Coastal Recovery Unit Implementation Plan for Bull Trout (Salvelinus Confluentus)
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Seasonal Flooding Affects Habitat and Landscape Dynamics of a Gravel
Seasonal flooding affects habitat and landscape dynamics of a gravel-bed river floodplain Katelyn P. Driscoll1,2,5 and F. Richard Hauer1,3,4,6 1Systems Ecology Graduate Program, University of Montana, Missoula, Montana 59812 USA 2Rocky Mountain Research Station, Albuquerque, New Mexico 87102 USA 3Flathead Lake Biological Station, University of Montana, Polson, Montana 59806 USA 4Montana Institute on Ecosystems, University of Montana, Missoula, Montana 59812 USA Abstract: Floodplains are comprised of aquatic and terrestrial habitats that are reshaped frequently by hydrologic processes that operate at multiple spatial and temporal scales. It is well established that hydrologic and geomorphic dynamics are the primary drivers of habitat change in river floodplains over extended time periods. However, the effect of fluctuating discharge on floodplain habitat structure during seasonal flooding is less well understood. We collected ultra-high resolution digital multispectral imagery of a gravel-bed river floodplain in western Montana on 6 dates during a typical seasonal flood pulse and used it to quantify changes in habitat abundance and diversity as- sociated with annual flooding. We observed significant changes in areal abundance of many habitat types, such as riffles, runs, shallow shorelines, and overbank flow. However, the relative abundance of some habitats, such as back- waters, springbrooks, pools, and ponds, changed very little. We also examined habitat transition patterns through- out the flood pulse. Few habitat transitions occurred in the main channel, which was dominated by riffle and run habitat. In contrast, in the near-channel, scoured habitats of the floodplain were dominated by cobble bars at low flows but transitioned to isolated flood channels at moderate discharge. -
Natural Character, Riverscape & Visual Amenity Assessments
Natural Character, Riverscape & Visual Amenity Assessments Clutha/Mata-Au Water Quantity Plan Change – Stage 1 Prepared for Otago Regional Council 15 October 2018 Document Quality Assurance Bibliographic reference for citation: Boffa Miskell Limited 2018. Natural Character, Riverscape & Visual Amenity Assessments: Clutha/Mata-Au Water Quantity Plan Change- Stage 1. Report prepared by Boffa Miskell Limited for Otago Regional Council. Prepared by: Bron Faulkner Senior Principal/ Landscape Architect Boffa Miskell Limited Sue McManaway Landscape Architect Landwriters Reviewed by: Yvonne Pfluger Senior Principal / Landscape Planner Boffa Miskell Limited Status: Final Revision / version: B Issue date: 15 October 2018 Use and Reliance This report has been prepared by Boffa Miskell Limited on the specific instructions of our Client. It is solely for our Client’s use for the purpose for which it is intended in accordance with the agreed scope of work. Boffa Miskell does not accept any liability or responsibility in relation to the use of this report contrary to the above, or to any person other than the Client. Any use or reliance by a third party is at that party's own risk. Where information has been supplied by the Client or obtained from other external sources, it has been assumed that it is accurate, without independent verification, unless otherwise indicated. No liability or responsibility is accepted by Boffa Miskell Limited for any errors or omissions to the extent that they arise from inaccurate information provided by the Client or -
Final Environmental Impact Statement
Final Environmental Impact Statement Elwha River Ecosystem Restoration Implementation Purpose and Need: The Elwha River ecosystem and native anadromous fisheries are severely degraded as a result of two hydroelectric dams (projects) and their reservoirs built in the early 1900s. Congress has mandated the full restoration of this ecosystem and its native anadromous fisheries through the Elwha River Ecosystem and Fisheries Restoration Act (Public Law 102-495). The Department of the Interior has found there is a need to return this river and the ecosystem to its natural, self-regulating state, and proposes to implement the Congressional mandate by removing both dams in a safe, environmentally sound and cost effective manner and implementing fisheries and ecosystem restoration planning. Only dam removal would fully restore the ecosystem or its native anadromous fisheries. Proposed Action: The U.S. Department of the Interior proposes to fully restore the Elwha River ecosystem and native anadromous fisheries through the removal of Elwha Dam and Glines Canyon Dam and implementing fish restoration and revegetation. Dam removal would occur over a 2-year period. Elwha Dam would be removed by blasting, and Glines Canyon Dam by a combination of blasting and diamond wire saw cutting. Lake Aldwell would be drained by a diversion channel, and Lake Mills by notching down Glines Canyon Dam. Stored sediment would be eroded naturally by the Elwha River. The proposed action is located in Clallam County, on the Olympic Peninsula, in Washington State. Lead/Cooperating agencies: The National Park Service is the lead agency. The U.S. Fish and Wildlife Service, U.S. -
On the Quantitative.Invent01·Y of the Riverscape' ,I
WATER RESOURCES RESEARCH AUGUST 1968 _ On the Quantitative .Invent01·y of the Riverscape' LPNA B. LEOPOLD AND MAURA O'BRIEN MARCHAND U. S. Geological Survey W""hinglon, D. C.IIO!!42 ,I Ab8tract. In the vicinity of Berkeley. California, 24 minor "alleys were described in terms of factors chosen to represent aspects of the river landscape. A total of 28 factors were evalu ated at eaeh site. Some were directly measurable. others were estimated, but each obsen'atioll was assigned to ODe of five categories for tha.t factor. Each factor for each site was then expressed as a uniqueness ratio, which depended on the number of sites being in Ute same category. The uniqueness ratio is believed to represent one way the scarcity of a given river &CRpe can be ranked quantitatively without bias based 011 notions of good or bad, and without assigning monetary value. GENERAL STATEMENT differently. depending upon individual back ground, interest, desires, and thus one's objec On property we grow pigs or peanulll. On tives. we grow suburbs or sunJlowers. On land The present paper presents a tcntntiye nod pe we grow feelings or frustrations. The modest attempt to record the presence or ab 'ty of a landscape may be an asset to sence of chosen factors that contribute to iety, or it may be a 'scarlet letter' that should aesthetic worth. Observations were made in a . d us of wbat we have thrown away. All restricted range of exnmples in one locality, empts to preserve the environment must ne- Alameda and Contra Costa count.ics near San ily rewesent a compromise between the Francisco Bay. -
Chehalis River
Northwest Area Committee OCTOBER 2015 CHEHALIS RIVER Geographic Response Plan (CHER GRP) 1 This page was intentionally left blank. 2 CHEHALIS RIVER GRP OCTOBER 2015 CHEHALIS RIVER Geographic Response Plan (CHER GRP) October 2015 3 CHEHALIS RIVER GRP OCTOBER 2015 Spill Response Contact Sheet Required Notifications for Oil Spills and Hazardous Substance Releases Federal Notification - National Response Center (800) 424-8802* State Notification - Washington Emergency Management (800) 258-5990* Division - Other Contact Numbers - U.S. Environmental Protection Agency Washington State Region 10 - Spill Response (206) 553-1263* Dept Archaeology & Hist Preserv (360) 586-3065 - Washington Ops Office (360) 753-9437 Dept of Ecology - Oregon Ops Office (503) 326-3250 - Headquarters (Lacey) (360) 407-6000 - RCRA/CERCLA Hotline (800) 424-9346 - SW Regional Office (Lacey) (360) 407-6300 - Public Affairs (206) 553-1203 Dept of Fish and Wildlife (360) 902-2200 - Emergency HPA Assistance (360) 902-2537* U.S. Coast Guard -Oil Spill Team (360) 534-8233* Sector Columbia River Dept of Health (Drinking Water) (800) 521-0323 - Emergency / Watchstander (503) 861-2242* - After normal business hours (877) 481-4901 - Command Center (503) 861-6211* Dept of Natural Resources (360) 902-1064 - Incident Management Division (503) 861-6477 - After normal business hours (360) 556-3921 - Station Grays Harbor (360) 268-0121* Dept of Transportation (360) 705-7000 13th Coast Guard District (800) 982-8813 State Parks & Rec Commission (360) 902-8613 National Strike Force (252) 331-6000 State Patrol - District 1 (253) 538-3240 Coordination - Pacific Strike Center Team (415) 883-3311 State Patrol - District 5 (360) 449-7909 State Patrol - District 8 (360) 473-0172 National Oceanic Atmospheric Administration Scientific Support Coordinator (206) 526-6829 Tribal Contacts Weather (206) 526-6087 Chehalis Confederated Tribes (360) 273-5911 - Cultural Resources Ext. -
Some Dam – Hydro News
SSoommee DDaamm –– HHyyddrroo NNeewwss and Other Stuff i 5/01/2009 Quote of Note: Thoughts on the economy: “If you’re in a traffic jam quit whining, it means you have a job” - - Paula Smith “If you have a job it’s a recession, if you’re laid off it’s a depression” - - Common “No nation was ever drunk when wine was cheap.” - - Thomas Jefferson Ron’s wine pick of the week: Maipe Bonarda Mendoza, Argentina 2008 OOtthheerr SSttuuffffff::: (Oops, a funny thing happened on the way to the office, they forgot about or don’t know about pumped storage hydro, the ideal backup solution. They got it right on the other points though.) Getting real on wind and solar By James Schlesinger and Robert L. Hirsch, Washington Post, 04/24/2009 Why are we ignoring things we know? We know that the sun doesn't always shine and that the wind doesn't always blow. That means that solar cells and wind energy systems don't always provide electric power. Nevertheless, solar and wind energy seem to have captured the public's support as potentially being the primary or total answer to our electric power needs. Solar cells and wind turbines are appealing because they are "renewables" with promising implications and because they emit no carbon dioxide during operation, which is certainly a plus. But because both are intermittent electric power generators, they cannot produce electricity "on demand," something that the public requires. We expect the lights to go on when we flip a switch, and we do not expect our computers to shut down as nature dictates. -
Steelhead Response to the Removal of the Elwha River Dams
Steelhead response to the removal of the Elwha River Dams Photo by John McMillan Pacific Coast Steelhead Management Conference March 22 2018 Walla Walla, WA Acknowledgements Lower Elwha Klallam Tribe Mike McHenry, Ray Moses, Larry Ward, Mel Elofson, Sonny Sampson, Wilson Wells, John Mahan, Doug Morill, Robert Dohrn, Randall McCoy, Matt Beirne National Park Service Brian Winter, Anna Geffre, Josh Geffre, Heidi Hugunin, Phil Kennedy, Sam Brenkman, Pat Crain, Kathryn Sutton NOAA Fisheries George Pess, Martin Liermann, Todd Bennett, Steve Corbett, Oleksandr Stefankiv, Amilee Wilson, Zach Hughes, Tim Tynan, Eric Ward USGS Jeff Duda, Andy Ritchie, Chris Curran, Amy East, Jon Warrick Trout Unlimited WDFW US Fish and Wildlife Service John McMillan Joe Anderson, Chris O’Connell, Randy Roger Peters US Bureau of Reclamation Cooper, Mike Gross, Andrew Claiborne & K Denton & Associates Jennifer Bountry, Tim Randle WDFW Fish Ageing Laboratory Keith Denton Elwha River 833 km2 watershed Elwha Dam • built 1913 • 32 m tall • River km 8 Glines Canyon Dam • Built 1927 • 64 m tall • River km 21 Pess et al. 2008 NW Science 115 km of habitat upstream of Elwha Dam site Photo montage compiled by George Pess Photos from NPS time lapse camera Photo montage compiled by George Pess Photos from NPS time lapse camera Sediment release • 21 million m3 of sediment stored in former reservoirs • 16 million m3 in Lake Mills (upstream of Glines) • 5 million m3 in Lake Aldwell (upstream of Elwha) • Approximately two-thirds evacuated from former reservoirs • 90% delivered to -
Elma Washington ~ Now and Then
Area Information Elma, WA around 1898 to 1900 Main Street Looking East From 5th Street By Luke Bailey Image 2010 “Satsop Development Park was the winner of the Governor’s 2004 Economic Development Award for Infrastructure.” Innovative features in a unique setting Find out more today about Satsop Development Park, recently designated one of the top 10 industrial and office parks in Washington state for 2005 by Washington CEO magazine. Exceptional features include: Diversely routed fiber optics Only 5 minutes from Elma off Highway 12 Unlimited bandwidth potential Intercom phone system serving 20,000 ports 24/7 network monitoring, resolution & assistance Exceptional security in location and buildings Uninterruptible AC power system Room for all types of businesses to grow Back-up generators Regional workforce of over 68,000 people Visit our website: www.satsop.com 1.866.5SATSOP or 360.482.1600 [email protected] Grays Harbor Public Development Authority An economic powerhouse creating jobs and investment in Grays Harbor TABLE OF CONTENTS Welcome From the Elma Chamber of Commerce ......4 Elma Government & Community Services ........... 5 The Elma Microtel Inn & Suites .......................... 6 Chamber Parks & Recreation Elma & East County ....... 7-13 Of Elma Washington ~ Now and Then ............. 15-22 ELMA SCHOOL DISTRICT #68 ...................... 22-23 Commerce Quarter Midget Racing ......................... 25 Welcomes Sprint Car Racing and the World of Outlaws .... 26 You to Community Events ........................... 27-28 The Elma Murals of Elma ............................. 30-31 Map of Elma ................................... 32 Community Census and Demographics ~ Elma ............. 33-35 Business & Shopping Directory .............. 37-43 The Elma Chamber of Commerce Expresses Special Tom Rose Thanks to All Those Who Helped Make This 1912 Photo of Elma from atop Strawberry Publication Possible. -
WATS 5150 – Fluvial Geomorphology WEEK 5: Habitat Suitability Models
Instream Geomorphic Units I. Intro → Geomorphic Units & Process-Form Associations II. Classification & Field Identification III. Your Book (River Styles) I. Sculpted, Erosional Bedrock & Boulder GUs II. Mid-Channel, Depositional GUs III. Bank-Attached, Depositional GUs IV. Sculpted, Erosional Fine-Grained GUs V. Unit & Compound GUs VI. Forced GUs IV. Continuum of GUs V. Fluvial Taxonomy GUs (Topographically Defined) I. Tier 1 – Stage II. Tier 2 – Shape / Form III. Tier 3 – Attributed VI. GUT (Geomorphic Unit Toolkit) Reminder… • In fluvial, we found over 100 different terms to describe geomorphic units, of which 68 were actually distinctive… • This is based on same units as above, but with some clarifications • Done with your Book’s Authors • The legend should include a) margins, b) geomorphic units, and c) structural elements From: Wheaton et al. (2015) – Geomorphology; DOI: 10.1016/j.geomorph.2015.07.010 Taxonomy for Mapping Fluvial Landforms • Four Tiers • Stage Height • Shape / Form • Morphology • Roughness/Vegetation • Over 100 fluvial geomorphic units found in literature, of which 68 are distinctive (3b) • Clearer, topographically based definitions From: https://riverscapes.github.io/pyGUT/ Wheaton et al. (2015) DOI: 10.1016/j.geomorph.2015.07.010 Williams et al. (2020) DOI: 10.1016/j.scitotenv.2020.136817 Instream Geomorphic Units I. Intro → Geomorphic Units & Process-Form Associations II. Classification & Field Identification III. Your Book (River Styles) I. Sculpted, Erosional Bedrock & Boulder GUs II. Mid-Channel, Depositional GUs III. Bank-Attached, Depositional GUs IV. Sculpted, Erosional Fine-Grained GUs V. Unit & Compound GUs VI. Forced GUs IV. Continuum of GUs V. Fluvial Taxonomy GUs (Topographically Defined) I. -
Determining Flow Directions in River Channel Networks Using Planform Morphology and Topology
Earth Surf. Dynam. Discuss., https://doi.org/10.5194/esurf-2019-19 Manuscript under review for journal Earth Surf. Dynam. Discussion started: 23 May 2019 c Author(s) 2019. CC BY 4.0 License. Determining flow directions in river channel networks using planform morphology and topology Jon Schwenk1*, Anastasia Piliouras1, Joel C. Rowland1 5 1Los Alamos National Laboratory, Earth and Environmental Sciences Division Correspondence to: Jon Schwenk ([email protected]) Abstract. The abundance of global, remotely-sensed surface water observations has paved the way toward characterizing and modeling how water moves across the Earth’s surface through complex channel networks. In 10 particular, deltas and braided river channel networks may contain thousands of links that route water, sediment, and nutrients across landscapes. In order to model flows through channel networks and characterize network structure, the direction of flow for each link within the network must be known. In this work, we propose a rapid, automatic, and objective method to identify flow directions for all links of a channel network using only remotely-sensed imagery and knowledge of the network’s inlet and outlet locations. We designed a suite of direction-predicting 15 algorithms (DPAs), each of which exploits a particular morphologic characteristic of the channel network to provide a prediction of a link’s flow direction. DPAs were chained together to create “recipes”, or algorithms that set all the flow directions of a channel network. Separate recipes were built for deltas and braided rivers and applied to seven delta and two braided river channel networks. Across all nine channel networks, the recipes’ predicted flow directions agreed with expert judgement for 97% of all tested links, and most disagreements were attributed to 20 unusual channel network topologies that can easily be accounted for by pre-seeding critical links with known flow directions. -
INSTITUTIONALISING the PICTURESQUE: the Discourse of the New Zealand Institute of Landscape Architects
INSTITUTIONALISING THE PICTURESQUE: The discourse of the New Zealand Institute of Landscape Architects A thesis submitted in fulfilment of the requirements for the degree of Doctor of Philosophy in Landscape Architecture at Lincoln University by Jacky Bowring Lincoln University 1997 To Dorothy and Ella iii Abstract of a thesis submitted in fulfIlment of the requirements for the degree of Doctor of Philosophy in Landscape Architecture INSTITUTIONALISING THE PICTURESQUE: The discourse of the New Zealand Institute of Landscape Architects by Jacky Bowring Despite its origins in England two hundred years ago, the picturesque continues to influence landscape architectural practice in late twentieth-century New Zealand. The evidence for this is derived from a close reading of the published discourse of the New Zealand Institute of Landscape Architects, particularly the now defunct professional journal, The Landscape. Through conceptualising the picturesque as a language, a model is developed which provides a framework for recording the survey results. The way in which the picturesque persists as naturalised conventions in the discourse is expressed as four landscape myths. Through extending the metaphor of language, pidgins and creoles provide an analogy for the introduction and development of the picturesque in New Zealand. Some implications for theory, practice and education follow. Keywords picturesque, New Zealand, landscape architecture, myth, language, natural, discourse iv Preface The motivation for this thesis was the way in which the New Zealand landscape reflects the various influences that have shaped it. In the context of landscape architecture the specific focus is the designed landscape, and particularly the perpetuation of design conventions. Through my own education at Lincoln College (now Lincoln University) I became aware of how aspects of the teaching of landscape architecture were based on uncritically presented design 'truths'. -
An Overview of Monitoring Options for Assessing the Response of Salmonids and Their Aquatic Ecosystems in the Elwha River Following Dam Removal
Michael L. McHenry1, Lower Elwha Klallam Tribe, Fisheries Department, 51 Hatchery Road, Port Angeles, Washington 98363 and George R. Pess, NOAA Fisheries, Northwest Fisheries Science Center, 2725 Montlake Boulevard East, Seattle, Washington 98112 An Overview of Monitoring Options for Assessing the Response of Salmonids and Their Aquatic Ecosystems in the Elwha River Following Dam Removal Abstract Removal of two hydroelectric dams on the Elwha River, Washington, one of the largest river restoration projects in the United States, represents a unique opportunity to assess the recovery of fish populations and aquatic ecosystems at the watershed scale. The current project implementation does not contain sufficient funding to support comprehensive monitoring of restoration ef- fectiveness. As a result, current monitoring efforts are piecemeal and uncoordinated, creating the possibility that project managers will not be able to answer fundamental questions concerning salmonid and ecosystem response. We present the initial elements of a monitoring framework designed to assess the effectiveness of dam removal on the recovery of Elwha River salmonids, their aquatic habitats, and the food webs of which they are an integral component. The monitoring framework is linked to the Elwha Fisheries Restoration Plan, which outlines the restoration of native stocks of salmon and relies upon a process of adaptive manage- ment. The monitoring framework includes two areas of emphasis—salmonid population recovery and ecosystem response. We provide study design considerations and make recommendations for additional monitoring efforts prior to dam removal. Based on a power analysis, we determined that a minimum of 3–11 years and up to 50 years of monitoring will be required to capture potential ecosystem responses following dam removal.