The Detrital, Hualapai, and Sacramento Valleys Are Broad, Intermountain Desert Basins in Mohave County, Northwestern Arizona, An

Total Page:16

File Type:pdf, Size:1020Kb

The Detrital, Hualapai, and Sacramento Valleys Are Broad, Intermountain Desert Basins in Mohave County, Northwestern Arizona, An Preliminary ground-water level and water-quality data in the Detrital, Hualapai, and Sacramento Valley Basins 1Margot Truini, and 2David W. Anning, The Detrital, Hualapai, and Sacramento Valleys are broad, intermountain desert basins in Mohave County, northwestern Arizona, and are home to residents in the City of Kingman and several rural communities. Ground water is the primary source of water in these valleys and is essential for many economic and cultural activities. Management of the available ground-water resources in these valleys guided by a comprehensive scientific understanding can help the growing communities to meet their needs in a sustainable manner. Information about ground-water levels and water quality within the valleys provide preliminary information useful to land managers and residents in the area. This study is being done in support of the Arizona Department of Water Resource’s (ADWR) Rural Watershed Initiative (RWI) and is funded by ADWR and the U.S. Geological Survey (USGS). Ground-water level changes between 1943 and 2006 and their change over time in Detrital, Hualapai, and Sacramento Valley Basins of northwestern Arizona were investigated to improve the understanding of past and current ground-water conditions in these basins. The potentiometric surface for ground water in the basin-fill aquifer of each basin is generally parallel to land surface elevations. Consequently, ground-water generally moves from the mountain front toward the basin center and then along the basin axis toward the Colorado River or Lake Mead. Detrital and Hualapai Valley Basins drain towards Lake Mead and Sacramento Valley Basin drains towards the Colorado River. In Detrital Valley Basin, water levels generally have remained the same or have steadily increased since the 1980. Steady conditions, water-level rises, or water-level declines were found in wells penetrating the basin-fill aquifer in areas within the Hualapai Valley Basin. Within the Sacramento Valley Basin, small steady rises or water-level declines were observed throughout the area during the period of record. Water-quality data for ground water from selected wells within each of the valleys provides spatial information about the relative quality of the water. Dissolved-solids and specific-conductance data provides information about the relative salinity within the study area. Ground-water from some areas had elevated concentrations of sodium and chloride related to the dissolution of halite. Elevated concentrations of sulfate appear to be related to the dissolution of gypsum. Cation exchange may be contributing elevated concentrations of sodium and calcium. Ground-water in the hard rock aquifers was generally higher in specific conductance and dissolved solids than water from the Basin- Fill aquifers. Preliminary interpretation of the relative ground-water ages from 14C data collected in Hualapai Valley Basin indicate that the age of the ground water is recent to 9,000 years old around the edges of the basin fill and 6,500 to 18,000 years old in the center of the valley basin fill. 1 Margot Truini, U.S. Geological Survey, Flagstaff Science Center, 2255 N. Gemini Drive, Flagstaff, AZ 86001, Ph: 928-556-3025, fax: 928-556-7112, [email protected] 2David W. Anning, U.S. Geological Survey, Flagstaff Science Center, 2255 N. Gemini Drive, Flagstaff, AZ 86001, Ph: 928-556-7139, Fax: 928-556-7112, [email protected] .
Recommended publications
  • The Dolan Springs Volcanic Field, Northwestern Arizona
    UNLV Theses, Dissertations, Professional Papers, and Capstones 12-1995 Geochemical evolution of a mid-miocene synextensional volcanic complex: The Dolan Springs volcanic field, northwestern Arizona Scott Michael McDaniel University of Nevada, Las Vegas Follow this and additional works at: https://digitalscholarship.unlv.edu/thesesdissertations Part of the Geochemistry Commons, Geology Commons, and the Volcanology Commons Repository Citation McDaniel, Scott Michael, "Geochemical evolution of a mid-miocene synextensional volcanic complex: The Dolan Springs volcanic field, northwestern Arizona" (1995). UNLV Theses, Dissertations, Professional Papers, and Capstones. 1451. http://dx.doi.org/10.34917/3434922 This Thesis 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 Thesis 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 Thesis 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]. Geochemical Evolution of a Mid-Miocene Synextensional Volcanic Complex: The Dolan Springs Volcanic Field, Northwestern Arizona by Scott Michael McDaniel A thesis submitted in partial fulfillment of the requirements for the degree of Masters of Science in Geology Department of Geoscience University of Nevada, Las Vegas December, 1995 © 1995 Scott Michael McDaniel All Rights Reserved The thesis of Scott Michael McDaniel for the degree of Masters in Science in Geology is approved.
    [Show full text]
  • Ambient Groundwater Quality of the Detrital Valley Basin: an ADEQ 2002 Baseline Study
    Ambient Groundwater Quality of the Detrital Valley Basin: An ADEQ 2002 Baseline Study normal pool elevation of Lake Mead. Dolan Springs is the largest community in the basin. In the DET, 27 percent of land is managed by the National Park Service as part of the Lake Mead National Recreational Area. The remainder is managed by the Bureau of Land Management (42 percent) and State Trust land (9 percent) or consists of private lands (22 percent). III. Hydrology Groundwater from the alluvial aquifer underneath Detrital Valley is the principle water source in the basin and has the ability to supply up to 150 gallons per minute (gpm).3 However, depths to groundwater, approaching 800 feet below land surface (bls) in the valley, make tapping this aquifer for 2 Figure 1. In a bit of hydrologic serendipity, during the course of ADEQ’s study of the Detrital domestic use an expensive proposition. Valley basin, Lake Mead receeded to levels low enough to expose Monkey Cove Spring for the first time since July 1969. The spring flowed at an amazing 1,200 gallons per minute in 1964. I. Introduction factsheet reports upon the results of groundwater quality investigations in The Detrital Valley Groundwater Basin the DET and is a summary of the more (DET), traversed by U.S. Highway 93, extensive report produced by the is roughly located between the city of Arizona Department of Environmental Kingman and Hoover Dam on the Quality (ADEQ).1 Colorado River in northwestern Arizona (Map 1). Although lightly populated II. Background with retirement and recreation-oriented communities, the recent decision to The DET is approximately 50 miles construct a Hoover Dam bypass route long (north to south) and 15 miles wide for U.S.
    [Show full text]
  • V5 2-7 Comment Letters
    2.7 Comment Letters Received after Deadline TABLE 2-9 COMMENT LETTERS RECEIVED AFTER DEADLINE Commenter Date of Comment Signatory and Title Joe Schumacher Rancho Cucamonga Chamber of Commerce 04/12/2012 Chairman of the Board Larry Witt, Individual 04/26/2012 – NPCA-CBD et al. 05/04/2012 Adam Lazar Tetra Technologies, Inc. via Rutan & Tucker, 05/07/2012 Robert S. Bower Joseph Vanderhorst Metropolitan Water District of Southern California 05/14/2012 Sr. Deputy General Counsel 05/23/2012 (2), Lozeau Drury LLP on behalf of Laborers International Union of Christina Caro 05/25/2012 and North America LaborersLocal Union 783 (4 submissions) Attorney for Local 783 06/22/12 Diane Allison, Individual 05/24/2012 – MC and Lorenzo Hagerty, Individuals 02/24/2012 – Jean Marie Naples, Individual 05/24/2012 – Anthony Nicolau, Individual 05/24/2012 – Danielle Bower, Individual 05/25/2012 – J. Capozzelli, Individual 05/25/2012 – David A. Brunetti, Individual 05/26/2012 – Phyllis Jacoby, Individual undated – Steve Jacoby, Individual undated – Heather Hahn, Individual 05/29/2012 – Benjamin and Jennifer Valentine, Individuals 05/29/2012 – Center for Biological Diversity 05/31/2012 Adam Lazar, Staff Attorney Pam Nelson, Individual 06/01/2012 – Greta Loeffelbein, Individual undated – Anuj Shaw, Individual 06/20/2012 -- The Wildlands Conservancy 06/24/2012 Claudia Sall Cadiz Valley Water Conservation, Recovery, and Storage Project ESA / 210324 Final Environmental Impact Report July 2012 O_OCCC O_RCCC I_Witt Sarah Spano From: Tom Barnes Sent: Thursday, April 26,
    [Show full text]
  • User Notes Kingman N E Arizona Wetland Map 1 . Map Preparation
    User Notes Kingman N E Arizona Wetland Map 1 . Map Preparation Wetland classification for the National Wetlands Inventory (NWI) wetland map overlay to the Kingman NE 1 :100,000 scale map are in accordance with L .M . Cowardin et al (1979) . Wetland delineations and classifications were produced through the interpretation of black and white aerial photographs at a scale of 1 :120,000 taken during the fall of 1973 . The photographs were viewed stereoscopically at a 6X magnification . Delineations were enlarged using a zoom- transferscope to overlays of 1 :24,000 and 1 :62,500 . Overlays were then transferred to 1 :100,000 scale base maps . Limited field checks were performed during the summer and fall of 1979 . The Project Officer for production of the wetland map was Warren Hagenbuck Regional Wetlands Coordinator, U .S . Fish and Wildlife Service Region 2, P .O . Box 1306, Albuquerque New Mexico 87103 . Aerial photo interpretations were completed by the School of Renewable Natural Resources, University of Arizona, Tucson 85721 . Project Director Dr . Jon Rodiek . The user of the map is cautioned that due to mapping, primarily through photo interpretation, a small percentage of wetlands may have gone unidentified . Landscape changes could have taken place since the time of photo acquisition therefore discrepancies or land use changes should be provided to the Regional Wetlands Coordinator, Region 2, U .S . Fish and Wildlife Service . 2 . Collateral Data A . General Location The area is entirely within Mohave County Arizona Northern boundary 360 N Latitude Southern boundary 6th Standard parallel north Eastern boundary 1140 W Longitude Western boundary Colorado River B .
    [Show full text]
  • Water Quality Investigations in the Historic Mining District of Chloride and Adjacent Areas in the Cerbat Mountains (Mohave County, Arizona)
    Water Quality Investigations in the Historic Mining District of Chloride and Adjacent Areas in the Cerbat Mountains (Mohave County, Arizona) by Ulrike Rosner Arizona Geological Survey Contributed Report 95-1 December 1995 Arizona Geological Survey 416 W. Congress, Suite #100, Tucson, Arizona 85701 Interpretations and conclusions in this report are those of the consultant and do not necessarily coincide with those of the staff of the Arizona Geological SUivey This report Is preliminary and has not been edited or reviewed for conformity with Arizona Geological Survey standards WATER QUALITY INVESTIGATIONS IN THE HISTORIC MINING DISTRICT OF CHLORIDE AND ADJACENT AREAS IN THE CERBAT MOUNTAINS (MOHAVE COUNTY, ARIZONA) By Ulrike Rosner * 1995 Table of Contents Figures ...............................................2 Tables ...............................................2 Abstract ..............................................3 1 Background and Problem Statement. ...........................3 2 The Study Area .........................................5 2.1 Physiogeography ........................................5 2.2 Past and Present Use .....................................6 3 Investigation Methods .....................................7 4 Water Quality Standards.................................... 7 5 Results ...............................................9 5.1 Chloride and its Surroundings (I + 1/) ............................9 5.2 The Historic Mining Area southeast of Chloride (III) ................. 12 5.3 The Historic Mining Area of Golconda
    [Show full text]
  • HMS), Water Level Change Map Series (WLCMS), and Basin Sweep Assessment Report ADWR Basins and Sub-Basins
    Arizona Department of Water Resources Hydrology Division Field Services Section Hydrologic Map Series (HMS), Water Level Change Map Series (WLCMS), and Basin Sweep Assessment Report ADWR Basins and Sub-Basins June 24, 2009 by Stephen Flora and Teri Davis ADWR Hydrology Division – Field Services Section Table of Contents Table of Contents .............................................................................................................. 2 Introduction....................................................................................................................... 3 Field Serices 2008-2009 Activities.................................................................................... 4 Current Status on Basins and Sub-basins ...................................................................... 4 Completed HMS Reports................................................................................................. 4 Proposed Basin Sweeps (Basins and Sub-basins) .......................................................... 4 Proposed HMS Basins and Sub-basins........................................................................... 5 Proposed WLCMS Basins and Sub-basins ..................................................................... 6 Conclusions and Recommendations................................................................................ 7 List of Figures Figure 1 – Population per Index Well Figure 2 – Area (square miles) per Index Well Figure 3 – Completed HMS Reports Figure 4 – Proposed Basin Sweeps (Basins and
    [Show full text]
  • The Mount Perkins Block, Northwestern Arizona an Exposed
    JOURNAL OF GEOPHYSICAL RESEARCH, VOL. 100, NO. B8, PAGES 15,249-15,266, AUGUST 10, 1995 The Mount Perkins block, northwestern Arizona: An exposedcross section of an evolving, preextensional to synextensionalmagmatic system JamesE. Faulds,• Daniel L. Feuerbach,1 Mark K. Reagan,1 Rodney V. Metcalf,2 Phil Gans,3 and J. D. Walker4 Abstract. The steeplytilted Mount Perkinsblock, northwestern Arizona, exposes a cross sectionof a magmaticsystem that evolved through the onsetof regionalextension. New 4øAr/39Arages of variably tilted (0-90 ø) volcanic strata bracket extension between 15.7 and 11.3 Ma. Preextensionalintrusive activity includedemplacement of a compositeMiocene laccolithand stock,trachydacite dome complex, and east striking rhyolite dikes. Related volcanicactivity producedan -18-16 Ma stratovolcano,cored by trachydacitedomes and flankedby trachydacite-trachyandesiteflows, and -16 Ma rhyoliteflows. Similar compositionsindicate a geneticlink betweenthe stratovolcanoand granodioriticphase of the laccolith. Magmatic activity synchronouswith early regionalextension (15.7-14.5 Ma) generateda thick, felsic volcanicsequence, a swarmof northerlystriking subvertical rhyolite dikes,and rhyolite domes. Field relationsand compositionsindicate that the dike swarmand felsicvolcanic sequence are cogenetic.Modes of magmaemplacement changed during the onsetof extensionfrom subhorizontalsheets, east striking dikes, and stocksto northerly striking,subvertical dike swarms,as the regionalstress field shiftedfrom nearly isotropicto decidedlyanisotropic
    [Show full text]
  • Hydrogeology and Sources of Water to Select Springs in Black Canyon, South of Hoover Dam, Lake Mead National Recreation Area, Nevada and Arizona
    Prepared in cooperation with the National Park Service Hydrogeology and Sources of Water to Select Springs in Black Canyon, South of Hoover Dam, Lake Mead National Recreation Area, Nevada and Arizona Scientific Investigations Report 2015–5130 U.S. Department of the Interior U.S. Geological Survey Cover: Photograph of Latos Pool looking west, Black Canyon, Lake Mead National Recreation Area, Nevada and Arizona. (Photograph taken by Jon Wilson, U.S. Geological Survey, 2014.) Hydrogeology and Sources of Water to Select Springs in Black Canyon, South of Hoover Dam, Lake Mead National Recreation Area, Nevada and Arizona By Michael J. Moran, Jon W. Wilson, and L. Sue Beard Prepared in cooperation with the National Park Service Scientific Investigations Report 2015–5130 U.S. Department of the Interior U.S. Geological Survey U.S. Department of the Interior SALLY JEWELL, Secretary U.S. Geological Survey Suzette M. Kimball, Acting Director U.S. Geological Survey, Reston, Virginia: 2015 For more information on the USGS—the Federal source for science about the Earth, its natural and living resources, natural hazards, and the environment—visit http://www.usgs.gov or call 1–888–ASK–USGS. For an overview of USGS information products, including maps, imagery, and publications, visit http://www.usgs.gov/pubprod/. Any use of trade, firm, or product names is for descriptive purposes only and does not imply endorsement by the U.S. Government. Although this information product, for the most part, is in the public domain, it also may contain copyrighted materials as noted in the text. Permission to reproduce copyrighted items must be secured from the copyright owner.
    [Show full text]
  • Detrital Wash Watershed – Arizona Rapid Watershed Assessment April 2007
    Detrital Wash Watershed – Arizona Rapid Watershed Assessment April 2007 Prepared by: USDA Natural Resource Conservation Service – Arizona University of Arizona, Water Resources Research Center In cooperation with: Arizona Association of Conservation Districts Arizona Department of Agriculture Arizona Department of Environmental Quality Arizona Department of Water Resources Arizona Game & Fish Department Arizona State Land Department USDA Forest Service USDI Bureau of Land Management Released by: Sharon Megdal David McKay Director State Conservationist University of Arizona U.S. Department of Agriculture Water Resources Research Center Natural Resources Conservation Service Principle Investigators: Dino DeSimone – Natural Resources Conservation Service, Phoenix, Arizona Keith Larson – Natural Resources Conservation Service, Phoenix, Arizona Kristine Uhlman – Water Resources Research Center, University of Arizona D. Phil Guertin – School of Natural Resources, University of Arizona Deborah Young – Associate Director, Cooperative Extension, University of Arizona The United States Department of Agriculture (USDA) prohibits discrimination in all its programs and activities on the basis of race, color, national origin, gender, religion, age, disability, political beliefs, sexual orientation, and marital or family status. (Not all prohibited bases apply to all programs.) Persons with disabilities who require alternative means for communication of program information (Braille, large print, audiotape, etc.) should contact USDA’s TARGET Center at
    [Show full text]
  • Geologic Map of the Dolan Springs 7.5' Quadrangle, Mohave County
    Arizona Geological Survey DGM-81 (Dolan Springs), v.1.0 114°22'30" 114°20' 114°17'30" 114°15' GEOLOGIC MAP OF THE DOLAN SPRINGS 195000 196000 197000 198000 199000 200000 201000 202000 203000 204000 205000 206000 Map Unit Descriptions 0 " 0 0 0 7 ½' QUADRANGLE, MOHAVE COUNTY, ARIZONA 3 8 ' 4 7 9 3 3 ° 5 3 0 0 0 7 4 " 9 by 0 3 Piedmont Deposits 3 ' 7 3 ° 5 Basalt - Basaltic lava containing up to 15% mafic phenocrysts, but typically <5%, Pearthree, P.A., Ferguson, C.A., and Spencer, J.E. 3 Modern channel alluvium - Unconsolidated, very poorly sorted sand, pebbles, Tb Qyc cobbles and locally boulders in larger channels of piedmont washes. Channels may including 1-6mm green pyroxene (probably clinopyroxene) and <1-2mm iddingsite exhibit bar and swale microtopography with bars composed of coarser sediments. after olivine. Plagioclase phenocrysts are typically very sparse or absent, although Qyc deposits are typically unvegetated and exhibit no soil development although plagioclase microlites typically constitute significant proportions of the matrix. In the November 2010 northeast, this unit is represented by relatively thin flows interbedded with andesitic small shrubs and grasses can be found on slightly elevated bars and trees line some lavas. In several instances, the basaltic flows are very thin and occur at the contact channel reaches. 0 between relatively thick sequences of the various andesitic lava units. Only a few of 0 0 7 these were mapped. In the northwest, where the basalt is interbedded with felsic Arizona Geological Survey Digital Geologic Map 81 4 9 3 Latest Holocene alluvium - Poorly sorted, unconsolidated sand, pebbles, cobbles, silt Qy3 tuffs and lava, the flows are typically more phenocryst-rich (>10%) and coarser and boulders located in small channels, on floodplains and on low-lying terraces.
    [Show full text]
  • Hydrogeologic Investigation of the Detrital, Hualapai, and Sacramento Valleys of Northwestern Arizona: a Project of the Rural Watershed Initiative
    Prepared in cooperation with the ARIZONA DEPARTMENT OF WATER RESOURCES Hydrogeologic Investigation of the Detrital, Hualapai, and Sacramento Valleys of Northwestern Arizona: A Project of the Rural Watershed Initiative 114º ARIZONA 114º30’ Detrital Co Valley lo The Detrital, Hualapai, and r B Mead a d Hualapai Valley Lake L Sacramento Valleys are broad, A o C R K iv intermountain desert basins in Mohave e r Hoover County, northwestern Arizona, and are 36º Dam Sacramento C M Valley o 93 Phoenix O home to residents in the city of Kingman l H o U u r N a a T Detrital and several rural communities (fig. 1). d A l o a I N p Ground water is the primary source of S a i D Valley R e W GARNET MOUNTAIN water in these valleys and is essential for t i r a v i s e t h GRAND a r many economic and cultural activities. l As in many parts of the Western United W E A T a I S Red N L R s H WASH States, population growth in these h L E I Lake W I H V Z Hualapai A valleys is substantial. From 2000 to O C E D N R B CLIFFS A A Valley 2004, the population of Kingman grew A T Tru from 20,100 to 24,600—an increase xton 30’ M O of 22 percent (Arizona Department U N Lake Mohave W T A a of Economic Security, 2005). During I s N 67 h the same time period, the population S of Mohave County increased by 16 percent.
    [Show full text]
  • Cenozoic Evolution of the Abrupt Colorado Plateau–Basin And
    The Geological Society of America Field Guide 11 2008 Cenozoic evolution of the abrupt Colorado Plateau–Basin and Range boundary, northwest Arizona: A tale of three basins, immense lacustrine-evaporite deposits, and the nascent Colorado River James E. Faulds* Nevada Bureau of Mines and Geology, MS 178, University of Nevada, Reno, Nevada 89557, USA Keith A. Howard* U.S. Geological Survey, MS 973, Menlo Park, California 94025, USA Ernest M. Duebendorfer* Department of Geology, Northern Arizona University, Flagstaff, Arizona 86011, USA ABSTRACT In northwest Arizona, the relatively unextended Colorado Plateau gives way abruptly to the highly extended Colorado River extensional corridor within the Basin and Range province along a system of major west-dipping normal faults, including the Grand Wash fault zone and South Virgin–White Hills detachment fault. Large growth-fault basins developed in the hanging walls of these faults. Lowering of base level in the corridor facilitated development of the Colorado River and Grand Can- yon. This trip explores stratigraphic constraints on the timing of deformation and paleogeographic evolution of the region. Highlights include growth-fault relations that constrain the timing of structural demarcation between the Colorado Plateau and Basin and Range, major fault zones, synextensional megabreccia deposits, non- marine carbonate and halite deposits that immediately predate arrival of the Colo- rado River, and a basalt fl ow interbedded with Colorado River sediments. Structural and stratigraphic relations indicate that the current physiography of the Colorado Plateau–Basin and Range boundary in northwest Arizona began developing ca. 16 Ma, was essentially established by 13 Ma, and has changed little since ca.
    [Show full text]