Unit 4.12 Marine Fishes Marine Science
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§4-71-6.5 LIST of CONDITIONALLY APPROVED ANIMALS November
§4-71-6.5 LIST OF CONDITIONALLY APPROVED ANIMALS November 28, 2006 SCIENTIFIC NAME COMMON NAME INVERTEBRATES PHYLUM Annelida CLASS Oligochaeta ORDER Plesiopora FAMILY Tubificidae Tubifex (all species in genus) worm, tubifex PHYLUM Arthropoda CLASS Crustacea ORDER Anostraca FAMILY Artemiidae Artemia (all species in genus) shrimp, brine ORDER Cladocera FAMILY Daphnidae Daphnia (all species in genus) flea, water ORDER Decapoda FAMILY Atelecyclidae Erimacrus isenbeckii crab, horsehair FAMILY Cancridae Cancer antennarius crab, California rock Cancer anthonyi crab, yellowstone Cancer borealis crab, Jonah Cancer magister crab, dungeness Cancer productus crab, rock (red) FAMILY Geryonidae Geryon affinis crab, golden FAMILY Lithodidae Paralithodes camtschatica crab, Alaskan king FAMILY Majidae Chionocetes bairdi crab, snow Chionocetes opilio crab, snow 1 CONDITIONAL ANIMAL LIST §4-71-6.5 SCIENTIFIC NAME COMMON NAME Chionocetes tanneri crab, snow FAMILY Nephropidae Homarus (all species in genus) lobster, true FAMILY Palaemonidae Macrobrachium lar shrimp, freshwater Macrobrachium rosenbergi prawn, giant long-legged FAMILY Palinuridae Jasus (all species in genus) crayfish, saltwater; lobster Panulirus argus lobster, Atlantic spiny Panulirus longipes femoristriga crayfish, saltwater Panulirus pencillatus lobster, spiny FAMILY Portunidae Callinectes sapidus crab, blue Scylla serrata crab, Samoan; serrate, swimming FAMILY Raninidae Ranina ranina crab, spanner; red frog, Hawaiian CLASS Insecta ORDER Coleoptera FAMILY Tenebrionidae Tenebrio molitor mealworm, -
Jenis-Jenis Pakan Alami Leptobarbus Melanopterus Di Taman Nasional Danau Sentarum Kabupaten Kapuas Hulu
Protobiont (2019) Vol. 8 (1) : 6 – 12 Jenis-Jenis Pakan Alami Leptobarbus melanopterus di Taman Nasional Danau Sentarum Kabupaten Kapuas Hulu Cristiar Samosir1, Tri Rima Setyawati1, Ari Hepi Yanti1 1Program Studi Biologi, Fakultas MIPA, Universitas Tanjungpura, Jl. Prof. Dr. H. Hadari Nawawi Pontianak Email: [email protected] Abstract As the endemic fish of Danau Sentarum National Park, peam fish or Leptobarbus melanopterus had environmental problem such as overfishing due which threaten either juvenile or adult fish. These conditions were feared will led L. melanopterus population decrease in future if there is no sustainable management such as aquaculture. This research aims to identify the natural foods of L. melanopterus. Sixty four samples of L. melanopterus were collected through purposive sampling method. The results of gut analysis were found 17 genera of phytoplankton, 4 genera of zooplankton, 1 plant, and 1 Insecta. Zygnematophyceae had the most various genera which consisted of 7 genera while Ulvophyceae and Xanthophyceae only had 1 genera each of them. The natural food of L. melanopterus can be used as preliminary data for the application of aquaculture in the future. Keywords: fitoplankton, Leptobarbus melanopterus, natural food, Sentarum Lake, zooplankton PENDAHULUAN morfologi, L. melanopterus mirip dengan L. hoevenii. Karakteristik khas pada Salah satu kawasan konservasi terbesar di L. melanopterus yang dapat membedakannya dari Kalimantan Barat adalah Taman Nasional Danau L. hoevenii adalah warna merah dan hitam pada Sentarum (TNDS) di Kabupaten Kapuas Hulu. sirip ekor serta bercak merah cerah di operkulum. TNDS memiliki tipe ekosistem hamparan banjir Bercak merah ini diyakini oleh masyarakat lokal (floodplain) yang unik karena bersifat periodik. -
Classes of Fish #1 Agnatha : Jawless Fish 1) Oldest of All Fish 500 Mya 2) No Jaw 3) Eel-Like Body 4) Light Skeleton Made out of Cartilage
Classes of Fish #1 Agnatha : Jawless Fish 1) Oldest of all fish 500 mya 2) No Jaw 3) Eel-like Body 4) Light skeleton made out of cartilage. 5) Gill slits on the side of the body. 6) Unpaired fins 7) Examples: Lamprey and Hagfish Objectives: 1. List the three classes of fish. Draw a simple picture for each class and provide a one sentence description. 2. Describe the purposes associated with the lateral line http://www.flickr.com/photos/boarderjon/294353224/ system and the swim bladder. #2 Chondrichthyes : Cartilagenous fish 1) Stream-lined Body 2) Jaws Formed from a bony gill arch 3) Skeleton made of cartilage strengthened be calcium carbonate. A thin layer of bone covers the cartilage. 4)Teeth: modified scales 5) Some possess a lateral line system 6) Examples: Sharks, Rays, and Skates 1 #3 Osteichthyes : Bony Fish 1) Skeleton made of bone . 2) Lateral Line System : Specialized sensory system that runs along the length of the fish. It accurately indicates the position and rate of movement of the 2 Groups of Bony Fish fish. In addition, it can also detect motion of other 1) Ray-finned fish : Fins supported by living things in the water. It is similar in function to bony rays. hearing. Example: Perch 3) Gill Cover : A hard plate called an operculum covers 2) Lobe-finned fish : Fin is a fleshy lobe and protects the gills. Muscles attached to the supported by bone. operculum allow it to move in order to push water Example: Lungfish through the gills. Fish that do not have operculum must swim in order to breath. -
THE CLASSIFICATION and EVOLUTION of the HETEROSTRACI Since 1858, When Huxley Demonstrated That in the Histological Struc
ACTA PALAEONT OLOGICA POLONICA Vol. VII 1 9 6 2 N os. 1-2 L. BEVERLY TARLO THE CLASSIFICATION AND EVOLUTION OF THE HETEROSTRACI Abstract. - An outline classification is given of the Hetero straci, with diagnoses . of th e following orders and suborders: Astraspidiformes, Eriptychiiformes, Cya thaspidiformes (Cyathaspidida, Poraspidida, Ctenaspidida), Psammosteiformes (Tes seraspidida, Psarnmosteida) , Traquairaspidiformes, Pteraspidiformes (Pte ras pidida, Doryaspidida), Cardipeltiformes and Amphiaspidiformes (Amphiaspidida, Hiber naspidida, Eglonaspidida). It is show n that the various orders fall into four m ain evolutionary lineages ~ cyathaspid, psammosteid, pteraspid and amphiaspid, and these are traced from primitive te ssellated forms. A tentative phylogeny is pro posed and alternatives are discussed. INTRODUCTION Since 1858, when Huxley demonstrated that in the histological struc ture of their dermal bone Cephalaspis and Pteraspis were quite different from one another, it has been recognized that there were two distinct groups of ostracoderms for which Lankester (1868-70) proposed the names Osteostraci and Heterostraci respectively. Although these groups are generally considered to be related to on e another, Lankester belie ved that "the Heterostraci are at present associated with the Osteostraci because they are found in the same beds, because they have, like Cepha laspis, a large head shield, and because there is nothing else with which to associate them". In 1889, Cop e united these two groups in the Ostracodermi which, together with the modern cyclostomes, he placed in the Class Agnatha, and although this proposal was at first opposed by Traquair (1899) and Woodward (1891b), subsequent work has shown that it was correct as both the Osteostraci and the Heterostraci were agnathous. -
Fish and Amphibians
Fish and Amphibians Geology 331 Paleontology Phylum Chordata: Subphyla Urochordata, Cephalochordata, and: Subphylum Vertebrata Class Agnatha: jawless fish, includes the hagfish, conodonts, lampreys, and ostracoderms (armored jawless fish) Gnathostomates: jawed fish Class Chondrichthyes: cartilaginous fish Class Placoderms: armored fish Class Osteichthyes: bony fish Subclass Actinopterygians: ray-finned fish Subclass Sarcopterygians: lobe-finned fish Order Dipnoans: lung fish Order Crossopterygians: coelocanths and rhipidistians Class Amphibia Urochordates: Sea Squirts. Adults have a pharynx with gill slits. Larval forms are free-swimming and have a notochord. Chordates are thought to have evolved from the larval form by precocious sexual maturation. Chordate evolution Cephalochordate: Branchiostoma, the lancelet Pikaia, a cephalochordate from the Burgess Shale Yunnanozoon, a cephalochordate from the Lower Cambrian of China Haikouichthys, agnathan, Lower Cambrian of China - Chengjiang fauna, scale is 5 mm A living jawless fish, the lamprey, Class Agnatha Jawless fish do have teeth! A fossil jawless fish, Class Agnatha, Ostracoderm, Hemicyclaspis, Silurian Agnathan, Ostracoderm, Athenaegis, Silurian of Canada Agnathan, Ostracoderm, Pteraspis, Devonian of the U.K. Agnathan, Ostracoderm, Liliaspis, Devonian of Russia Jaws evolved by modification of the gill arch bones. The placoderms were the armored fish of the Paleozoic Placoderm, Dunkleosteus, Devonian of Ohio Asterolepis, Placoderms, Devonian of Latvia Placoderm, Devonian of Australia Chondrichthyes: A freshwater shark of the Carboniferous Fossil tooth of a Great White shark Chondrichthyes, Great White Shark Chondrichthyes, Carcharhinus Sphyrna - hammerhead shark Himantura - a ray Manta Ray Fish Anatomy: Ray-finned fish Osteichthyes: ray-finned fish: clownfish Osteichthyes: ray-finned fish, deep water species Lophius, an Eocene fish showing the ray fins. This is an anglerfish. -
<I>Histrio Histrio</I>
A CONTRIBUTION 'ro THE BIOLOGY AND POSTLARVAL DEVELOPMENT OF THE SA.RGASSUM FISH, HISTRIO HISTRIO (LINNAEUS), vVITH A DISCUSSION OF THE SARGilSSUM COMPLEX' JUDITH A. ADAMS The Marine Laboratory, University of Miami ABSTRACT The early development of the Sargassum fish, Histrio histrio (Linnaeus), is described, based upon a collection of 44 larval and juvenile specimens from the Florida Current. Growth, biology, feeding and relationship to the Sargassum complex are discussed. Specimens at various stages of develop- ment are illustrated. INTRODUCTION The fishes of the family Antennariidae have attracted considerable interest because of their curious form, coloration, and behavior. Reef and bank-dwelling antennariids are widely distributed throughout warm, shallow seas in the Atlantic, Pacific, and Indian Oceans, and the pelagic member of the family, Histrio histrio, occurs in floating weed over a similar area, although wind and current may at times carry these drifters far into temperate waters. Despite, however, the interest and availability of this group, its taxonomy was not clarified until quite recently (Barbour, 1942; Schultz, 1957), and many reports were buri~d in the proliferating synonomy. Histrio histrio alone, though now regarded as belonging to a monotypic genus, has seventeen synonyms as listed by Schultz (1957). Larval stages and eggs of the Antennariidae were unknown to early workers; this led several respected biologists to attribute erroneously the "nests" of flying fish to Histrio. Subsequently, non-fertile egg rafts of solitary Histrio females were observed in aquaria. In 1954 Mosher successfully paired ripe males and females in aquaria at the Lerner Marine Laboratory, Bimini, Bahamas, and recorded the spawning and fertilization of Histrio egg rafts. -
Seasonal Hydrology Shifts Production Sources Supporting Fishes in Rivers of the Lower Mekong Basin
1342 ARTICLE Seasonal hydrology shifts production sources supporting fishes in rivers of the Lower Mekong Basin Chouly Ou and Kirk O. Winemiller Abstract: Seasonal hydrology is assumed to be an important reason why the Lower Mekong Basin supports highly productive and biodiverse inland fisheries. We used C and N stable isotope ratios of tissue samples to estimate primary production sources supporting fish biomass in the Mekong and three large tributaries in Cambodia. We used a Bayesian mixing model to estimate relative contributions of four alternative production sources — seston, benthic algae, riparian grasses, and riparian macro- phytes. There was little seasonal variation in isotopic signatures of riparian plants, but benthic algae and seston showed large seasonal shifts in carbon ratios. Seston and benthic algae were the most important production sources supporting fish biomass overall during the dry season, and riparian vegetation was the most important source during the wet season. Sources contributed differentially to biomass of trophic and habitat guilds, especially during the dry season. A dam on the upper Sesan River has changed hydrology, channel geomorphology, and other factors and, compared with the other three rivers, its fish biomass appears to derive from algae to a greater extent. Résumé : L’hydrologie saisonnière est présumée être une importante raison expliquant le fait que le bassin du cours inférieur du fleuve Mékong supporte des pêches continentales très productives et d’une grande biodiversité. Nous avons utilisé les rapports d’isotopes stables du C et du N d’échantillons de tissus pour estimer les sources de production primaire qui supportent la biomasse de poissons dans le Mékong et trois grands affluents au Cambodge. -
Guam Marine Biosecurity Action Plan
GuamMarine Biosecurity Action Plan September 2014 This Marine Biosecurity Action Plan was prepared by the University of Guam Center for Island Sustainability under award NA11NOS4820007 National Oceanic and Atmospheric Administration Coral Reef Conservation Program, as administered by the Office of Ocean and Coastal Resource Management and the Bureau of Statistics and Plans, Guam Coastal Management Program. The statements, findings, conclusions, and recommendations are those of the author(s) and do not necessarily reflect the views of the National Oceanic and Atmospheric Administration. Guam Marine Biosecurity Action Plan Author: Roxanna Miller First Released in Fall 2014 About this Document The Guam Marine Biosecurity Plan was created by the University of Guam’s Center for Island Sustainability under award NA11NOS4820007 National Oceanic and Atmospheric Administration Coral Reef Conservation Program, as administered by the Office of Ocean and Coastal Resource Management and the Bureau of Statistics and Plans, Guam Coastal Management Program. Information and recommendations within this document came through the collaboration of a variety of both local and federal agencies, including the National Oceanic and Atmospheric Administration (NOAA) National Marine Fisheries Service (NMFS), the NOAA Coral Reef Conservation Program (CRCP), the University of Guam (UOG), the Guam Department of Agriculture’s Division of Aquatic and Wildlife Resources (DAWR), the United States Coast Guard (USCG), the Port Authority of Guam, the National Park Service -
Evolutionary Crossroads in Developmental Biology: Cyclostomes (Lamprey and Hagfish) Sebastian M
PRIMER SERIES PRIMER 2091 Development 139, 2091-2099 (2012) doi:10.1242/dev.074716 © 2012. Published by The Company of Biologists Ltd Evolutionary crossroads in developmental biology: cyclostomes (lamprey and hagfish) Sebastian M. Shimeld1,* and Phillip C. J. Donoghue2 Summary and is appealing because it implies a gradual assembly of vertebrate Lampreys and hagfish, which together are known as the characters, and supports the hagfish and lampreys as experimental cyclostomes or ‘agnathans’, are the only surviving lineages of models for distinct craniate and vertebrate evolutionary grades (i.e. jawless fish. They diverged early in vertebrate evolution, perceived ‘stages’ in evolution). However, only comparative before the origin of the hinged jaws that are characteristic of morphology provides support for this phylogenetic hypothesis. The gnathostome (jawed) vertebrates and before the evolution of competing hypothesis, which unites lampreys and hagfish as sister paired appendages. However, they do share numerous taxa in the clade Cyclostomata, thus equally related to characteristics with jawed vertebrates. Studies of cyclostome gnathostomes, has enjoyed unequivocal support from phylogenetic development can thus help us to understand when, and how, analyses of protein-coding sequence data (e.g. Delarbre et al., 2002; key aspects of the vertebrate body evolved. Here, we Furlong and Holland, 2002; Kuraku et al., 1999). Support for summarise the development of cyclostomes, highlighting the cyclostome theory is now overwhelming, with the recognition of key species studied and experimental methods available. We novel families of non-coding microRNAs that are shared then discuss how studies of cyclostomes have provided exclusively by hagfish and lampreys (Heimberg et al., 2010). -
Cypriniformes of Borneo (Actinopterygii, Otophysi): an Extraordinary Fauna for Integrated Studies on Diversity, Systematics, Evolution, Ecology, and Conservation
Zootaxa 3586: 359–376 (2012) ISSN 1175-5326 (print edition) www.mapress.com/zootaxa/ ZOOTAXA Copyright © 2012 · Magnolia Press Article ISSN 1175-5334 (online edition) urn:lsid:zoobank.org:pub:7A06704C-8DE5-4B9F-9F4B-42F7C6C9B32F Cypriniformes of Borneo (Actinopterygii, Otophysi): An Extraordinary Fauna for Integrated Studies on Diversity, Systematics, Evolution, Ecology, and Conservation ZOHRAH H. SULAIMAN1 & R.L MAYDEN2 1Biological Science Programme, Faculty of Science, Universiti Brunei Darussalam, Tungku BE1410, Brunei Darussalam; E-mail:[email protected] 2Department of Biology, 3507 Laclede Ave, Saint Louis University, St Louis, Missouri 63103, USA; E-mail:[email protected] Abstract Borneo Island is governed by the countries of Brunei Darussalam, Malaysia (Sabah and Sarawak) and Indonesia (Kalimantan) and is part of Sundaland. These countries have a high diversity of freshwater fishes, especially described and undescribed species of Cypriniformes; together these species and other flora and fauna represent an extraordinary opportunity for worldwide collaboration to investigate the biodiversity, conservation, management and evolution of Borneo’s wildlife. Much of the fauna and flora of Borneo is under significant threat, warranting an immediate and swift international collaboration to rapidly inventory, describe, and conserve the diversity. The Sunda drainage appears to have been an important evolutionary centre for many fish groups, including cypriniforms (Cyprinidae, Balitoridae and Gyrinocheilidae); however, Northwestern Borneo (Brunei, Sabah and Sarawak) is not connected to Sundaland, and this disjunction likely explains the non-homogeneity of Bornean ichthyofauna. A previous study confirmed that northern Borneo, eastern Borneo and Sarawak shared a similar ichthyofauna, findings that support the general hypothesis for freshwater connections at one time between western Borneo and central Sumatra, and south Borneo and Java island. -
Marine Animals VERTEBRATES
Marine Animals VERTEBRATES OCN 201 Biology Lecture 7 Arthropods Segmented Worms The Animal Chordates Family Tree Molluscs Lophophores Echinoderms Round Worms Cnidarians Bilateria Rotifers Ctenophores Radiata Flatworms Proboscis Sponges Worms Ancestral Protist The Chordates Invertebrates Vertebrates Chordate Features • Presence of a notochord • Dorsal hollow nerve cord • Pharyngeal slits (originally for feeding, later modified) Invertebrate Chordates Tunicates Lancelets • Pelagic or benthic • Small fish-like • Often colonial • Suspension feeder • Suspension feeders • Can swim, but usually stays partly buried Amphioxus The Major Fish Groups • Jawless fishes (Agnatha) • Cartilaginous fishes (Chondrichthyes) • Bony fishes (Osteichthyes) Agnatha Lamprey • No jaws • No appendages • Cartilaginous • Parasites or Scavengers Hagfish Chondrichthyes (Cartilaginous Fish) • Sharks Skates and Rays • Skeleton of cartilage • Have jaws • Carnivores or Planktivores Chondrichthyes: Planktivores • Planktivores (filter feeders) are largest • Gaping mouth with small or no teeth • Gill rakers • Manta Ray (8 m across!) • Whale Shark (up to 17 m long!) Gill Rakers Gill Arch Cookie-Cutter Shark Osteichthyes • 22,000 species • From about 1 cm to 8 m • Surface to deep ≥ 8370 m Smallest, lightest Most Massive bony fish: Mola Mola Stout Infant fish Up to 1300 kg and 3 m tip to tip Feeds on gelatinous zooplankton Examples of feeding strategies Herbivores (algae) Planktivores (Filter Feeders) H2O filter: gill rakers mouth gill opening gut Predators Parrot Fish - eats coral Tuna -
Agnatha, Chondrichthyes and Osteichthyes
See discussions, stats, and author profiles for this publication at: https://www.researchgate.net/publication/311861377 Agnatha, Chondrichthyes and Osteichthyes Chapter · November 2016 CITATIONS READS 0 1,531 2 authors: Antonis Petrou Charitos Zapitis AP Marine Env.Consultancy Ltd & Enalia Physis Environmental Research Centre University of Derby 29 PUBLICATIONS 131 CITATIONS 1 PUBLICATION 0 CITATIONS SEE PROFILE SEE PROFILE Some of the authors of this publication are also working on these related projects: Lionfish in the Mediterranean View project PCY1 - Investigating the effects of recreational diving on the macroalgal communities of the 'Zenobia' shipwreck (Cyprus) View project All content following this page was uploaded by Charitos Zapitis on 24 December 2016. The user has requested enhancement of the downloaded file. Chapter 26 - Agnatha CHAPTER 26: AGNATHA, CHONDRICHTHYES AND OSTEICHTHYES FISHES Antonis Petrou and Charitos Zapitis 1. INTRODUCTION The classification of fishes is not straightforward since they do not form a natural scientific grouping like the other vertebrate classes, i.e. the amphibians, reptiles, birds and mammals. Indeed, fishes can be considered by exclusion to be vertebrates that are not tetrapods (see Chapter 25: Introduction to Vertebrates). They are aquatic, gill- bearing, ectothermic ('cold-blooded') animals with a distinguishable head and, when present, digit-less limbs. Traditionally, fish have been arranged into three groups: ➵ Agnatha 1, the jawless fish (Myxini [hagfishes] and Hyperoartia [lampreys]); ➵ Chondrichthyes, the cartilaginous fish (sharks, skates and rays); ➵ Osteichthyes, the bony fish (Actinopterygii [ray-finned fishes] and Sarcopterygii [lobe-finned fishes]). This classification is adequate for general purposes, although Agnatha is paraphyletic and includes several groups of extinct jawless fishes.