2009 SAME Texoma - Missouri River Regional Conference

Total Page:16

File Type:pdf, Size:1020Kb

2009 SAME Texoma - Missouri River Regional Conference 2009 SAME Texoma - Missouri River Regional Conference Galveston District USACE Colonel David C. Weston Commander Galveston District, U. S. Army Corps of Engineers 02 September 2009 US Army Corps of Engineers BUILDING STRONG® OVERVIEW District Mission and Responsibilities FY09 Program and Accomplishments FY10 an d Beyon d Challenges Ahead BUILDING STRONG® Since 1880…. Galveston jetties Galveston Seawall BUILDING STRONG® Galveston District 50,000+ sq mi, 460 miles coastline Rio Grande River to Sabine River, LA 48 coun ties, 2 LA par is hes 375 full-time employees BUILDING STRONG® Mission Areas • Navigation - $150-175M / YR • Flood Risk Mitigation - $15-20M / YR • Environmental Restoration - $2-3M / YR • Shoreline Protection - $2-3M / YR • Regulatory - $6-7M / YR • MILCON / IIS - $50-60M / YR • Emergency Management - $.25M / YR $250 M BUILDING STRONG® Navigation - Deep-Draft Beaumont Sabine-Neches Waterway: (Neches River) Port Arthur Channel to Orange Green’s Bayou (Deep Draft) (Sabine River) Barbour’s Terminal Channel Bayport Ship Channel Houston Ship Channel Galveston Harbor Texas City Ship Channel FtFreeport Harbor Matagorda Ship Channel La Quinta Channel Corpus Christi Ship Channel Brazos Island Harbor - BIH (Brownsville Ship Channel) & Port Isabel Deep-Draft Channel & Turning Basin BUILDING STRONG® Navigation - Shallow-Draft CdCedar Bayou Greens Bayou (light-draft portion) Buffalo Bayou Adams Bayou (HSC Light Draft) Cow Bayou Clear Lake Channel Dickinson Bayou Trinity River to Liberty Channel to Port Lavaca Anahuac Channel & Harbor of Refuge Double Bayou Smith Point Offatts Bayou Chocolate Bayou Colorado River (Chan to Bay City) Rincon Channel Channel to Palacios Victoria Barge Canal (Channel to Victoria) Lydia Ann Channel to Port Aransas Channel to Aransas Pass GlfItGulf Intercoast tlWtal Waterway Channel to Port Mansfield Arroyo Colorado (Channel to Harlingen) Port Isabel Small Boat Harbor & Side Channels BUILDING STRONG® Navigation Mission • 1,000 miles of channels • 240 miles deep draft • 760 m iles s ha llow dra ft • 28 Ports • 30 - 40 million cubic yards dredged annually BUILDING STRONG® Texas Ranking in the Nation BUILDING STRONG® FY 09 PROGRAM $ BASE $ SUPPL / FCCE $ ARRA INV 3.0M 0 0 O&M 103.9M 182.7M / 27M 122.4M CG 51.1M 14.0M 137.7M Total 158M 223.7M 260.1M $642M BUILDING STRONG® FY09 Highlights Border Fence BUILDING STRONG® FY09 Highlights Galveston Seawall Repairs BUILDING STRONG® FY 10 PROGRAM $PresBud INV 161.6 M O&M 106.2 M CG 41.0 M Total 148.8 M BUILDING STRONG® Opportunities Galveston - Construction Complete in FY10 Corpus Christi – Construction Start in FY10 Texas City – Construction Start in FY10 Sabine Neches Water Way - Feasibility Report 4QFY10 Freeport ► Permit Decision in MAR 09 for Widening ► Federal Projjyyect Feasibility Study in APR 10 for Deepening Matagorda Ship Channel - Deepening and Widening Permit Decision in FY10 Cedar Bayou - Construction Start in FY11 Brazos Island Harbor Channel (Brownsville) - Feasibility Reppport Complete in FY12 BUILDING STRONG® Challenges Ahead……. • Cost of business has increased…do less with same dollars, and increased competition for Federal dollars • Wider/deeper/longer projects cost more to maintain • Lack of funds to maintain low use shallow draft projects • IiddfdltlTIncreasing demand for development along Texas coastline BUILDING STRONG® QUESTIONS? BUILDING STRONG®.
Recommended publications
  • 33 CFR Ch. I (7–1–11 Edition) § 80.840
    § 80.840 33 CFR Ch. I (7–1–11 Edition) Point Au Fer Reef Light 33; thence to Freeport Entrance Light 6; thence Atchafalaya Bay Pipeline Light D lati- Freeport Entrance Light 7; thence the tude 29°25.0′ N. longitude 91°31.7′ W.; seaward extremity of Freeport South thence to Atchafalaya Bay Light 1 lati- Jetty. tude 29°25.3′ N. longitude 91°35.8′ W.; [CGD 77–118a, 42 FR 35784, July 11, 1977. Re- thence to South Point. designated by CGD 81–017, 46 FR 28154, May (b) Lines following the general trend 26, 1981, as amended by CGD 84–091, 51 FR of the highwater shoreline drawn 7787, Mar. 6, 1986] across the bayou and canal inlets from the Gulf of Mexico between South § 80.850 Brazos River, TX to the Rio Point and Calcasieu Pass except as oth- Grande, TX. erwise described in this section. (a) Except as otherwise described in (c) A line drawn on an axis of 140° this section lines drawn continuing the true through Southwest Pass general trend of the seaward, Vermillion Bay Light 4 across South- highwater shorelines across the inlets west Pass. to Brazos River Diversion Channel, San (d) A line drawn across the seaward Bernard River, Cedar Lakes, Brown extremity of the Freshwater Bayou Cedar Cut, Colorado River, Matagorda Canal Entrance Jetties. Bay, Cedar Bayou, Corpus Christi Bay, (e) A line drawn from Mermentau and Laguna Madre. Channel East Jetty Light 6 to (b) A line drawn across the seaward Mermentau Channel West Jetty Light extremity of Matagorda Ship Channel 7.
    [Show full text]
  • Coast Guard, DHS § 80.525
    Coast Guard, DHS Pt. 80 Madagascar Singapore 80.715 Savannah River. Maldives Surinam 80.717 Tybee Island, GA to St. Simons Is- Morocco Tonga land, GA. Oman Trinidad 80.720 St. Simons Island, GA to Amelia Is- land, FL. Pakistan Tobago Paraguay 80.723 Amelia Island, FL to Cape Canaveral, Tunisia Peru FL. Philippines Turkey 80.727 Cape Canaveral, FL to Miami Beach, Portugal United Republic of FL. Republic of Korea Cameroon 80.730 Miami Harbor, FL. 80.735 Miami, FL to Long Key, FL. [CGD 77–075, 42 FR 26976, May 26, 1977. Redes- ignated by CGD 81–017, 46 FR 28153, May 26, PUERTO RICO AND VIRGIN ISLANDS 1981; CGD 95–053, 61 FR 9, Jan. 2, 1996] SEVENTH DISTRICT PART 80—COLREGS 80.738 Puerto Rico and Virgin Islands. DEMARCATION LINES GULF COAST GENERAL SEVENTH DISTRICT Sec. 80.740 Long Key, FL to Cape Sable, FL. 80.01 General basis and purpose of demarca- 80.745 Cape Sable, FL to Cape Romano, FL. tion lines. 80.748 Cape Romano, FL to Sanibel Island, FL. ATLANTIC COAST 80.750 Sanibel Island, FL to St. Petersburg, FL. FIRST DISTRICT 80.753 St. Petersburg, FL to Anclote, FL. 80.105 Calais, ME to Cape Small, ME. 80.755 Anclote, FL to the Suncoast Keys, 80.110 Casco Bay, ME. FL. 80.115 Portland Head, ME to Cape Ann, MA. 80.757 Suncoast Keys, FL to Horseshoe 80.120 Cape Ann, MA to Marblehead Neck, Point, FL. MA. 80.760 Horseshoe Point, FL to Rock Island, 80.125 Marblehead Neck, MA to Nahant, FL.
    [Show full text]
  • Commercial Fishing Full Final Report Document Printed: 11/1/2018 Document Date: January 21, 2005 2
    1 ECONOMIC ACTIVITY ASSOCIATED WITH COMMERCIAL FISHING ALONG THE TEXAS GULF COAST Joni S. Charles, PhD Contracted through the River Systems Institute Texas State University – San Marcos For the National Wildlife Federation February 2005 Commercial Fishing Full Final Report Document Printed: 11/1/2018 Document Date: January 21, 2005 2 Introduction This report focuses on estimating the economic activity specifically associated with commercial fishing in Sabine Lake/Sabine-Neches Estuary, Galveston Bay/Trinity-San Jacinto Estuary, Matagorda Bay/Lavaca-Colorado Estuary, San Antonio Bay/Guadalupe Estuary, Aransas Bay/Mission-Aransas Estuary, Corpus Christi Bay/Nueces Estuary, Baffin Bay/Upper Laguna Madre Estuary, and South Bay/Lower Laguna Madre Estuary. Each bay/estuary area will define a separate geographic region of study comprised of one or more counties. Commercial fishing, therefore, refers to bay (inshore) fishing only. The results show the ex-vessel value of finfish, shellfish and shrimp landings in each of these regions, and the impact this spending had on the economy in terms of earnings, employment and sales output. Estimates of the direct impacts associated with ex-vessel values were produced using IMPLAN, an input-output of the Texas economy developed by the Minnesota IMPLAN Group. The input data was obtained from the Texas Parks and Wildlife Department (TPWD) (Culbertson 2004). Commercial fishing impacts are provided in terms of direct expenditure, sales output, income, and employment. These estimates are reported by category of expenditure. A description of IMPLAN is included in Appendix C. Indirect and Induced (Secondary) impacts are generated from the direct impacts calculated by IMPLAN. Indirect impacts represent purchases made by industries from their suppliers.
    [Show full text]
  • Texas Gulf Shoreline Report Cover2011 Paine
    Texas Gulf Shoreline Change Rates through 2007 Jeffrey G. Paine, Sojan Mathew, and Tiffany Caudle Bureau of Economic Geology Scott W. Tinker, Director A Report of the Coastal Coordination Jackson School of Geosciences Council Pursuant to National Oceanic The University of Texas at Austin and Atmospheric Administration Austin, Texas 78713-8924 Award No. NA09NOS4190165 Final Report Prepared for General Land Office under contract no. 10-041-000-3737. TEXAS GULF SHORELINE CHANGE RATES THROUGH 2007 by Jeffrey G. Paine, Sojan Mathew, and Tiffany Caudle Bureau of Economic Geology John A. and Katherine G. Jackson School of Geosciences The University of Texas at Austin University Station, Box X Austin, Texas 78713 Corresponding author [email protected] (512) 471-1260 TBPG License No. 3776 A Report of the Coastal Coordination Council Pursuant to National Oceanic and Atmospheric Administration Award No. NA09NOS4190165 Final Report Prepared for the General Land Office under Contract No. 10-041-000-3737. July 2011 CONTENTS Abstract . iv Introduction . 1 Relative Sea Level . 3 Tropical Cyclones . 6 Methods . .8 Sources of Shorelines . 11 Positional Verification . 13 Texas Gulf Shoreline Change through 2007 . 22 Upper Texas Coast (Sabine Pass to San Luis Pass) . 24 Brazos and Colorado Headland (San Luis Pass to Pass Cavallo) . 27 Central Texas Coast (Pass Cavallo to Packery Channel) . 29 Lower Coast (Padre Island) . 31 Conclusions . 34 Acknowledgments . 35 References . 35 FIGURES 1 . Map of the Texas coastal zone . 2 2 . Sea-level trend at Galveston Pleasure Pier, 1908 to 2011 . .6 3. Beach profile and ground GPS survey sites along the Texas Gulf shoreline .
    [Show full text]
  • E,Stuarinc Areas,Tex'asguifcpasl' Liter At'
    I I ,'SedimentationinFluv,ial~Oeltaic \}1. E~tlands ',:'~nd~ E,stuarinc Areas,Tex'asGuIfCpasl' Liter at' . e [ynthesis I Cover illustration depicts the decline of marshes in the Neches River alluvial valley between 1956 and 1978. Loss of emergent vegetation is apparently due to several interactive factors including a reduction of fluvial sediments delivered to the marsh, as well as faulting and subsidence, channelization, and spoil disposal. (From White and others, 1987). SEDIMENTATION IN FLUVIAL-DELTAIC WETLANDS AND ESTUARINE AREAS, TEXAS GULF COAST Uterature Synthesis by William A. White and Thomas R. Calnan Prepared for Texas Parks and Wildlife Department Resource Protection Division in accordance with Interagency Contracts (88-89) 0820 and 1423 Bureau of Economic Geology W. L. Fisher, Director The University of Texas at Austin Austin, Texas 78713 1990 CONTENTS Introduction . Background and Scope of Study . Texas Bay-Estuary-lagoon Systems................................................................................................. 2 Origin of Texas Estuaries........................................................................................................ 4 General Setting.............................................................................. 6 Climate 10 Salinity 20 Bathymetry..................................... 22 Tides 22 Relative Sea-level Rise.......................................................................................................... 23 Eustatic Sea-level Rise....................................................................................................
    [Show full text]
  • Historical Shoreline Change Through Texas Gulf
    A Publication of the Gulf Coast Association of Geological Societies www.gcags.org HISTORICAL SHORELINE CHANGE THROUGH 2007, TEXAS GULF COAST: RATES, CONTRIBUTING CAUSES, AND HOLOCENE CONTEXT Jeffrey G. Paine, Sojan Mathew, and Tiffany Caudle Bureau of Economic Geology, Jackson School of Geosciences, University of Texas at Austin, University Station, Box X, Austin, Texas 78713, U.S.A. ABSTRACT Long-term historical rates of Gulf shoreline change along the Texas coast have been determined through 2007 (the latest imagery that predates Hurricane Ike) from a series of shoreline positions that includes those depicted on 1800s charts and mapped from aerial photographs, ground GPS surveys, and airborne lidar surveys. Net rates measured at 11,731 sites spaced at 164 ft (50 m) along the 332 mi (535 km) of Texas Gulf shoreline average 4.1 ft/yr (1.2 m/yr) of retreat, significantly lower than late Pleistocene to early-Holocene retreat rates of 8 to 181 ft/yr (2.4 to 55 m/yr) and similar to mid- to late Holocene rates estimated using past sea-level positions and shelf bathymetric contours as a shoreline proxy. Net shoreline retreat occurred along 84 percent of the Texas Gulf shoreline, resulting in an estimated land loss of 13,890 ac (5621 ha) since 1930 at an average rate of 180 ac/yr (73 ha/yr). Rates of change are more recessional on the upper Texas coast (-5.3 ft/yr [-1.6 m/yr] east of the Colorado River) than they are on the central and lower coast (-3.3 ft/yr [-1.0 m/yr] from the Colorado River to the Rio Grande).
    [Show full text]
  • Gulf Intracoastal Waterway in Texas (GIWW-T)
    TEXAS GULF INTRACOASTAL WATERWAY MASTER PLAN: TECHNICAL REPORT by C. James Kruse Director, Center for Ports & Waterways Texas A&M Transportation Institute David Ellis Research Scientist Texas A&M Transportation Institute Annie Protopapas Associate Research Engineer Texas A&M Transportation Institute Nicolas Norboge Assistant Research Scientist Texas A&M Transportation Institute and Brianne Glover Assistant Research Scientist Texas A&M Transportation Institute Report 0-6807-1 Project 0-6807 Project Title: Texas Gulf Intracoastal Waterway Master Plan Performed in cooperation with the Texas Department of Transportation and the Federal Highway Administration Resubmitted: August 2014 TEXAS A&M TRANSPORTATION INSTITUTE College Station, Texas 77843-3135 DISCLAIMER This research was performed in cooperation with the Texas Department of Transportation (TxDOT) and the Federal Highway Administration (FHWA). The contents of this report reflect the views of the authors, who are responsible for the facts and the accuracy of the data presented herein. The contents do not necessarily reflect the official view or policies of the FHWA or TxDOT. This report does not constitute a standard, specification, or regulation. iii ACKNOWLEDGMENTS This project was conducted in cooperation with TxDOT and FHWA. We acknowledge the guidance and support that the following members of the TxDOT Project Monitoring Committee (PMC) provided: • Sarah Bagwell, planning and strategy director, Maritime Division (project coordinator). • Caroline Mays, freight planning branch manager, Transportation Planning & Programming Division. • Peggy Thurin, systems planning director, Transportation Planning & Programming Division. • Andrea Lofye, Federal Legislative Affairs. • Jay Bond, State Legislative Affairs. • Jennifer Moczygemba, systems section director, Rail Division. • Matthew Mahoney, waterways coordinator, Maritime Division (not a member of the PMC, but provided valuable assistance).
    [Show full text]
  • 19.0 Matagorda Ship Channel
    19.0 Matagorda Ship Channel Matagorda Ship Channel was completed by the United States Army Corps of Engineers (USACE) in 1966. It is located in Matagorda County, bordered on both sides by Matagorda Peninsula. The nearby towns of Port O’Connor, Port Lavaca, Palacios, Point Comfort, and Victoria have experienced significant industrial expansion and economic growth. The Matagorda Ship Channel and the intersecting Gulf Intracoastal Waterway (ICW) provide access for barges and ships to reach these ports and industries. The inlet at the Matagorda Ship Channel is not accessible by vehicle. Vessels are the quickest way to reach the remote area of Matagorda Ship Channel from the ICW and the nearest town of Port O’Connor. West bank of the Matagorda Ship Channel, facing Matagorda Bay. 270 Field Survey Date: April 26, 2014 19.1. Preliminary Protection Strategy For every offshore oil spill the primary strategy is to collect oil in the Gulf of Mexico. Oil that cannot be collected offshore should be diverted away from the tidal inlets. If oil enters the tidal inlets, a series of collection, protection, and deflection boom configurations are established in strategic locations to maximize oil capture. At Matagorda Ship Channel, oil must be captured in the inlet before dispersing into the more sensitive areas in and around Matagorda Bay. Collection of oil would become much more difficult if it were able to disperse into the bay. Relatively calm and protected waters, eddies, and natural collection points exist in and near the inlet. These collection points have been identified by the accumulation of debris and seaweed within the boundaries of the inlet (see Figure Matagorda Ship Channel Eddies).
    [Show full text]
  • Lone Star State Ports Setting Records, Enhancing Diverse Cargo Infrastructure
    Lone Star State ports setting records, enhancing diverse cargo infrastructure by Paul Scott Abbott 5 hours ago | Published in Issue 704 Page 1: Port Houston Page 2: Port of Port Arthur Page 3: Port of Beaumont Page 4: Port of Galveston Page 5: Port Freeport Page 6: Calhoun Port Authority Page 7: Port of Corpus Christi Page 8: Port of Brownsville With record cargo volumes seemingly becoming commonplace, ports throughout Texas are assertively forging ahead with a multitude of infrastructure enhancements to handle even more activity in the future. Recent developments include not only expansions of on-terminal capabilities but also, in a number of cases, the advancement of deeper, wider ship channels. Beginning with Port Houston, the longtime No. 1 U.S. foreign tonnage port, then heading east to the Sabine-Neches Waterway facilities of Port Arthur and Beaumont before taking a southwestward jaunt along the Texas Gulf Coast to just north of the Mexico border, here’s the latest going on at key ports of the Lone Star State: Port Houston Marking a fourth consecutive year of double-digit growth in containerized cargo volume, Port Houston handled a record 2,987,291 twenty-foot-equivalent units in 2019 while adding three new container services and two general cargo liner services. Loaded container exports, buoyed by shipments of polyethylene resins, led the way with a 17 percent year-over-year increase. Overall tonnage moving through Port Houston public facilities also reached an all-time high last year, rising 5 percent over the preceding 12-month period, to 37.8 million tons.
    [Show full text]
  • US Army Corps of Engineers FY 20 Navigation Studies and Construction Projects Future Dredging Requirements
    1 US Army Corps of Engineers FY 20 Navigation Studies and Construction Projects Future Dredging Requirements Western Dredging Association - Gulf Coast Chapter Annual Conference Sharon Manzella Tirpak Dpty Chief of Project Management USACE, Galveston District 14 November 2019 “The views, opinions and findings contained in this report are those of the authors(s) and should not be construed as an official Department of the Army position, policy or decision, unless so designated by other official documentation.” 2 USACE – Galveston District FY 20 Navigation Projects Project Name Non-Federal Milestones Sponsor General Investigations Studies Brazos River Floodgates/Colorado River Texas Dept. of Chief’s Report – 10/23/19 Locks Transportation Matagorda Ship Channel Calhoun Port Chief’s Report – TBD Authority Houston Ship Channel Port of Houston Submittal of Final Report – Authority 12/11/19 Preconstruction Engineering Physical Const Complete Design/Construction Projects Corpus Christi Ship Channel Deepening (C) Port of Corpus Christi 2024 Authority Sabine Neches Waterway (C) Sabine Neches 2028 Navigation District Cedar Bayou (C) Cedar Bayou 2023 Navigation District 3 Brazos River Floodgates/Colorado River Locks, TX Study Partner • Texas Department of Transportation Study Problems • Modern barges and ships have to navigate through outdated 75-foot width alignments and narrow floodgates and locks, leading to frequent strikes and costly damages to guidewalls • Outdated lock/floodgate construction at sector gates leads to frequent and costly structural,
    [Show full text]
  • Matagorda Ship Channel Dredging for Oil Exports
    TO: President Joseph R. Biden Jr. The White House 1600 Pennsylvania Ave. NW Washington, DC 20500 CC: US Army Corps of Engineers Col. Timothy R. Vail USACE Principal Deputy Assistant Secretary of Civil Works Jamie Pinkham EPA Administrator Michael Regan Director of the Office of Environmental Justice Matthew Tejada CEQ Chair Brenda Mallory White House National Climate Advisor Gina McCarthy US Fish & Wildlife Service Principal Deputy Director Martha Williams Dear President Biden, The undersigned organizations are writing to urge you to revoke authorization for the planned Matagorda Ship Channel Deepening Project (“Project”) in Calhoun County, Texas. At a bare minimum, the US Army Corps of Engineers (USACE) should conduct a Supplemental Environmental Impact Study (SEIS) to remedy the dangerous inadequacies of the project’s environmental review. The project threatens to smother up to 700 acres of oyster reefs, increase salinity into the bay, and unearth methyl mercury pollution from the existing Alcoa Superfund site, potentially devastating local fisheries and harming the already-overburdened environmental justice communities in Calhoun County, Texas. In addition, the project, a public-private partnership between startup oil company Max Midstream and the Port of Calhoun, is solely intended to facilitate the export of crude oil to foreign markets. It is unconscionable to cause such significant harm to local communities in order to ship climate-polluting fossil fuels overseas. We write as fourth-generation shrimper Diane Wilson completes her third week of hunger strike in fierce opposition to this project. The tremendous personal risk of Ms. Wilson’s fast reflects the severity of this project’s threat to the livelihood and health of Diane and her community.
    [Show full text]
  • Cooperative Gulf of Mexico Estuarine Inventory and Study, Texas : Area Description
    NOAA TECHNICAL REPORTS National Marine Fisheries Service, Circulars The major responsibilities of the National Marine Fisheries Service (NMFS) are to monitor and assess the abundance and geographic distribution of fishery resources, to understand and predict fluctuations in the quantity and distribution of t hese resources, and to establish levels for optimum use of the resources. NMFS is also charged with the development and implementation of policies for managing national fishing grounds, development and enforcement of domestic fiSheries regulations. surveillance of foreign fishing off United States coastal waters, and the development and enforcement of international fishery agreements and policies. NMFS also assists the fishing industry through marketing service and economic analysis programs, and mortgage insurance and vessel construction subsidies. It collects. analyzes, and publishes statistics on various phases of the industry. The NOAA Technical Report NMFSCIRC series continues a series that has been in existence since 1941. The Circulars are technical publications of general interest intended to aid conservation and management. Pubfications that review in considerable detail and at a hi~h technical level certain broad areas of research appear in this series. Technical papers originating in economics studies and from management investigations appear m the Circular series. NOAA Technical Re ports NMFS CIRC are available free in limited numbers to governmental agencies, both Federal and State. They are also available in exchange for other scientific and technical publications in the marine sciences. Individual copies may be obtained (unless otherwise noted) from 083, Technical Information Division, Environmental Science Information Center, NOAA, Washington, D.C. 20235. Recent Circulars are: 315. Synopsis of biological data on the chum salmon.
    [Show full text]