderness Moses, Elijah, and Jesus were all faced with the holiness and power of God. That is our goal and our deepest desire. Pray for nothing short of this my friends and be ready for what God has in store… it’s sure to be awesome! Please read the entire information packet and then follow the simple steps below and get ready! Preparing for the Expedition: Step 1 Now Pay deposit of $100 and submit documents by April 30, 2017 Step 2 Now Begin fitness training! Step 3 Now Begin acquiring gear! (see following list) Step 4 May 31 Pay the balance of expedition $400 Step 5 June 1 Purchase airline ticket (see directions below) Step 6 July 17 Fly to Salt Lake City! (see directions below) Step 7 July 17-23 Wind River Expedition (see itinerary below) Climb On! Marty Miller Blueprint for Men Blueprint for Men, Inc. 2017 © Logistics Application Participant Form - send PDF copy via email to [email protected] Release Form – send PDF copy via email to [email protected] Medical Form – send PDF copy to [email protected] Deposit of $100 – make donation at www.blueprintformen.org Deadline is April 30, 2017 Flight to Denver If you live in the Chattanooga area I recommend that you fly out of Nashville (BNA) or Atlanta (ATL) on Southwest Airlines (2 free big bags!) to Salt Lake City (SLC) on Sun, July 17. -
Dubois, Wyoming
WarmDUBOIS, River WYOMING Ranch Hunting | Ranching | Fly Fishing | Conservation Warm River Ranch DUBOIS, WYOMING Introduction The Warm River Ranch is located in Fremont County, Wyoming, a mile west of the western town of Dubois. The 1,559 acre Warm River Ranch is diverse in topography, improvements and amenities. With priority water rights out of the Wind River, the ranch currently irrigates approximately 325 acres and provides grazing on 1,200 acres of deeded land. Above the irrigated fields, the upper ranch is stunning with big views of the Absaroka Mountains that provide direct access to the Shoshone National Forest and the Wind River Mountain Range. There is approximately one mile of the Wind River coursing through Warm River Ranch. The topography, diverse terrain and abundant irrigation keep big game on the ranch year-round. Warm River Ranch is complete with ranch improvements that include a 5-bedroom, 3-bath main house, manager’s home, barn, shop, corrals and cattle handling facilities. The ranch is well fenced including a perimeter fence and interior fences for rotating stock. www.livewaterproperties.com Contacts MATT MACMILLAN associate broker 307.413.3582 JOHN TURNER partner and broker 307.699.3415 Located in Fremont County, Wyoming, the Warm River Ranch is a mile from the charming western Location town of Dubois. The Warm River Ranch is comprised of 1,559 acres and is a combination of irrigated hay THE WARM RIVER RANCH IS pastures, a riparian corridor along the river, and land rising into the foothills of the Wind River Range. COMPRISED OF 1,559 ACRES AND The ranch offers incredible fishing on over a mile of the Wind River and has direct access to the Shoshone OFFERS OVER A MILE OF FRONTAGE National Forest. -
Nordic Hydrology, 25, 1994, 371-388 No Part May Be Reproduced by Any Process Wlthout Complete Rekrence
Nordic Hydrology, 25, 1994, 371-388 No part may be reproduced by any process wlthout complete rekrence Assessment of Spatial Variability of Major-Ion Concentrations and DEL Oxygen-18 Values in Surface Snow, Upper Fremont Glacier, Wyoming, U.S.A. D. L. Naftz U.S. Geological Survey, Salt Lake City, UT 84104, U.S.A. P. F. Schuster and M. M. Reddy U.S. Geological Survey, Boulder, CO 80303, U.S.A. One hundred samples were collected from the surface of the Upper Fremont Glacier at equally spaced intervals defined by an 8,100 m 2 snow grid to assess the significance of lateral variability in major-ion concentrations and del oxy- gen-18 values. For the major ions, the largest concentration range within the snow grid was sodium (0.5056 mgll) and the smallest concentration range was sulfate (0.125 mgll). Del oxygen-18 values showed a range of 7.45 per mil. Comparison of the observed variability of each chemical constituent to the variability expected by measurement error indicated substantial lateral variab- ility within the surface-snow layer. Results of the nested ANOVA indicate most of the variance for every constituent is in the values grouped at the two smaller geographic scales (between 506 m2 and within 506 m2 sections). Cal- cium and sodium concentrations and del oxygen-18 values displayed the largest amount of variance at the largest geographic scale (between 2,025 m 2 sections) within the grid and ranged from 14 to 26 per cent of the total variance. The variance data from the snow grid were used to develop equations to evaluate the significance of both positive and negative concentrationlvalue peaks of nitrate and del oxygen-18 with depth, in a 160 m ice core. -
It Is an Honor to Receive the Kirk Bryan Award. I Am Especially Pleased To
Quaternary Geologist & Geomorphologist Newsletter of the Quaternary Geology and Geomorphology Division http://rock.geosociety.org/qgg Spring 2004 Vol. 45, No.1 Glacial lake that drained from head of Grasshopper Glacier, northern Wind River Range, Wyoming, in October, 2003. View is to west. Lake drained beneath glacier to north, and flooded to north then east down the drainage of Grasshopper Creek, to Down’s Fork Creek, and to Dinwoody Creek. Outwash deposits along the Down’s Fork Creek where an ephemeral lake ponded at Down’s Fork Meadows near the confluence of the Down’s Fork and Dinwoody creeks. Dinwoody Lakes are seen at upper left. View is to east. (More details of this event inside on p. 2) Photos provided by Dennis Dahms, courtesy of Liz Oswald, South Zone Hydrologist, Shoshone National Forest, Lander, Wyoming 1 Cover: Jökulhlaup at Grasshopper Glacier, Wind River Mountains, Wyoming A jökulhlaup, or glacial outburst flood, burst from an ice-dammed lake at the head of the Grasshopper Glacier, Wind River Mountains, Wyoming, in early September this year. The 30-acre lake drained an estimated 850 million gallons of water downslope, underneath the glacier, and, charged with subglacial sediment, flooded tributary valleys and into the Dinwoody River valley. The event was recorded at the USGS gage site (USGS 06221400 Dinwoody Creek above Lakes, near Burris, WY) about 20 mi downstream from the ice-dammed lake. The Grasshopper Glacier is situated at the continental divide nested between high-level erosion surfaces and the eastward-facing cirque walls of the mountain front. The glacier, oriented south to north, drops from an elevation of 12,000 ft down a steep (0.11) slope to its snout at about 11,300 ft elevation. -
Recent Trends in Glaciers and Glacier Runoff, Wind River Range, Wyoming
RECENT TRENDS IN GLACIERS AND GLACIER RUNOFF, WIND RIVER RANGE, WYOMING R.A. Marston L.O. Pochop G.L. Kerr M.L. Varuska Proceedings Paper June 1989 WWRC - 89 - 03 In Proceedings of the Symposium on Headwaters Hydrology American Water Resources Association Richard A. Marston Department of Geography & Recreation Larry 0. Pochop Deparmtent of Agricultural Engineering Greg L. Kerr Wyoming Water Research Center Marjorie L. Varuska Department of Geography & Recreation University of Wyoming Laramie, Wyoming HEADWATEXS HYDROLOGY JUNE &IElRICANWATERREgOURCESASSOCIATION RECENT TRENDS IN GLACIERS AND GLACIER RUNOFF, WIND RIVER RANGE, WYOMING Richard A. Marston, Larry 0. Pochop, Greg L. Kerr, Marjorie Lm Varuska 1 ABSTRACT: The largest concentration of glaciers in the American Rocky Mountains occurs in the Wind River Range of Wyoming, but the contribution of glacier meltwater to flow in headwater streams of the Green River and Wind River drainages has not been documented. The present study documents the loss of ice in Dinwoody and Gannett Glaciers since the 1930's and the importance of glacier meltwater to overall water supply in the Green River and Wind River drainages. Both glaciers have retreated and lost thickness in the last five decades, but repeat photography revealed that Dinwoody Glacier has responded more dramatically than Gannett Glacier to the unfavorable climatic conditions. This contrast can be explained by the difference in area-elevation curves between the two glaciers. The estimated glacier meltwater from Dinwoody and Gannett Glaciers amounts to 27 percent of the September runoff and 32 percent of the October runoff in lower Dinwoody Creek. The July-October runoff from glaciers in the Wind River Range is approximately 70 x 1063 m , or eight percent of the average runoff in the Wind River and Green River basins during that four-month period. -
Rocky Mountain Region 2 – Historical Geography, Names, Boundaries
NAMES, BOUNDARIES, AND MAPS: A RESOURCE FOR THE HISTORICAL GEOGRAPHY OF THE NATIONAL FOREST SYSTEM OF THE UNITED STATES THE ROCKY MOUNTAIN REGION (Region Two) By Peter L. Stark Brief excerpts of copyright material found herein may, under certain circumstances, be quoted verbatim for purposes such as criticism, news reporting, education, and research, without the need for permission from or payment to the copyright holder under 17 U.S.C § 107 of the United States copyright law. Copyright holder does ask that you reference the title of the essay and my name as the author in the event others may need to reach me for clarifi- cation, with questions, or to use more extensive portions of my reference work. Also, please contact me if you find any errors or have a map that has not been included in the cartobibliography ACKNOWLEDGMENTS In the process of compiling this work, I have met many dedicated cartographers, Forest Service staff, academic and public librarians, archivists, and entrepreneurs. I first would like to acknowledge the gracious assistance of Bob Malcolm Super- visory Cartographer of Region 2 in Golden, Colorado who opened up the Region’s archive of maps and atlases to me in November of 2005. Also, I am indebted to long-time map librarians Christopher Thiry, Janet Collins, Donna Koepp, and Stanley Stevens for their early encouragement and consistent support of this project. In the fall of 2013, I was awarded a fellowship by The Pinchot Institute for Conservation and the Grey Towers National Historic Site. The Scholar in Resi- dence program of the Grey Towers Heritage Association allowed me time to write and edit my research on the mapping of the National Forest System in an office in Gifford Pinchot’s ancestral home. -
Ice Volume Estimation Inferred from Ice Thickness and Surface Measurements for Continental Glacier, Wind River Range, Wyoming, USA
478 Journal of Glaciology, Vol. 60, No. 221, 2014 doi: 10.3189/2014JoG13J162 Ice volume estimation inferred from ice thickness and surface measurements for Continental Glacier, Wind River Range, Wyoming, USA Jeffrey A. VANLOOY,1 CleÂment MIEÁGE,2 Gregory S. VANDEBERG,3 Richard R. FORSTER2 1Department of Earth System Science and Policy, University of North Dakota, Grand Forks, ND, USA E-mail: [email protected] 2Department of Geography, University of Utah, Salt Lake City, UT, USA 3Department of Geography, University of North Dakota, Grand Forks, ND, USA ABSTRACT. The Wind River Range in Wyoming, USA, contains the largest concentration of glacial mass in the Rocky Mountains of the contiguous USA. Despite this distinction, only a few field or remotely sensed studies providing glacier volume changes have been published. The current study focuses on Continental Glacier located on the northern end of the range and uses two field datasets (high-accuracy GPS surface elevation points and ice-penetrating radar transects of the glacier bed) to create a three- dimensional model of glacier volume. Current surface elevations are compared with historical elevation data to calculate surface elevation change over time. An average thinning rate of 13.8 7.8 m Æ (0.30 0.17 m a±1) between 1966 and 2012 was found. Surface elevation change rates varied across the Æ glacier, ranging from +0.30 to ±0.98 m a±1. Taking into account variable melt rates across the glacier, along with a glacial volume of 72.1 106 10.8 106 m3, we estimate that Continental Glacier will Â Æ Â be reduced in volume by 43% over the next 100 years and will disappear completely over the next 300±400 years, if current climatic conditions persist.