The Meaning of Salmon in the Northwest: a Historical, Scientific and Sociological Study
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The Phylogeny of Oncorhynchus (Euteleostei: Salmonidae) Based on Behavioral and Life History Characters
Copeia, 2007(3), pp. 520–533 The Phylogeny of Oncorhynchus (Euteleostei: Salmonidae) Based on Behavioral and Life History Characters MANU ESTEVE AND DEBORAH A. MCLENNAN There is no consensus between morphological and molecular data concerning the relationships within the Pacific basin salmon and trout clade Oncorhynchus. In this paper we add another source of characters to the discussion. Phylogenetic analysis of 39 behavioral and life history traits produced one tree structured (O. clarki (O. mykiss (O. masou (O. kisutch (O. tshawytscha (O. nerka (O. keta, O. gorbuscha))))))). This topology is congruent with the phylogeny based upon Bayesian analysis of all available nuclear and mitochondrial gene sequences, with the exception of two nodes: behavior supports the morphological data in breaking the sister-group relationship between O. mykiss and O. clarki, and between O. kisutch and O. tshawytscha. The behavioral traits agreed with molecular rather than morphological data in placing O. keta as the sister-group of O. gorbuscha. The behavioral traits also resolve the molecular-based ambiguity concerning the placement of O. masou, placing it as sister to the rest of the Pacific basin salmon. Behavioral plus morphological data placed Salmo, not Salvelinus, as more closely related to Oncorhynchus, but that placement was only weakly supported and awaits collection of missing data from enigmatic species such as the lake trout, Salvelinus namaycush. Overall, the phenotypic characters helped resolve ambiguities that may have been created by molecular introgression, while the molecular traits helped resolve ambiguities introduced by phenotypic homoplasy. It seems reasonable therefore, that systematists can best respond to the escalating biodiversity crisis by forming research groups to gather behavioral and ecological information while specimens are being collected for morphological and molecular analysis. -
Issue 199.Pmd
email: [email protected] website: nightshift.oxfordmusic.net Free every month. NIGHTSHIFT Issue 199 February Oxford’s Music Magazine 2012 Asher Oxford’sDust maverick MC on his incredible lifetime of music making plus all your local music news, reviews and upcoming gigs. photo: Zahra Tehrani NIGHTSHIFT: PO Box 312, Kidlington, OX5 1ZU. Phone: 01865 372255 NEWNEWSS Nightshift: PO Box 312, Kidlington, OX5 1ZU Phone: 01865 372255 email: [email protected] Online: nightshift.oxfordmusic.net TRUCK FESTIVAL is set to return this summer after founders Robin and Joe Bennett handed the event over to new management. Truck, which had been the centrepiece of Oxford’s live music calendar since 1998, surviving both floods and foot and mouth crises, succumbed to financial woes last year, going into administration in September. However, the event has been taken over by the organisers of Y-Not Festival in Derbyshire, which won Best Grassroots Festival 2011 at the UK Festival Awards. The new organisers hope to take Truck back to its roots as a local community festival. In a statement on the Truck website, Joe and Robin announced, ““We have always felt a great responsibility for the integrity and sustainability of Truck Festival, which grew so quickly and with such enthusiasm from very humble beginnings in 1998. Via Truck’s unique catering arrangements with the Rotary Club, tens of thousands of pounds have been raised for charities and good causes every year, including last year, and many great bands have taken their first steps to international prominence. BONNIE ‘PRINCE’ BILLY makes visits Oxford in May when he “However, after a notoriously difficult summer of trading for Truck teams up with alt.folk band Trembling Bells. -
Russian River Sockeye Salmon Study. Alaska Department of Fish And
Volume 21 Study AFS 43-5 STATE OF ALASKA Jay S. Hammond, Governor Annual Performance Report for RUSSIAN RIVER SOCKEYE SALMON STUDY David C. Nelson ALASKA DEPARTMENT OF FISH AND GAME Ronald 0. Skoog, Commissioner SPORT FISH DIVISION Rupert E. Andrews, Director TABLE OF CONTENTS Page Abstract .............................. 1 Background ............................. 2 Recommendations ...........................6 Objectives ............................. 9 TechniquesUsed .......................... 9 Findings .............................. 10 Smolt Investigations ....................... 10 Creelcensus ........................... 11 Escapement ............................ 17 Relationship of Jacks to Adults ................. 22 Migrational Timing in the Kenai River .............. 22 Managementofthe 1979Fishery .................. 26 Russian River Fish Pass ..................... 31 AgeClass Composition ...................... 32 Early Run Return per Spawner ................... 34 EggDeposition .......................... 40 Fecundity Investigations ..................... 40 Climatological Observations ................... 45 Literature Cited .......................... 45 LIST OF TABLES Table 1. List of Fish Species in the Russian River Drainage .... 8 Table 2. Outmigration of Russian River Sockeye Salmon Smolts by Five-Day Period. 1979 ................. 12 Table 3 . Summary of Sockeye Salmon Smolts Age. Length and Weight Data. 1979 ........................ 13 Table 4. Age Class Composition of the 1979 Sockeye Salmon Smolts Outmigration ...................... -
Diel Horizontal Migration in Streams: Juvenile fish Exploit Spatial Heterogeneity in Thermal and Trophic Resources
Ecology, 94(9), 2013, pp. 2066–2075 Ó 2013 by the Ecological Society of America Diel horizontal migration in streams: Juvenile fish exploit spatial heterogeneity in thermal and trophic resources 1,5 1 1,2 3 1 JONATHAN B. ARMSTRONG, DANIEL E. SCHINDLER, CASEY P. RUFF, GABRIEL T. BROOKS, KALE E. BENTLEY, 4 AND CHRISTIAN E. TORGERSEN 1School of Aquatic and Fishery Sciences, Box 355020, University of Washington, Seattle, Washington 98195 USA 2Skagit River System Cooperative, 11426 Moorage Way, La Conner, Washington 98257 USA 3Fish Ecology Division, Northwest Fisheries Science Center, National Marine Fisheries Service, National Oceanic and Atmospheric Administration, Seattle, Washington 98112 USA 4U.S. Geological Survey, Forest and Rangeland Ecosystem Science Center, Cascadia Field Station, School of Environmental and Forest Sciences, University of Washington, Seattle, Washington 98195 USA Abstract. Vertical heterogeneity in the physical characteristics of lakes and oceans is ecologically salient and exploited by a wide range of taxa through diel vertical migration to enhance their growth and survival. Whether analogous behaviors exploit horizontal habitat heterogeneity in streams is largely unknown. We investigated fish movement behavior at daily timescales to explore how individuals integrated across spatial variation in food abundance and water temperature. Juvenile coho salmon made feeding forays into cold habitats with abundant food, and then moved long distances (350–1300 m) to warmer habitats that accelerated their metabolism and increased their assimilative capacity. This behavioral thermoregulation enabled fish to mitigate trade-offs between trophic and thermal resources by exploiting thermal heterogeneity. Fish that exploited thermal heterogeneity grew at substantially faster rates than did individuals that assumed other behaviors. -
Outer Continental Shelf Environmental Assessment Program, Final Reports of Principal Investigators. Volume 71
Outer Continental Shelf Environmental Assessment Program Final Reports of Principal Investigators Volume 71 November 1990 U.S. DEPARTMENT OF COMMERCE National Oceanic and Atmospheric Administration National Ocean Service Office of Oceanography and Marine Assessment Ocean Assessments Division Alaska Office U.S. DEPARTMENT OF THE INTERIOR Minerals Management Service Alaska OCS Region OCS Study, MMS 90-0094 "Outer Continental Shelf Environmental Assessment Program Final Reports of Principal Investigators" ("OCSEAP Final Reports") continues the series entitled "Environmental Assessment of the Alaskan Continental Shelf Final Reports of Principal Investigators." It is suggested that reports in this volume be cited as follows: Horner, R. A. 1981. Bering Sea phytoplankton studies. U.S. Dep. Commer., NOAA, OCSEAP Final Rep. 71: 1-149. McGurk, M., D. Warburton, T. Parker, and M. Litke. 1990. Early life history of Pacific herring: 1989 Prince William Sound herring egg incubation experiment. U.S. Dep. Commer., NOAA, OCSEAP Final Rep. 71: 151-237. McGurk, M., D. Warburton, and V. Komori. 1990. Early life history of Pacific herring: 1989 Prince William Sound herring larvae survey. U.S. Dep. Commer., NOAA, OCSEAP Final Rep. 71: 239-347. Thorsteinson, L. K., L. E. Jarvela, and D. A. Hale. 1990. Arctic fish habitat use investi- gations: nearshore studies in the Alaskan Beaufort Sea, summer 1988. U.S. Dep. Commer., NOAA, OCSEAP Final Rep. 71: 349-485. OCSEAP Final Reports are published by the U.S. Department of Commerce, National Oceanic and Atmospheric Administration, National Ocean Service, Ocean Assessments Division, Alaska Office, Anchorage, and primarily funded by the Minerals Management Service, U.S. Department of the Interior, through interagency agreement. -
Electrical Hazards and Protecting Persons
Electrical hazards and protecting persons 06 POWER GUIDE 2009 / BOOK 06 ELECTRICAL HAZARDS AND PROTECTING PERSONS The increasing quality of equipment, changes to standards and regulations, and the expertise of specialists have all made electricity the safest type of energy. However, it is still essential to take account of the risks in all projects. Of course, INTRO expertise, common sense, organisation and behaviour will always be the mainstays of safety, but the areas of knowledge required have become so specific and so numerous that the assistance of specialists is often needed. Total protection is never possible and the best safety involves finding reasonable and well thought-out compromises in which priority is given to safeguarding people. The safety of people in relation to the risks identified must be a priority consideration at every step of any project. During the design phase: By complying with installation calculation rules based on the applicable regulations and on each project’s particular features. During the installation phase: By choosing reputable and safe materials and ensuring work is performed correctly. During the operating phase: by defining precise instructions for handling and emergency work, drafting a maintenance plan, and training staff in the tasks they may have to perform (qualifications and authorisations). Risks to people Risk of electric shock � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � 02 1� Physiological aspect � � � � � � � � � � � � � � � � � � � � � � � � � � � � � � -
Sitka Area Fishing Guide
THE SITKA AREA ................................................................................................................................................................... 3 ROADSIDE FISHING .............................................................................................................................................................. 4 ROADSIDE FISHING IN FRESH WATERS .................................................................................................................................... 4 Blue Lake ........................................................................................................................................................................... 4 Beaver Lake ....................................................................................................................................................................... 4 Sawmill Creek .................................................................................................................................................................... 5 Thimbleberry and Heart Lakes .......................................................................................................................................... 5 Indian River ....................................................................................................................................................................... 5 Swan Lake ......................................................................................................................................................................... -
What Caused the Sacramento River Fall Chinook Salmon Stock Collapse?
NOAA Technical Memorandum NMFS T O F C E N O M M T M R E A R P C E E D JULY 2009 U N A I C T I E R D E M ST A AT E S OF WHAT CAUSED THE SACRAMENTO RIVER FALL CHINOOK STOCK COLLAPSE? S.T. Lindley, C.B. Grimes, M.S. Mohr, W. Peterson, J. Stein, J.T. Anderson, L.W. Botsford, D.L. Bottom, C.A. Busack, T.K. Collier, J. Ferguson, J.C. Garza, A.M. Grover, D.G. Hankin, R.G. Kope P.W. Lawson, A. Low, R.B. MacFarlane, K. Moore, M. Palmer-Zwahlen, F.B. Schwing, J. Smith, C. Tracy, R. Webb, B.K. Wells, and T.H. Williams NOAA-TM-NMFS-SWFSC-447 U.S. DEPARTMENT OF COMMERCE National Oceanic and Atmospheric Administration National Marine Fisheries Service Southwest Fisheries Science Center The National Oceanic and Atmospheric Administration (NOAA), organized in 1970, has evolved into an agency that establishes national policies and manages and conserves our oceanic, coastal, and atmospheric resources. An organizational element within NOAA, the Office of Fisheries is responsible for fisheries policy and the direction of the National Marine Fisheries Service (NMFS). In addition to its formal publications, the NMFS uses the NOAA Technical Memorandum series to issue informal scientific and technical publications when complete formal review and editorial processing are not appropriate or feasible. Documents within this series, however, reflect sound professional work and may be referenced in the formal scientific and technical literature. NOAA Technical Memorandum NMFS ATMOSPH ND E This TM series is used for documentation and timely communication of preliminary results, interim reports, or special A RI C C I A N D purpose information. -
Designating a Provincial Fossil
Designating a Provincial Fossil The Ministry of Forests, Lands, Natural Resource Operations and Rural Development is seeking input from the public on designating a Provincial Fossil to be added to the official Provincial Symbols of British Columbia. The designation of a Provincial fossil supports the principles of the Fossil Management Framework. The Framework recognizes fossils as important heritage resources with scientific and educational value. British Columbia’s list of official symbols and emblems include: Pacific Dogwood - adopted as the floral emblem in 1956 Jade - adopted as official gemstone in 1968 Stellar’s Jay - adopted as official bird in 1987 Western Red Cedar - adopted as official tree in 1988 Spirit Bear - adopted as the mammal emblem in 2006 Pacific Salmon - adopted as the fish emblem in 2013 Voting for your favourite fossil candidate Seven fossil candidates have been shortlisted through a public process in partnership with the British Columbia Paleontological Alliance (BCPA). The following criteria were used to select the fossil candidates: Be well known and easily recognizable; be more or less unique to British Columbia; reflect the unique geography of British Columbia; have wide appeal to a general audience; serve as an educational vehicle through which the biology, ecology, and geology of the time it represents can be made clear; and be amenable to designs for posters, displays and logos. The online voting process uses a web-based questionnaire tool, SurveyMonkey, allows one vote per computer profile and includes a simple verification step to avoid development of computer scripts for automatic votes. The Government of British Columbia will not collect, use or disclose personal information using SurveyMonkey. -
MAMMALS of WASHINGTON Order DIDELPHIMORPHIA
MAMMALS OF WASHINGTON If there is no mention of regions, the species occurs throughout the state. Order DIDELPHIMORPHIA (New World opossums) DIDELPHIDAE (New World opossums) Didelphis virginiana, Virginia Opossum. Wooded habitats. Widespread in W lowlands, very local E; introduced from E U.S. Order INSECTIVORA (insectivores) SORICIDAE (shrews) Sorex cinereus, Masked Shrew. Moist forested habitats. Olympic Peninsula, Cascades, and NE corner. Sorex preblei, Preble's Shrew. Conifer forest. Blue Mountains in Garfield Co.; rare. Sorex vagrans, Vagrant Shrew. Marshes, meadows, and moist forest. Sorex monticolus, Montane Shrew. Forests. Cascades to coast, NE corner, and Blue Mountains. Sorex palustris, Water Shrew. Mountain streams and pools. Olympics, Cascades, NE corner, and Blue Mountains. Sorex bendirii, Pacific Water Shrew. Marshes and stream banks. W of Cascades. Sorex trowbridgii, Trowbridge's Shrew. Forests. Cascades to coast. Sorex merriami, Merriam's Shrew. Shrub steppe and grasslands. Columbia basin and foothills of Blue Mountains. Sorex hoyi, Pygmy Shrew. Many habitats. NE corner (known only from S Stevens Co.), rare. TALPIDAE (moles) Neurotrichus gibbsii, Shrew-mole. Moist forests. Cascades to coast. Scapanus townsendii, Townsend's Mole. Meadows. W lowlands. Scapanus orarius, Coast Mole. Most habitats. W lowlands, central E Cascades slopes, and Blue Mountains foothills. Order CHIROPTERA (bats) VESPERTILIONIDAE (vespertilionid bats) Myotis lucifugus, Little Brown Myotis. Roosts in buildings and caves. Myotis yumanensis, Yuma Myotis. All habitats near water, roosting in trees, buildings, and caves. Myotis keenii, Keen's Myotis. Forests, roosting in tree cavities and cliff crevices. Olympic Peninsula. Myotis evotis, Long-eared Myotis. Conifer forests, roosting in tree cavities, caves and buildings; also watercourses in arid regions. -
Mcabee Fossil Site Assessment
1 McAbee Fossil Site Assessment Final Report July 30, 2007 Revised August 5, 2007 Further revised October 24, 2008 Contract CCLAL08009 by Mark V. H. Wilson, Ph.D. Edmonton, Alberta, Canada Phone 780 435 6501; email [email protected] 2 Table of Contents Executive Summary ..............................................................................................................................................................3 McAbee Fossil Site Assessment ..........................................................................................................................................4 Introduction .......................................................................................................................................................................4 Geological Context ...........................................................................................................................................................8 Claim Use and Impact ....................................................................................................................................................10 Quality, Abundance, and Importance of the Fossils from McAbee ............................................................................11 Sale and Private Use of Fossils from McAbee..............................................................................................................12 Educational Use of Fossils from McAbee.....................................................................................................................13 -
Induced Spatial Heterogeneity in Forest Canopies: Responses of Small Mammals
INDUCED SPATIAL HETEROGENEITY IN FOREST CANOPIES: RESPONSES OF SMALL MAMMALS ANDREW B. CAREY,1 Pacific Northwest Research Station, U.S. Forest Service, 3625 93rd Avenue S.W., Olympia, WA 98512, USA SUZANNE M. WILSON, Pacific Northwest Research Station, U.S. Forest Service, 3625 93rd Avenue S.W., Olympia, WA 98512, USA Abstract: We hypothesized that creating a mosaic of interspersed patches of different densities of canopy trees in a second-growth Douglas-fir (Pseudotsuga menziesiz) forest would accelerate development of biocomplexity (diversity in ecosystem structure, composition, and processes) by promoting spatial heterogeneity in understory, midstory, and canopy, compared to typical managed forests. In turn, increased spatial heterogeneity was expected to promote variety in fine-scale plant associations, foliage height diversity, and abundance of small mammals. Three years following treatment, understory species richness and herb cover were greater with variable-density thinning than without. Midstory and canopy species did not have time to develop significant differences between treatments. Variable-density thinning resulted in larger populations of deer mice (Peromyscus maniculatus), a species associated with understory shrubs; creeping voles (Microtus oregonz), a species associated with herbaceous vegetation, and vagrant shrews (Sorex vagrans), a species usually associated with openings but common in old growth. No forest-floor small-mammal species, including those associated with old-growth forest, declined in abundance following variable-density thinning. Annual variation in population size was not related to treatment. Variable-density thinning may accelerate the development of biocomplexity in second-growth forest by promoting spatial heterogeneity and compositional diversity in the plant community, increasing diversity and abundance of small mammals, and similarly affecting other vertebrate communities.