2017 NANFA Convention Presentation Summaries Jenny Kruckenberg
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EASTERN SAND DARTER STATUS ASSESSMENT Prepared by: David Grandmaison and Joseph Mayasich Natural Resources Research Institute University of Minnesota 5013 Miller Trunk Highway Duluth, MN 55811-1442 and David Etnier Ecology and Evolutionary Biology University of Tennessee 569 Dabney Hall Knoxville, TN 37996-1610 Prepared for: U.S. Fish and Wildlife Service Region 3 1 Federal Drive Fort Snelling, MN 55111 January 2004 NRRI Technical Report No. NRRI/TR-2003/40 DISCLAIMER This document is a compilation of biological data and a description of past, present, and likely future threats to the eastern sand darter, Ammocrypta pellucida (Agassiz). It does not represent a decision by the U.S. Fish and Wildlife Service (Service) on whether this taxon should be designated as a candidate species for listing as threatened or endangered under the Federal Endangered Species Act. That decision will be made by the Service after reviewing this document; other relevant biological and threat data not included herein; and all relevant laws, regulations, and policies. The result of the decision will be posted on the Service's Region 3 Web site (refer to: http://midwest.fws.gov/eco_serv/endangrd/lists/concern.html). If designated as a candidate species, the taxon will subsequently be added to the Service's candidate species list that is periodically published in the Federal Register and posted on the World Wide Web (refer to: http://endangered.fws.gov/wildlife.html). Even if the taxon does not warrant candidate status it should benefit from the conservation recommendations that are contained in this document. ii TABLE OF CONTENTS DISCLAIMER................................................................... -
Best Management Practices
Crystal Darter Crystallaria asprella Guidelines for Landowners Using Conservation Practices Missouri Department of Conservation Photo Credit: Missouri Department of Conservation Common name ▪ Crystal Darter Recommendations Scientific name ▪ Crystallaria asprella As a species that prefers clean streams, crystal State status ▪ Endangered darters may act as indicators of a healthy Federal status ▪ None ecosystem. Protecting and restoring streams for the crystal darter will also benefit other aquatic species. Ecology Efforts should be made to ensure our waterways are Crystal darters have a large historic range, healthy through protection and/or restoration of stretching from river basins in West Virginia west to habitat for this and other aquatic species. Missouri and from Minnesota south to the Gulf of Mexico. In east-central to southeastern Missouri, Avoid constructing stream crossings. If they inhabit open channels of large, clear streams unavoidable, culverts and crossings should be and ditches with low to moderate gradients and long constructed with the same bottom elevation as the stretches of silt-free sand and small gravel existing streambed to avoid restricting flow and substrate. They prefer streams with strong current obstructing fish passage. and water depths of about 3 feet. The biology of this darter in Missouri is poorly known. Studies Bank stabilization materials should consist only of suggest that darters may bury themselves in the rock, clean broken concrete or similar materials free sand during the day and become active at night. of pollutants, silt and extraneous debris including Crystal darters forage for mainly aquatic insects, exposed rebar. Erosion and sediment controls especially midges, mosquitoes, blackflies and should be implemented, maintained and monitored caddisflies. -
Housing, Husbandry and Welfare of a “Classic” Fish Model, the Paradise Fish (Macropodus Opercularis)
animals Article Housing, Husbandry and Welfare of a “Classic” Fish Model, the Paradise Fish (Macropodus opercularis) Anita Rácz 1,* ,Gábor Adorján 2, Erika Fodor 1, Boglárka Sellyei 3, Mohammed Tolba 4, Ádám Miklósi 5 and Máté Varga 1,* 1 Department of Genetics, ELTE Eötvös Loránd University, Pázmány Péter stny. 1C, 1117 Budapest, Hungary; [email protected] 2 Budapest Zoo, Állatkerti krt. 6-12, H-1146 Budapest, Hungary; [email protected] 3 Fish Pathology and Parasitology Team, Institute for Veterinary Medical Research, Centre for Agricultural Research, Hungária krt. 21, 1143 Budapest, Hungary; [email protected] 4 Department of Zoology, Faculty of Science, Helwan University, Helwan 11795, Egypt; [email protected] 5 Department of Ethology, ELTE Eötvös Loránd University, Pázmány Péter stny. 1C, 1117 Budapest, Hungary; [email protected] * Correspondence: [email protected] (A.R.); [email protected] (M.V.) Simple Summary: Paradise fish (Macropodus opercularis) has been a favored subject of behavioral research during the last decades of the 20th century. Lately, however, with a massively expanding genetic toolkit and a well annotated, fully sequenced genome, zebrafish (Danio rerio) became a central model of recent behavioral research. But, as the zebrafish behavioral repertoire is less complex than that of the paradise fish, the focus on zebrafish is a compromise. With the advent of novel methodologies, we think it is time to bring back paradise fish and develop it into a modern model of Citation: Rácz, A.; Adorján, G.; behavioral and evolutionary developmental biology (evo-devo) studies. The first step is to define the Fodor, E.; Sellyei, B.; Tolba, M.; housing and husbandry conditions that can make a paradise fish a relevant and trustworthy model. -
Analysis of the Diet Between an Invasive and Native Fishes in the Peruvian Amazon. Anthony Mazeroll [email protected] Introduct
Analysis of the diet between an invasive and native fishes in the Peruvian Amazon. Anthony Mazeroll [email protected] Introduction Non-native species are the second greatest threat to global species biodiversity after land development (Vitousek, D'Antonio, Loope, Rejmanek, & Westbrooks, 1997). Due to the magnitude of this threat, it is vital that the impacts of exotic species are understood. Fish biodiversity is especially threatened by the ecological changes caused by non-native species (Gozlan, Britton, Cowx, & Copp, 2010). Having higher species diversity allows more ecological processes to take place, protecting the resources of that system, and making it more resilient to change (Folke, 2006). Adding outside inputs, such as additional non-native species, into an ecosystem can have beneficial or compromising effects depending on the amount and type. Invasive species have been shown to reduce native species richness and diversity of native organisms. Some have argued that the transportation of species from one ecosystem to another is actually beneficial for diversity, and non-native species are not really an environmental “problem”. Introductions of non-native species increase diversity at a local level because in the short term there will be a lag time where both non-native and natives can coexist (Lodge, Stein, Brown, Covich, Bronmark, Garvey and Klosiewski, 1998). Species entering a new ecosystem have to pass through a gauntlet of barriers before they can become established. The usual progression of invasion is: transportation to the new ecosystem, initial establishment, spread to a larger region, and then naturalization into the new community (Marchetti, Light, Moyle, and Viers, 2004). -
Status and Critical Habitat of Rare Fish Species in the Mississippi River from the Coon Rapids Dam to the Iowa Border
State Wildlife Grant Final Report Status and critical habitat of rare fish species in the Mississippi River from the Coon Rapids Dam to the Iowa border Konrad Schmidt (Nongame Fish Program) Nick Proulx (Bio-criteria Development Program) Minnesota Department of Natural Resources Division of Ecological Resources 9 March 2009 Paddlefish (Polyodon spathula) from Lake Pepin Abstract From 2006 through 2008, the Mississippi River was surveyed from the Coon Rapids Dam (Pool A) to the Iowa border (Pool 9). Sampling gear consisted of boat and backpack electroshockers, gill nets, trap nets, trawls, seines, dip nets and setlines. Habitats included main and side channels, backwaters, tributary mouths and tailwater zones of dams. The three year study found 16 of 22 Species in the Greatest Conservation Need (SGCN) reported from the Minnesota reach of the Mississippi River. Introduction The study area covers 192 river miles and includes 12 pools impounded by locks and dams that were originally designed for commercial navigation, but this corridor has become extremely popular with recreational watercraft users. The US Army Corps of Engineers maintains the navigation channel of the pools at a minimum depth of nine feet. Prior to the lock and dam system, thousands of closing and wing dams were constructed during the late 1800s. The closing dams reduced flow to backwaters and side channels, while wing dams directed current down the main channel to maintain navigable depths. These structures are not maintained, but most remain and continue to function. The long-term results of this altered flow regime has filled in many side channels and backwaters with sediments or greatly reduced their depth and size. -
Fundamentals of Fisheries Biology
FT 273 - FUNDAMENTALS OF FISHERIES BIOLOGY 9 March 2015 Reproduction TOPICS WE WILL COVER REGARDING REPRODUCTION Reproductive anatomy Breeding behavior Development Physiological adaptations Bioenergetics Mating systems Alternative reproductive strategies Sex change REPRODUCTION OVERVIEW Reproduction is a defining feature of a species and it is evident in anatomical, behavioral, physiological and energetic adaptations Success of a species depends on ability of fish to be able to reproduce in an ever changing environment REPRODUCTION TERMS Fecundity – Number of eggs in the ovaries of the female. This is most common measure to reproductive potential. Dimorphism – differences in size or body shape between males and females Dichromatism – differences in color between males and females Bioenergetics – the balance of energy between growth, reproduction and metabolism REPRODUCTIVE ANATOMY Different between sexes Different depending on the age/ size of the fish May only be able to determine by internal examination Reproductive tissues are commonly paired structures closely assoc with kidneys FEMALE OVARIES (30 TO 70%) MALE TESTES (12% OR <) Anatomy hagfish, lamprey: single gonads no ducts; release gametes into body cavity sharks: paired gonads internal fertilization sperm emitted through cloaca, along grooves in claspers chimaeras, bony fishes: paired gonads external and internal fertilization sperm released through separate opening most teleosts: ova maintained in continuous sac from ovary to oviduct exceptions: Salmonidae, Anguillidae, Galaxidae, -
Spotted Darter Status Assessment
SPOTTED DARTER STATUS ASSESSMENT Prepared by: Joseph M. Mayasich and David Grandmaison Natural Resources Research Institute University of Minnesota 5013 Miller Trunk Highway Duluth, MN 55811-1442 and David Etnier Ecology and Evolutionary Biology University of Tennessee 569 Dabney Hall Knoxville, TN 37996-1610 Prepared for: U.S. Fish and Wildlife Service Region 3 1 Federal Drive Fort Snelling, MN 55111 March 2004 NRRI Technical Report No. NRRI/TR-2004-02 DISCLAIMER This document is a compilation of biological data and a description of past, present, and likely future threats to the spotted darter, Etheostoma maculatum (Kirtland). It does not represent a decision by the U.S. Fish and Wildlife Service (Service) on whether this taxon should be designated as a candidate species for listing as threatened or endangered under the Federal Endangered Species Act. That decision will be made by the Service after reviewing this document; other relevant biological and threat data not included herein; and all relevant laws, regulations, and policies. The result of the decision will be posted on the Service's Region 3 Web site (refer to: http://midwest.fws.gov/eco_serv/endangrd/lists/concern.html). If designated as a candidate species, the taxon will subsequently be added to the Service's candidate species list that is periodically published in the Federal Register and posted on the World Wide Web (refer to: http://endangered.fws.gov/wildlife.html). Even if the taxon does not warrant candidate status it should benefit from the conservation recommendations that are contained in this document. i TABLE OF CONTENTS DISCLAIMER............................................................................................................................... ii NARRATIVE ................................................................................................................................1 SYSTEMATICS............................................................................................................... -
Evolution, Culture, and Care for Betta Splendens1 Craig Watson, Matthew Dimaggio, Jeffrey Hill, Quenton Tuckett, and Roy Yanong2
FA212 Evolution, Culture, and Care for Betta splendens1 Craig Watson, Matthew DiMaggio, Jeffrey Hill, Quenton Tuckett, and Roy Yanong2 The commercial betta, or Siamese fighting fish (Betta to have shaped the evolution of labyrinth fishes, a group splendens), is one of a group of fishes called the anabantoids that formed ~60 million years ago. Life in hypoxic environ- (suborder Anabantoidei), most of which occur in fresh ments appears to have been the driving force behind the waters of Africa and southern Asia. There are roughly 137 evolutionary diversification of labyrinth fishes, including labyrinth fishes in three families, Anabantidae (28 species), the genus Betta, the most diverse group within the family Helostomatidae (1 species), and Osphronemidae (108 Osphronemidae with over 73 species. A variety of behav- species including B. splendens). The anabantoids are also ioral, morphological, and physiological traits evolved in known as labyrinth fishes, which, unlike most other fishes, response to development of air breathing as an adaptation often do not rely primarily on the gills for respiration. The to living in a hypoxic environment. While the labyrinth gills of labyrinth fishes are relatively small and primarily organ may be one of the most obvious traits, others, such as excrete the waste products ammonia and carbon dioxide. bubble nest building for reproduction, are also associated In fact, many labyrinth fishes are obligate air breathers, with this adaptation. The bubble nest allows eggs to develop meaning they must breathe at the surface to survive. in environments with elevated temperature and low pH and Other fishes have evolved a number of solutions to allow dissolved oxygen, relatively free of predators. -
Fish Reproductive Biology
OHIO AGRICULTURAL RESEARCH AND DEVELOPMENT CENTER Fish Reproductive Biology OSU South Centers Piketon, Ohio [email protected] OHIO AGRICULTURAL RESEARCH AND DEVELOPMENT CENTER Fish Facts • 32,500 estimated species of fish in the world • More than 15,000 freshwater fish species • Freshwater may constitute less than 0.3% of available global water 2 OHIO AGRICULTURAL RESEARCH AND DEVELOPMENT CENTER 3 OHIO AGRICULTURAL RESEARCH AND DEVELOPMENT CENTER Types of Reproduction • SEXUAL REPRODUCTION • Combination of genetic material contributed by two different gametes, usually i.e. two different individuals, male and female • ASEXUAL (PARTHENOGENESIS) • New individuals are produced from a single parent without the formation of gametes or need of a partner (Amazon Molly) 4 OHIO AGRICULTURAL RESEARCH AND DEVELOPMENT CENTER Sexual Maturity • Fishes can become sexually mature at various ages, depending on species • Several factors influence sexual maturity • Nutritional state of the fish • Physiological factors (hormones) • Ecological factors 5 OHIO AGRICULTURAL RESEARCH AND DEVELOPMENT CENTER Sexual Maturity • Most bony fishes become sexually mature between one and five years • Sturgeon may take up to 15 years • Most bony fishes are in excess of 8 cm (3 in.) before reproducing • Age and associated size are major factors • Species of small size begin reproduction sooner than species of large size 6 OHIO AGRICULTURAL RESEARCH AND DEVELOPMENT CENTER Sexual Dimorphism • In most species of fish the females are larger than the males(sexual dimorphism) -
The Frequency of Occurrence and Relative Abundance of Ohio Stream Fishes: 1979 Through 1995
Ohio Biological Survey Notes 2: 53-62, 1999. © Ohio Biological Survey The Frequency of Occurrence and Relative Abundance of Ohio Stream Fishes: 1979 Through 1995 RANDALL E. SANDERS1, CHARLES STAUDT2, DENNIS MISHNE2, MARC SMITH2, EDWARD T. RANKIN2, CHRIS O. YODER2, ROGER THOMA2, DAVID A LTFATER2, CHARLES B OUCHER2, KELLY C APUZZI2, ROBERT M ILTNER2, BRIAN ALSDORF2, DANIEL L. RICE3, AND TED M. CAVENDER4 1Fish Management and Research, Division of Wildlife, Ohio Department of Natural Resources, 1840 Belcher Drive G-3, Columbus, OH 43224. 2Ecological Assessment, Division of Surface Water, Ohio Environmental Protection Agency, 4675 Homer Ohio Lane, Groveport, OH 43125. 3Division of Natural Areas and Preserves, Ohio Department of Natural Resources, Fountain Square F-1, Columbus, OH 43224. 4Division of Fishes, Museum of Biological Diversity, The Ohio State University, 1315 Kinnear Road, Columbus, OH 43212 Introduction Ohio streams have a rich history of ichthyological investigations. Statewide distribution maps for game fish species were first reported by Wickliff and Trautman (1931). The first edition of The Fishes of Ohio published statewide distribution maps for all Ohio fish species for collections made during 1840 through 1955 (Trautman, 1957). This book was revised for collections made during 1956 through 1980—a period when fish populations in many streams were severely degraded by high levels of pollution and other environmental changes (Trautman, 1981). Although these publications are excellent sources for the historical distributions, identification, and preferred habitats of Ohio fish, they do not provide quantitative frequency of occurrence or relative abundance information for current stream fish populations that have increased as the result of improved water quality (e.g., Ohio Environmental Protection Agency [OEPA] 1992; 1995; 1996), become established through introductions, or continued to decline. -
Fish: Darters
FISH: DARTERS Since the late 1800s, there have been 104 different species of fishes found in the Minnesota River Basin. Over the past years, 12 of those species have not been seen for over 30 years and are believed to be extirpated (Schmidt and Proulx, 2007). The fishes live in a variety of habitats which include, “shallow lakes and low-gradient streams on the uplands flanking the Minnesota River valley, high-gradient streams where tributaries to the river descend into the valley, and the winding main stem of the Minnesota and floodplain lakes on the valley floor”(Schmidt and Proulx, 2007). Some fish biologists use Darters as indicators of water quality. The presence or absence of some species can tell experts about water quality. Historically 10 different species of Darters have been found in the Minnesota River Basin, but over the past few years, only 6 have been documented. The Crystal Darter has not been found since the 1960s, while the Johnny Darter is quite abundant. All Darters are about finger length or 2-3 inches. To learn more about Darters identified in this fact sheet “Peterson Field Guides: A Field Guide to Freshwater Fishes” by Lawrence M. Page and Brooks M Burr. Bell Museum: Fishes of Minnesota http://hatch.cehd.umn.edu/research/fish/fishes/Minnesota River Basin Data Center - http://mrbdc. mnsu.edu/ Rainbow Darter - Etheostoma caeruleum The Rainbow Darter is sensitive to pollution and silt. It spawns in clean gravel riffles from March to June and lives for about four years. Males can be identified by the 8-13 blue bands along the side of their body and anal fins Konrad Schmidt with an orange-reddish center surrounded by blue. -
Checklist of the Inland Fishes of Louisiana
Southeastern Fishes Council Proceedings Volume 1 Number 61 2021 Article 3 March 2021 Checklist of the Inland Fishes of Louisiana Michael H. Doosey University of New Orelans, [email protected] Henry L. Bart Jr. Tulane University, [email protected] Kyle R. Piller Southeastern Louisiana Univeristy, [email protected] Follow this and additional works at: https://trace.tennessee.edu/sfcproceedings Part of the Aquaculture and Fisheries Commons, and the Biodiversity Commons Recommended Citation Doosey, Michael H.; Bart, Henry L. Jr.; and Piller, Kyle R. (2021) "Checklist of the Inland Fishes of Louisiana," Southeastern Fishes Council Proceedings: No. 61. Available at: https://trace.tennessee.edu/sfcproceedings/vol1/iss61/3 This Original Research Article is brought to you for free and open access by Volunteer, Open Access, Library Journals (VOL Journals), published in partnership with The University of Tennessee (UT) University Libraries. This article has been accepted for inclusion in Southeastern Fishes Council Proceedings by an authorized editor. For more information, please visit https://trace.tennessee.edu/sfcproceedings. Checklist of the Inland Fishes of Louisiana Abstract Since the publication of Freshwater Fishes of Louisiana (Douglas, 1974) and a revised checklist (Douglas and Jordan, 2002), much has changed regarding knowledge of inland fishes in the state. An updated reference on Louisiana’s inland and coastal fishes is long overdue. Inland waters of Louisiana are home to at least 224 species (165 primarily freshwater, 28 primarily marine, and 31 euryhaline or diadromous) in 45 families. This checklist is based on a compilation of fish collections records in Louisiana from 19 data providers in the Fishnet2 network (www.fishnet2.net).