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Tectonic Influences on the Spatial and Temporal Evolution of the Walker Lane: an Incipient Transform Fault Along the Evolving Pacific – North American Plate Boundary
Arizona Geological Society Digest 22 2008 Tectonic influences on the spatial and temporal evolution of the Walker Lane: An incipient transform fault along the evolving Pacific – North American plate boundary James E. Faulds and Christopher D. Henry Nevada Bureau of Mines and Geology, University of Nevada, Reno, Nevada, 89557, USA ABSTRACT Since ~30 Ma, western North America has been evolving from an Andean type mar- gin to a dextral transform boundary. Transform growth has been marked by retreat of magmatic arcs, gravitational collapse of orogenic highlands, and periodic inland steps of the San Andreas fault system. In the western Great Basin, a system of dextral faults, known as the Walker Lane (WL) in the north and eastern California shear zone (ECSZ) in the south, currently accommodates ~20% of the Pacific – North America dextral motion. In contrast to the continuous 1100-km-long San Andreas system, discontinuous dextral faults with relatively short lengths (<10-250 km) characterize the WL-ECSZ. Cumulative dextral displacement across the WL-ECSZ generally decreases northward from ≥60 km in southern and east-central California, to ~25 km in northwest Nevada, to negligible in northeast California. GPS geodetic strain rates average ~10 mm/yr across the WL-ECSZ in the western Great Basin but are much less in the eastern WL near Las Vegas (<2 mm/ yr) and along the northwest terminus in northeast California (~2.5 mm/yr). The spatial and temporal evolution of the WL-ECSZ is closely linked to major plate boundary events along the San Andreas fault system. For example, the early Miocene elimination of microplates along the southern California coast, southward steps in the Rivera triple junction at 19-16 Ma and 13 Ma, and an increase in relative plate motions ~12 Ma collectively induced the first major episode of deformation in the WL-ECSZ, which began ~13 Ma along the N60°W-trending Las Vegas Valley shear zone. -
Utah Geological Association Publication 30.Pub
Utah Geological Association Publication 30 - Pacific Section American Association of Petroleum Geologists Publication GB78 239 CENOZOIC EVOLUTION OF THE NORTHERN COLORADO RIVER EXTEN- SIONAL CORRIDOR, SOUTHERN NEVADA AND NORTHWEST ARIZONA JAMES E. FAULDS1, DANIEL L. FEUERBACH2*, CALVIN F. MILLER3, 4 AND EUGENE I. SMITH 1Nevada Bureau of Mines and Geology, University of Nevada, Mail Stop 178, Reno, NV 89557 2Department of Geology, University of Iowa, Iowa City, IA 52242 *Now at Exxon Mobil Development Company, 16825 Northchase Drive, Houston, TX 77060 3Department of Geology, Vanderbilt University, Nashville, TN 37235 4Department of Geoscience, University of Nevada, Las Vegas, NV 89154 ABSTRACT The northern Colorado River extensional corridor is a 70- to 100-km-wide region of moderately to highly extended crust along the eastern margin of the Basin and Range province in southern Nevada and northwestern Arizona. It has occupied a criti- cal structural position in the western Cordillera since Mesozoic time. In the Cretaceous through early Tertiary, it stood just east and north of major fold and thrust belts and also marked the northern end of a broad, gently (~15o) north-plunging uplift (Kingman arch) that extended southeastward through much of central Arizona. Mesozoic and Paleozoic strata were stripped from the arch by northeast-flowing streams. Peraluminous 65 to 73 Ma granites were emplaced at depths of at least 10 km and exposed in the core of the arch by earliest Miocene time. Calc-alkaline magmatism swept northward through the northern Colorado River extensional corridor during early to middle Miocene time, beginning at ~22 Ma in the south and ~12 Ma in the north. -
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Index (Italic page numbers indicate major references) Abalone Cove landslide, California, Badger Spring, Nevada, 92, 94 Black Dyke Formation, Nevada, 69, 179, 180, 181, 183 Badwater turtleback, California, 128, 70, 71 abatement districts, California, 180 132 Black Mountain Basalt, California, Abrigo Limestone, Arizona, 34 Bailey ash, California, 221, 223 135 Acropora, 7 Baked Mountain, Alaska, 430 Black Mountains, California, 121, Adams Argillite, Alaska, 459, 462 Baker’s Beach, California, 267, 268 122, 127, 128, 129 Adobe Range, Nevada, 91 Bald Peter, Oregon, 311 Black Point, California, 165 Adobe Valley, California, 163 Balloon thrust fault, Nevada, 71, 72 Black Prince Limestone, Arizona, 33 Airport Lake, California, 143 Banning fault, California, 191 Black Rapids Glacier, Alaska, 451, Alabama Hills, California, 152, 154 Barrett Canyon, California, 202 454, 455 Alaska Range, Alaska, 442, 444, 445, Barrier, The, British Columbia, 403, Blackhawk Canyon, California, 109, 449, 451 405 111 Aldwell Formation, Washington, 380 Basin and Range Province, 29, 43, Blackhawk landslide, California, 109 algae 48, 51, 53, 73, 75, 77, 83, 121, Blackrock Point, Oregon, 295 Oahu, 6, 7, 8, 10 163 block slide, California, 201 Owens Lake, California, 150 Basin Range fault, California, 236 Blue Lake, Oregon, 329 Searles Valley, California, 142 Beacon Rock, Oregon, 324 Blue Mountains, Oregon, 318 Tatonduk River, Alaska, 459 Bear Meadow, Washington, 336 Blue Mountain unit, Washington, 380 Algodones dunes, California, 101 Bear Mountain fault zone, California, -
STATE of NEVADA Brian Sandoval, Governor
STATE OF NEVADA Brian Sandoval, Governor DEPARTMENT OF WILDLIFE Tony Wasley, Director GAME DIVISION Brian F. Wakeling, Chief Mike Cox, Big Game Staff Biologist Pat Jackson, Carnivore Staff Biologist Cody McKee, Elk Staff Biologist Cody Schroeder, Mule Deer Staff Biologist Peregrine Wolff, Wildlife Health Specialist Western Region Southern Region Eastern Region Regional Supervisors Mike Scott Steve Kimble Tom Donham Big Game Biologists Chris Hampson Joe Bennett Travis Allen Carl Lackey Pat Cummings Clint Garrett Kyle Neill Cooper Munson Matt Jeffress Ed Partee Kari Huebner Jason Salisbury Jeremy Lutz Kody Menghini Tyler Nall Scott Roberts Cover photo credit: Mike Cox This publication will be made available in an alternative format upon request. Nevada Department of Wildlife receives funding through the Federal Aid in Wildlife Restoration. Federal Laws prohibit discrimination on the basis of race, color, national origin, age, sex, or disability. If you believe you’ve been discriminated against in any NDOW program, activity, or facility, please write to the following: Diversity Program Manager or Director U.S. Fish and Wildlife Service Nevada Department of Wildlife 4401 North Fairfax Drive, Mailstop: 7072-43 6980 Sierra Center Parkway, Suite 120 Arlington, VA 22203 Reno, Nevada 8911-2237 Individuals with hearing impairments may contact the Department via telecommunications device at our Headquarters at 775-688-1500 via a text telephone (TTY) telecommunications device by first calling the State of Nevada Relay Operator at 1-800-326-6868. NEVADA DEPARTMENT OF WILDLIFE 2017-2018 BIG GAME STATUS This program is supported by Federal financial assistance titled “Statewide Game Management” submitted to the U.S. -
3.5 Water Quality
AFFECTED ENVIRONMENT & ENVIRONMENTAL CONSEQUENCES CHAPTER 3 3.5 WATER QUALITY 3.5.1 INTRODUCTION This section addresses the salinity of the Colorado River and mainstream reservoirs, and the quality of Lake Mead water available for municipal and industrial purposes. The potential changes in the operation of the Colorado River system downstream from Lake Powell under interim surplus criteria alternatives could temporarily affect the salinity of Colorado River water, which affects municipal and industrial uses in the lower basin. In addition, changes in Lake Mead water levels could affect the quality of water arriving at the Southern Nevada Water System pump intakes in the Boulder Basin of Lake Mead, and thereby affect the quality of the water supply for the Las Vegas Valley. 3.5.2 COLORADO RIVER SALINITY This section discusses potential effects that could result from the implementation of the interim surplus criteria alternatives under consideration. Salinity has long been recognized as one of the major problems of the Colorado River. “Salinity” or “total dissolved solids” (TDS) include all of the soluble constituents dissolved in a river and the two terms are used interchangeably in this document. This section considers potential changes in salinity concentrations from Lake Mead to Imperial Dam. The section also presents a general discussion of the adverse effects of increased salinity concentrations on municipal and industrial systems. 3.5.2.1 METHODOLOGY Reclamation’s model for salinity is used to create salinity reduction targets for the Colorado River Basin Salinity Control Program (SCP). To do this, the model simulates the effects of scheduled water development projects to predict future salinity levels. -
Geophysical Unit of Menlo Park, Calif
In Cooperation with the National Park Service Geophysical studies based on gravity and seismic data of Tule Desert, Meadow Valley Wash, and California Wash basins, southern Nevada By Daniel S. Scheirer, William R. Page, and John J. Miller Any use of trade, firm, or product names is for descriptive purposes only and does not imply endorsement by the U.S. Government Open-File Report 2006-1396 U.S. Department of the Interior U.S. Geological Survey Contents Abstract .........................................................................................................................................................................1 Introduction and Geologic Setting.................................................................................................................................1 Gravity Observations.....................................................................................................................................................3 Gravity Analysis............................................................................................................................................................4 Rock Samples ................................................................................................................................................................6 Seismic Reflection Lines ...............................................................................................................................................6 Results ...........................................................................................................................................................................8 -
The Geology of the N.A.S.A. Arizona Sedimentary Test Site Mohave Co
The Geology of the N.A.S.A. Arizona Sedimentary Test Site Mohave Co. Arizona A thesis submitted in partial fulfillment of the requirements for the degree of Master of Science in Geology by Peter Anderson Brennan University of Nevada Reno. Nevada June 1968 The thesis of Peter Anderson Brennan is Approved Dept. Chairman Dean, Graduate School University of Nevada Reno June 1968 a b s t r a c t The NASA Fundamental Sedimentary Test Site in northern Mohave County, Arizona contains exposures of limestone, sandstone, conglomerate and thin layers of basalt. Structurally, the area consists of southeasterly dipping rock units transversed by a series of minor high angle faults, and a major low angle normal fault. The structure is complicated by drag folding along some of the faults, and minor changes in the direction and amount of the regional dip. The Tertiary and Quarternary units are superimposed unconformably over the faulted and tilted upper Paleozoic rocks. The topography is moderate, much of the site being in a broad flat valley. Because of the arid weathering conditions large detrital fans have been developed in the valleys. These fans support typical high desert vegetation. Remote sensing aircraft flights have yielded photographs, imagery and sensor data which, with detailed ground information provides an almost unique area in which to study the possible contributions of remote sensing to geology. Radar ultraviolet, photographic infrared, thermal infrared, microwave radiometry and scatterometry are available for the site. A comparative analysis between each of the sensing systems and the classical geologic study shows subtle peculiarities of each system giving data not otherwise available, except by careful field and laboratory studies. -
An Animated Tectonic Reconstruction of Southwestern North America Since 36 Ma
An Animated Tectonic Reconstruction of Southwestern North America since 36 Ma Nadine McQuarrie= Brian P. Wernicke Division of Geological and Planetary Sciences, MS 100-23, California Institute of Technology, Pasadena, CA 91125 ABSTRACT We present tectonic reconstructions and an accompanying animation of deformation across the North America/ Pacific plate boundary since 36 Ma. Intraplate deformation of southwestern North America was obtained through synthesis of kinematic data (amount, timing and direction of displacement) along three main transects through the northern (40° N) central (36°-37° N) and southern (34° N) portions of the Basin and Range province. We combined these transects with first- order plate boundary constraints from the San Andreas fault and other areas west of the Basin and Range. Extension and strike-slip deformation in all areas were sequentially restored over 2 m.y. (0 to 18 Ma) to 6 m.y. (18 to 36 Ma) time intervals using the ArcGIS program. Regions where the kinematics are known constrain adjacent areas where the kinematics are not well defined. The process of sequential restoration highlighted misalignments, overlaps or large gaps in each incremental step, particularly in the areas between data transects, which remain problematic. Hence the value of the reconstructions lies primarily in highlighting questions that might not otherwise be recognized, and thus they should not be viewed as a ‘final product.’ The new sequential reconstructions show that compatible slip along the entire N-S extent of the inland right –lateral shear zone from the Gulf of California to the northern Walker Lane is supported by available data, and that the east limit of shear has migrated westward with time. -
Mojave Desert Plant Community Long-Term Response to Disturbance
UNLV Theses, Dissertations, Professional Papers, and Capstones December 2019 Mojave Desert Plant Community Long-Term Response to Disturbance Dominic M. Gentilcore Follow this and additional works at: https://digitalscholarship.unlv.edu/thesesdissertations Part of the Biology Commons, Environmental Sciences Commons, and the Terrestrial and Aquatic Ecology Commons Repository Citation Gentilcore, Dominic M., "Mojave Desert Plant Community Long-Term Response to Disturbance" (2019). UNLV Theses, Dissertations, Professional Papers, and Capstones. 3804. http://dx.doi.org/10.34917/18608655 This Dissertation is protected by copyright and/or related rights. It has been brought to you by Digital Scholarship@UNLV with permission from the rights-holder(s). You are free to use this Dissertation in any way that is permitted by the copyright and related rights legislation that applies to your use. For other uses you need to obtain permission from the rights-holder(s) directly, unless additional rights are indicated by a Creative Commons license in the record and/or on the work itself. This Dissertation has been accepted for inclusion in UNLV Theses, Dissertations, Professional Papers, and Capstones by an authorized administrator of Digital Scholarship@UNLV. For more information, please contact [email protected]. MOJAVE DESERT PLANT COMMUNITY LONG-TERM RESPONSE TO DISTURBANCE By Dominic M. Gentilcore Bachelor of Science – Biology Saint Louis University 2007 Master of Science – Natural Resources and Environmental Science University of Nevada, Reno 2015 A dissertation submitted in partial fulfillment of the requirements for the Doctor of Philosophy - Biological Science School of Life Sciences College of Sciences The Graduate College University of Nevada, Las Vegas December 2019 Dissertation Approval The Graduate College The University of Nevada, Las Vegas November 13, 2019 This dissertation prepared by Dominic M. -
Paleogeographic Implications of Late Miocene Lacustrine and Nonmarine Evaporite Deposits in the Lake Mead Region: GEOSPHERE; V
Research Paper THEMED ISSUE: CRevolution 2: Origin and Evolution of the Colorado River System II GEOSPHERE Paleogeographic implications of late Miocene lacustrine and nonmarine evaporite deposits in the Lake Mead region: GEOSPHERE; v. 12, no. 3 Immediate precursors to the Colorado River doi:10.1130/GES01143.1 James E. Faulds1, B. Charlotte Schreiber2, Victoria E. Langenheim3, Nicholas H. Hinz1, Thomas H. Shaw4, Matthew T. Heizler5, Michael E. Perkins6, 19 figures; 7 tables Mohamed El Tabakh7, and Michael J. Kunk8 1Nevada Bureau of Mines and Geology, University of Nevada, Reno, Nevada 89557, USA CORRESPONDENCE: jfaulds@ unr .edu 2Department of Earth and Space Sciences, University of Washington, Seattle, Washington 98195, USA 3U.S. Geological Survey, Menlo Park, California 94025, USA 4LK Energy, 1729 Harold Street, Houston, Texas 77098, USA CITATION: Faulds, J.E., Schreiber, B.C., Langen- 5New Mexico Bureau of Geology and Mineral Resources, New Mexico Tech, Socorro, New Mexico 87801, USA heim, V.E., Hinz, N.H., Shaw, T.H., Heizler, M.T., 62025 E. White Circle, Salt Lake City, Utah 84109, USA Perkins, M.E., El Tabakh, M., and Kunk, M.J., 2016, 7154-78 71st Avenue, Queens, New York 11367, USA Paleogeographic implications of late Miocene lacus- 8U.S. Geological Survey, Reston, Virginia 20192, USA trine and nonmarine evaporite deposits in the Lake Mead region: Immediate precursors to the Colorado River: Geosphere, v. 12, no. 3, p. 721–767, doi:10 .1130 /GES01143.1. ABSTRACT the northern Grand Wash, Mesquite, southern Detrital, and northeastern Las Vegas basins. New tephrochronologic data indicate that the upper part of the Received 17 October 2014 Thick late Miocene nonmarine evaporite (mainly halite and gypsum) and halite in the Hualapai basin is ca. -
Kinematic Evolution of a Large-Offset Continental Normal Fault System, South Virgin Mountains, Nevada
Kinematic evolution of a large-offset continental normal fault system, South Virgin Mountains, Nevada Robert Brady* Brian Wernicke Division of Geological and Planetary Sciences, California Institute of Technology, Pasadena, California 91125, USA Joan Fryxell Department of Geological Sciences, California State University, San Bernardino, California 92407, USA ABSTRACT examination of other areas suggests that the John and Foster, 1993); others may have ini- evolutionary sequence seen in the South tiated with steep dips and remained active as The South Virgin Mountains and Grand Virgin Mountains may, in fact, be widely they tilted to shallow dips. Tilting of these Wash trough comprise a mid-Miocene nor- applicable. faults is probably due to combined domino- mal fault system that de®nes the boundary style tilting and isostatically driven footwall between the unextended Colorado Plateau Keywords: Egan Range, kinematics, Lemi- ¯exure (Fig. 1C). Many gently dipping normal to the east and highly extended crust of the tar Mountains, normal faults, South Virgin faults might be best interpreted this way, rath- central Basin and Range province to the Mountains, Yerington. er than invoking rotation by younger struc- west. In the upper 3 km of the crust, the tures. system developed in subhorizontal cratonic INTRODUCTION Detailed geologic studies were conducted in strata in the foreland of the Cordilleran the South Virgin Mountains of southeastern fold and thrust system. The rugged topog- Geologic mapping in the Basin and Range Nevada and northwestern Arizona (Fig. 2), a raphy and lack of vegetation of the area af- province has shown that gently dipping nor- region well suited for testing existing kine- ford exceptional three-dimensional expo- mal faults are common (e.g., Longwell, 1945; matic models of normal faulting. -
Revised Geologic Cross Sections of Parts of the Colorado, White River, and Death Valley Regional Groundwater Flow Systems, Nevada, Utah, and Arizona
Prepared in cooperation with the National Park Service Revised Geologic Cross Sections of Parts of the Colorado, White River, and Death Valley Regional Groundwater Flow Systems, Nevada, Utah, and Arizona By William R. Page, Daniel S. Scheirer, Victoria E. Langenheim, and Mary A. Berger Open-File Report 2006–1040 Revised June, 2011 U.S. Department of the Interior U.S. Geological Survey NCA - 000543 U.S. Department of the Interior KEN SALAZAR, SECRETARY U.S. Geological Survey Marcia K. McNutt, Director U.S. Geological Survey, Denver, Colorado, 2011 Revised June, 2011 For product and ordering information: World Wide Web: http://www.usgs.gov/pubprod Telephone: 1-888-ASK-USGS For more information on the USGS—the Federal source for science about the Earth, its natural and living resources, natural hazards, and the environment: World Wide Web: http://www.usgs.gov Telephone: 1-888-ASK-USGS Suggested citation: Page, W.R., Scheirer, D.S., Langenheim, V.E., and Berger, M.A., 2011, Revised geologic cross sections of parts of the Colorado, White River, and Death Valley regional groundwater flow systems, Nevada, Utah, and Arizona: U.S. Geological Survey Open-File Report 2006–1040, Denver, CO, 80225. Any use of trade, product, or firm names is for descriptive purposes only and does not imply endorsement by the U.S. Government. Although this report is in the public domain, permission must be secured from the individual copyright owners to reproduce any copyrighted material contained within this report. NCA - 000544 Contents Abstract ........................................................................................................................................................