Florida Aquifer Geology
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Florida Forever Work Plan
South Florida Water Management District Florida Forever Work Plan December 13, 2001 Florida Forever Work Plan Contributors South Florida Water Management District Florida Forever Work Plan November 2001 Contributors Susan Coughanour Bill Helfferich Jenni Hiscock Lewis Hornung Blair Littlejohn Victor Lopez Gregg Mallinger Victor Mullen Agnes Ramsey Wanda Caffie-Simpson Paul Whalen i Florida Forever Work Plan Contributors ii Florida Forever Work Plan Executive Summary EXECUTIVE SUMMARY In 1999, the Florida Forever program was created, which authorized the issuance of bonds in an amount not to exceed $3 billion for acquisitions of land and water areas. This revenue is to be used for the purposes of restoration, conservation, recreation, water resource development, historical preservation and capital improvements to such land and water areas. This program is intended to accomplish environmental restoration, enhance public access and recreational enjoyment, promote long-term management goals, and facilitate water resource development. The requirements for developing The Florida Forever Water Management District Work Plan are contained in Section (s.) 373.199, Florida Statutes (F.S). The provision states that the water management districts are to create a five-year plan that identifies projects meeting specific criteria. In developing their project lists, each district is to integrate its surface water improvement and management plans, Save Our Rivers (SOR) land acquisition lists, stormwater management projects, proposed water resource development projects, proposed water body restoration projects, and other properties or activities that would assist in meeting the goals of Florida Forever. The initial plan was submitted on June 1, 2001 to the President of the Senate, Speaker of the House of Representatives, and Secretary of the Department of Environmental Protection (FDEP). -
Biscayne Aquifer, Florida Groundwater Provides Nearly 50 Percent of the Nation’S Drinking Water
National Water Quality Program National Water-Quality Assessment Project Groundwater Quality in the Biscayne Aquifer, Florida Groundwater provides nearly 50 percent of the Nation’s drinking water. To help protect this vital resource, the U.S. Geological Survey - (USGS) National Water-Quality Assessment (NAWQA) Project assesses groundwater quality in aquifers that are important sources of drinking water (Burow and Belitz, 2014). The Biscayne aquifer constitutes one of the important aquifers being evaluated. Background Overview of Water Quality The Biscayne aquifer underlies an area of about 4,000 square miles in southeastern Florida. About 4 million people live in this area, and the Biscayne aquifer is the primary source of drinking water with about 700 million gallons per day (Mgal/d) withdrawn for public supply in 2000 Inorganic Organic (Maupin and Barber, 2005; Arnold and others, 2020a). The study area for the Biscayne aquifer constituents constituents underlies much of Broward and Miami-Dade Counties in southeastern Florida and includes 3 the cities of Miami and Fort Lauderdale. Most of the area overlying the aquifer is developed 5 and consists of about 63 percent urban and 9 percent agricultural land use. The remaining area 17 (28 percent) is undeveloped (Homer and others, 2015). The Biscayne aquifer is an unconfined, surficial aquifer made up of shallow, highly 80 95 permeable limestone as well as some sandstone units (Miller, 1990). Because of the shallow depth of the units that make up this aquifer, the connection to surface water is an important aspect of the hydrogeology of the Biscayne aquifer (Miller, 1990). A system of canals and levees are used to manage the freshwater resources of southern Florida. -
Development of Environmental Measures for Assessing Effects of Water Level Changes on Lakes and Wetlands in the Central Florida Water Initiative Area
Development of Environmental Measures for Assessing Effects of Water Level Changes on Lakes and Wetlands in the Central Florida Water Initiative Area Central Florida Water Initiative’s Environmental Measures Team Final Report November, 2013 Attachments A‐H Environmental Measures Team Final Report Attachment A – Land Development Index (LDI) and Cross‐Walk of Florida Land Use Cover and Classification System (FLUCCS) Codes to LDI Values November, 2013 Environmental Measures Team Final Report Attachment A – Land Development Index (LDI) Tony Janicki, Ph.D. Janicki Environmental, Inc. Land Use and the Land Development Index The Land Development Index (LDI) (Brown et al. 2003) was estimated for each of the EMT study sites using land use data and a development intensity measure derived from energy use per unit area. The LDI is an estimate of the potential impacts from human‐dominated activities that are experienced by ecological systems within those watersheds. Initially, each of the wetland sites was overlain on the ECFT model grid. Then, the land uses (i.e., FLUCCS codes) within the ECFT model grid were identified and the contributing areas enumerated. Each of the land uses was assigned an LDI coefficient (Table A‐1). The overall LDI ranking was calculated as an area weighted average. Using the GIS, total area and percent of total area occupied by each of the land uses were determined and then the LDI was calculated as follows: LDITotal = Σ %LUi * LDIi Where: LDItotal = LDI ranking for wetland site, %LUi= percent of the total area of influence in land use I, and LDIi = landscape development intensity coefficient for land use i. -
Lacustrine Coquinas and Hybrid Deposits from Rift Phase Pre-Salt
Journal of South American Earth Sciences 95 (2019) 102254 Contents lists available at ScienceDirect Journal of South American Earth Sciences journal homepage: www.elsevier.com/locate/jsames Lacustrine coquinas and hybrid deposits from rift phase: Pre-Salt, lower T Cretaceous, Campos Basin, Brazil Vinicius Carbone Bernardes de Oliveiraa,b,*, Carlos Manuel de Assis Silvaa, Leonardo Fonseca Borghib, Ismar de Souza Carvalhob a Petrobras Research and Development Center (CENPES), Avenida Horacio de Macedo, 950, Ilha do Fundao – Cidade Universitaria, Rio de Janeiro, RJ, 21949-915, Brazil b Universidade Federal do Rio de Janeiro, Centro de Ciencias Matematicas e da Natureza, Instituto de Geociencias, Departamento de Geologia, Programa de Pos-graduacao em Geologia, Av. Athos da Silveira Ramos, 274, Bloco F, Ilha do Fundao – Cidade Universitaria, Rio de Janeiro, RJ, 21949-900, Brazil ARTICLE INFO ABSTRACT Keywords: This study presents a facies characterization, facies succession and conceptual depositional model of the Pre-salt Coqueiros Formation, Lower Cretaceous of Campos Basin, based on core analyses of two wells. WELL-1 is a Rift sedimentation shallow water drilling located at south of Campos Basin within the Badejo structural high, and WELL-2 is an ultra Coquinas deep water drilling located at north, over the “External High”. Ten carbonate facies, three siliciclastic facies, two Hybrid deposits magnesium clay mineral rich facies and two hybrid facies were identified. The carbonate facies were defined as Lower cretaceous rudstone, grainstone, packstone and mud supported carbonate rock, composed of bivalves, ostracods, and rare gastropods. Bivalve shells, mostly disarticulated with distinct degrees of fragmentation, characterized the main components of the ten carbonate facies. -
How Pumping Sands on NC Beaches
The Risks of Renourishment: North Carolina Coastal Federation How pumping sand on North Carolina’s beaches can affect Sea Turtles, Mole Crabs and other Critters April 2002 Who We Are The North Carolina Coastal Federation (NCCF) is the state’s largest non-profit organization working to restore and protect the coast. NCCF headquarters are at 3609 Highway 24 in Ocean between Morehead City and Swansboro and are open Monday through Friday. The headquarters houses NCCF’s main offices, a nature shop, library, and information area. NCCF also operates a field office at 3806-B Park Avenue in Wilmington. For more information call 252-393-8185 or visit our website at www.nccoast.org. This report was written by Ted Wilgis, the Federation’s Cape Fear Coastkeeper, and edited by Frank Tursi, the Cape Lookout Coastkeeper, and Jim Stephenson, Program Analyst. All are closely monitoring beach renourishment projects in North Carolina during the time covered in this report. Wilgis and Tursi also took all of the photographs. Cover Photo Bulldozers work the new sand being pumped onto the beach at Fort Macon State Park in Carteret County. 2 Index Executive Summary.................................................4 Recommendations....................................................5 Background..............................................................6 Sea Turtles ........................................................ 7-11 Mole Crabs and Other Critters...............................12 Other Effects ..........................................................13 -
West-Central Florida's Aquifers: Florida's Great Unseen Water Resources
West-Central Florida's aquifers: Florida's great unseen water resources Item Type monograph Publisher Southwest Florida Water Management District Download date 27/09/2021 20:30:45 Link to Item http://hdl.handle.net/1834/19407 Southwest Florida Water Management District West-Central Florida’s Aquifers Florida’s Great Unseen Water Resources Th e abundance of Florida’s freshwater resources provides a great attraction for residents and tourists alike. Th e rivers, lakes and wetland areas found throughout the state serve as a water-lover’s paradise for fi shing, boating, hiking and many other recreational activities. However, the majority of Florida’s fresh water is inaccessible to the public for recreational purposes. In fact, most of the state’s fresh water lies underground in Florida’s aquifers. While the ground water within Florida’s aquifers remains unseen, it still serves a vital role in maintaining the quality of life for all Floridians. Th e District is responsible for protecting this important resource. A cave diver explores the Upper Floridan aquifer through a spring. What Is an Aquifer? An aquifer is a layer of underground rock or sand that stores water. Th e ground water within an aquifer can fi ll the spaces between grains of sand and gravel, or it can fi ll the cracks and fi ssures in solid rock. Th e water within an aquifer is constantly moving. How quickly the water moves depends on both the physical characteristics of the aquifer and the water-level gradient, or slope, in the aquifer. In aquifers with large caverns or many large fractures, water can travel very quickly. -
Saltwater Intrusion and Quality of Water in the Floridan Aquifer System, Northeastern Florida
SALTWATER INTRUSION AND QUALITY OF WATER IN THE FLORIDAN AQUIFER SYSTEM, NORTHEASTERN FLORIDA By Rick M. Spechler U.S. GEOLOGICAL SURVEY Water-Resources Investigations Report 92-4174 Prepared in cooperation with the CITY OF JACKSONVILLE and the ST. JOHNS RIVER WATER MANAGEMENT DISTRICT Tallahassee, Florida 1994 U.S. DEPARTMENT OF THE INTERIOR BRUCE BABBITT, Secretary U.S. GEOLOGICAL SURVEY Robert M. Hirsch, Acting Director The use of firm, trade, and brand names in this report is for identification purposes only and does not constitute endorsement by the U.S. Geological Survey. For additional information Copies of this report can be write to: purchased from: District Chief U.S. Geological Survey U.S. Geological Survey Branch of Information Services Suite 3015 Box 25286 227 N. Bronough Street Denver, CO 80225-0286 Tallahassee, FL 32301 800-ASK-USGS Additional information about water resources in Florida is available on the World Wide Web at http://fl.water.usgs.gov CONTENTS Abstract.................................................................................................................................................................................. 1 Introduction ........................................................................................................................................................................... 1 Purpose and Scope....................................................................................................................................................... 2 Previous Investigations............................................................................................................................................... -
Aquifer System in Southern Florida
HYDRGGEOLOGY, GRQUOT*WATER MOVEMENT, AND SUBSURFACE STORAGE IN THE FLORIDAN AQUIFER SYSTEM IN SOUTHERN FLORIDA REGIONAL AQUIFER-SYSTEM ANALYSIS \ SOUTH CAROLINA L.-S.. GEOLOGICAL SURVEY PROFESSIONAL PAPER 1403-G AVAILABILITY OF BOOKS AND MAPS OF THE U.S. GEOLOGICAL SURVEY Instructions on ordering publications of the U.S. Geological Survey, along with prices of the last offerings, are given in the cur rent-year issues of the monthly catalog "New Publications of the U.S. Geological Survey." Prices of available U.S. Geological Sur vey publications released prior to the current year are listed in the most recent annual "Price and Availability List" Publications that are listed in various U.S. Geological Survey catalogs (see back inside cover) but not listed in the most recent annual "Price and Availability List" are no longer available. Prices of reports released to the open files are given in the listing "U.S. Geological Survey Open-File Reports," updated month ly, which is for sale in microfiche from the U.S. Geological Survey, Books and Open-File Reports Section, Federal Center, Box 25425, Denver, CO 80225. Reports released through the NTIS may be obtained by writing to the National Technical Information Service, U.S. Department of Commerce, Springfield, VA 22161; please include NTIS report number with inquiry. Order U.S. Geological Survey publications by mail or over the counter from the offices given below. BY MAIL OVER THE COUNTER Books Books Professional Papers, Bulletins, Water-Supply Papers, Techniques of Water-Resources Investigations, -
Upper Ordovician and Silurian Stratigraphy in Sequatchie Valley and Parts of the Adjacent Valley and Ridge, Tennessee
Upper Ordovician and Silurian Stratigraphy in Sequatchie Valley and Parts of the Adjacent Valley and Ridge, Tennessee GEOLOGICAL SURVEY PROFESSIONAL PAPER 996 Prepared in cooperation with the Tennessee Division of Geology Upper Ordovician and Silurian Stratigraphy in Sequatchie Valley and Parts of the Adjacent Valley and Ridge, Tennessee By ROBERT C. MILICI and HELMUTH WEDOW, JR. GEOLOGICAL SURVEY PROFESSIONAL PAPER 996 Prepared in cooperation with the Tennessee Division of Geology UNITED STATES GOVERNMENT PRINTING OFFICE, WASHINGTON 1977 UNITED STATES DEPARTMENT OF THE INTERIOR CECIL D. ANDRUS, Secretary GEOLOGICAL SURVEY V. E. McKelvey, Director Library of Congress Cataloging in Publication Data Milici, Robert C 1931- Upper Ordovician and Silurian stratigraphy in Sequatchie Valley and parts of the adjacent valley and ridge, Tennessee. (Geological Survey professional paper; 996) Bibliography: p. Supt. of Docs. no.: I 19.16:996 1. Geology, Stratigraphic--Ordovician. 2. Geology, Stratigraphic--Silurian. 3. Geology--Tennessee--Sequatchie Valley. 4. Geology--Tennessee--Chattanooga region. I. Wedow, Helmuth, 1917- joint author. II: Title. Upper Ordovician and Silurian stratigraphy in Sequatchie Valley .... III. Series: United States. Geological Survey. Professional paper; 996. QE660.M54 551.7'310976877 76-608170 For sale by the Superintendent of Documents, U.S. Government Printing Office Washington, D.C. 20402 Stock Number 024-001-03002·1 CONTENTS Page Abstract 1 Introduction ----------------------------------------------------------------------------- -
Build an Aquifer
“It All Flows to Me” Lesson 1: Build an Aquifer Objective: To learn about groundwater properties by building your own aquifer and conducting experiments. Background Information Materials: • One, 2 Litter Soda Bottle An aquifer is basically a storage container for groundwater that is made up of • Plastic Cup different sediments. These various sediments can store different amounts of • 1 Cup of each: groundwater within the aquifer. The amount of water that it can hold is depen- soil, gravel, 1” rocks, sand dent on the porosity and the permeability of the sediment. • Pin • Modeling Clay Porosity is the amount of water that a material can hold in the spaces be- • Water tween its pores, while permeability is the material’s ability to pass water • Labels • 1 Bottle of Food Coloring through these pores. Therefore, an aquifer that has high permeability, like • 1 Pair of Scissors sandstone, will be able to hold more water, than materials that have a lower • 1 Ruler porosity and permeability. • One 8 Ounce Cup Directions You will build your own aquifers and investigate which sediments hold more water (rocks or sand). Students in your class will use either sand or rocks to food coloring food coloring build their models. You will use a ruler to measure the height of your water soil table and compare it to the height of water in other sediments. 8oz.food coloring soil ruler 8oz. ruler measuring cup sand measuring cup soil sand pin 8oz. rulerpin gravel scissors Building Directions food coloring measuring cup sandgravel scissors pin 1. Take a pin and use it to make many holes in the bot- scissors 2-liter soilplastic cup gravel tom of a cup. -
Farming the Ogallala Aquifer: Short and Long-Run Impacts of Groundwater Access
Farming the Ogallala Aquifer: Short and Long-run Impacts of Groundwater Access Richard Hornbeck Harvard University and NBER Pinar Keskin Wesleyan University September 2010 Preliminary and Incomplete Abstract Following World War II, central pivot irrigation technology and decreased pumping costs made groundwater from the Ogallala aquifer available for large-scale irrigated agricultural production on the Great Plains. Comparing counties over the Ogallala with nearby similar counties, empirical estimates quantify the short-run and long-run impacts on irrigation, crop choice, and other agricultural adjustments. From the 1950 to the 1978, irrigation increased and agricultural production adjusted toward water- intensive crops with some delay. Estimated differences in land values capitalize the Ogallala's value at $10 billion in 1950, $29 billion in 1974, and $12 billion in 2002 (CPI-adjusted 2002 dollars). The Ogallala is becoming exhausted in some areas, with potential large returns from changing its current tax treatment. The Ogallala case pro- vides a stark example for other water-scarce settings in which such long-run historical perspective is unavailable. Water scarcity is a critical issue in many areas of the world.1 Water is becoming increas- ingly scarce as the demand for water increases and groundwater sources are exhausted. In some areas, climate change is expected to reduce rainfall and increase dependence on ground- water irrigation. The impacts of water shortages are often exacerbated by the unequal or inefficient allocation of water. The economic value of water for agricultural production is an important component in un- derstanding the optimal management of scarce water resources. Further, as the availability of water changes, little is known about the speed and magnitude of agricultural adjustment. -
Hydrogeologic Characterization and Methods Used in the Investigation of Karst Hydrology
Hydrogeologic Characterization and Methods Used in the Investigation of Karst Hydrology By Charles J. Taylor and Earl A. Greene Chapter 3 of Field Techniques for Estimating Water Fluxes Between Surface Water and Ground Water Edited by Donald O. Rosenberry and James W. LaBaugh Techniques and Methods 4–D2 U.S. Department of the Interior U.S. Geological Survey Contents Introduction...................................................................................................................................................75 Hydrogeologic Characteristics of Karst ..........................................................................................77 Conduits and Springs .........................................................................................................................77 Karst Recharge....................................................................................................................................80 Karst Drainage Basins .......................................................................................................................81 Hydrogeologic Characterization ...............................................................................................................82 Area of the Karst Drainage Basin ....................................................................................................82 Allogenic Recharge and Conduit Carrying Capacity ....................................................................83 Matrix and Fracture System Hydraulic Conductivity ....................................................................83