Marine Life Protection Act U.S
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Diversity and Community Structure of Pelagic Cnidarians in the Celebes and Sulu Seas, Southeast Asian Tropical Marginal Seas
Deep-Sea Research I 100 (2015) 54–63 Contents lists available at ScienceDirect Deep-Sea Research I journal homepage: www.elsevier.com/locate/dsri Diversity and community structure of pelagic cnidarians in the Celebes and Sulu Seas, southeast Asian tropical marginal seas Mary M. Grossmann a,n, Jun Nishikawa b, Dhugal J. Lindsay c a Okinawa Institute of Science and Technology Graduate University (OIST), Tancha 1919-1, Onna-son, Okinawa 904-0495, Japan b Tokai University, 3-20-1, Orido, Shimizu, Shizuoka 424-8610, Japan c Japan Agency for Marine-Earth Science and Technology (JAMSTEC), Yokosuka 237-0061, Japan article info abstract Article history: The Sulu Sea is a semi-isolated, marginal basin surrounded by high sills that greatly reduce water inflow Received 13 September 2014 at mesopelagic depths. For this reason, the entire water column below 400 m is stable and homogeneous Received in revised form with respect to salinity (ca. 34.00) and temperature (ca. 10 1C). The neighbouring Celebes Sea is more 19 January 2015 open, and highly influenced by Pacific waters at comparable depths. The abundance, diversity, and Accepted 1 February 2015 community structure of pelagic cnidarians was investigated in both seas in February 2000. Cnidarian Available online 19 February 2015 abundance was similar in both sampling locations, but species diversity was lower in the Sulu Sea, Keywords: especially at mesopelagic depths. At the surface, the cnidarian community was similar in both Tropical marginal seas, but, at depth, community structure was dependent first on sampling location Marginal sea and then on depth within each Sea. Cnidarians showed different patterns of dominance at the two Sill sampling locations, with Sulu Sea communities often dominated by species that are rare elsewhere in Pelagic cnidarians fi Community structure the Indo-Paci c. -
Magazine SUMMER 2020 OCEANA.ORG
Magazine SUMMER 2020 OCEANA.ORG Oceana Senior Advisor Alexandra Cousteau and Bloomberg Philanthropies CEO Patti Harris are pictured at the Our Ocean 2019 conference in Oslo, Norway. For more, read the CEO Note on page 3. © Ilja C. Hendel Transparency Crusader (Sea) Food Security COVID-19 and Fisheries Renata Terrazas, Oceana’s VP in The ocean can feed a billion people, Dr. Daniel Pauly explains how fish Mexico, on publicizing vital data but who needs fish most? stocks could recover post-pandemic Board of Directors Ocean Council Oceana Staff Valarie Van Cleave, Chair Susan Rockefeller, Founder Andrew Sharpless Ted Danson, Vice Chair Kelly Hallman, Vice Chair Chief Executive Officer Diana Thomson, Treasurer Dede McMahon, Vice Chair Jim Simon James Sandler, Secretary Anonymous President Keith Addis, President Samantha Bass Gaz Alazraki Violaine and John Bernbach Jacqueline Savitz Chief Policy Officer, North America Monique Bär Rick Burnes Herbert M. Bedolfe, III Vin Cipolla Katie Matthews, Ph.D. Nicholas Davis Barbara Cohn Chief Scientist Sydney Davis Ann Colley César Gaviria Edward Dolman Matthew Littlejohn Senior Vice President, Strategic Initiatives Mária Eugenia Girón Kay and Frank Fernandez Loic Gouzer Carolyn and Chris Groobey Janelle Chanona Jena King J. Stephen and Angela Kilcullen Vice President, Belize Ben Koerner Ann Luskey Ademilson Zamboni, Ph.D. Sara Lowell Mia M. Thompson Vice President, Brazil Stephen P. McAllister Peter Neumeier Kristian Parker, Ph.D. Carl and Janet Nolet Joshua Laughren Daniel Pauly, Ph.D. Ellie Phipps Price Executive Director, Oceana Canada David Rockefeller, Jr. Maria Jose Peréz Simón Liesbeth van der Meer Susan Rockefeller David Rockefeller, Jr. Vice President, Chile Simon Sidamon-Eristoff Elias Sacal Rashid Sumaila, Ph.D. -
THE CASE AGAINST Marine Mammals in Captivity Authors: Naomi A
s l a m m a y t T i M S N v I i A e G t A n i p E S r a A C a C E H n T M i THE CASE AGAINST Marine Mammals in Captivity The Humane Society of the United State s/ World Society for the Protection of Animals 2009 1 1 1 2 0 A M , n o t s o g B r o . 1 a 0 s 2 u - e a t i p s u S w , t e e r t S h t u o S 9 8 THE CASE AGAINST Marine Mammals in Captivity Authors: Naomi A. Rose, E.C.M. Parsons, and Richard Farinato, 4th edition Editors: Naomi A. Rose and Debra Firmani, 4th edition ©2009 The Humane Society of the United States and the World Society for the Protection of Animals. All rights reserved. ©2008 The HSUS. All rights reserved. Printed on recycled paper, acid free and elemental chlorine free, with soy-based ink. Cover: ©iStockphoto.com/Ying Ying Wong Overview n the debate over marine mammals in captivity, the of the natural environment. The truth is that marine mammals have evolved physically and behaviorally to survive these rigors. public display industry maintains that marine mammal For example, nearly every kind of marine mammal, from sea lion Iexhibits serve a valuable conservation function, people to dolphin, travels large distances daily in a search for food. In learn important information from seeing live animals, and captivity, natural feeding and foraging patterns are completely lost. -
DEEP SEA LEBANON RESULTS of the 2016 EXPEDITION EXPLORING SUBMARINE CANYONS Towards Deep-Sea Conservation in Lebanon Project
DEEP SEA LEBANON RESULTS OF THE 2016 EXPEDITION EXPLORING SUBMARINE CANYONS Towards Deep-Sea Conservation in Lebanon Project March 2018 DEEP SEA LEBANON RESULTS OF THE 2016 EXPEDITION EXPLORING SUBMARINE CANYONS Towards Deep-Sea Conservation in Lebanon Project Citation: Aguilar, R., García, S., Perry, A.L., Alvarez, H., Blanco, J., Bitar, G. 2018. 2016 Deep-sea Lebanon Expedition: Exploring Submarine Canyons. Oceana, Madrid. 94 p. DOI: 10.31230/osf.io/34cb9 Based on an official request from Lebanon’s Ministry of Environment back in 2013, Oceana has planned and carried out an expedition to survey Lebanese deep-sea canyons and escarpments. Cover: Cerianthus membranaceus © OCEANA All photos are © OCEANA Index 06 Introduction 11 Methods 16 Results 44 Areas 12 Rov surveys 16 Habitat types 44 Tarablus/Batroun 14 Infaunal surveys 16 Coralligenous habitat 44 Jounieh 14 Oceanographic and rhodolith/maërl 45 St. George beds measurements 46 Beirut 19 Sandy bottoms 15 Data analyses 46 Sayniq 15 Collaborations 20 Sandy-muddy bottoms 20 Rocky bottoms 22 Canyon heads 22 Bathyal muds 24 Species 27 Fishes 29 Crustaceans 30 Echinoderms 31 Cnidarians 36 Sponges 38 Molluscs 40 Bryozoans 40 Brachiopods 42 Tunicates 42 Annelids 42 Foraminifera 42 Algae | Deep sea Lebanon OCEANA 47 Human 50 Discussion and 68 Annex 1 85 Annex 2 impacts conclusions 68 Table A1. List of 85 Methodology for 47 Marine litter 51 Main expedition species identified assesing relative 49 Fisheries findings 84 Table A2. List conservation interest of 49 Other observations 52 Key community of threatened types and their species identified survey areas ecological importanc 84 Figure A1. -
Solomon Islands Marine Life Information on Biology and Management of Marine Resources
Solomon Islands Marine Life Information on biology and management of marine resources Simon Albert Ian Tibbetts, James Udy Solomon Islands Marine Life Introduction . 1 Marine life . .3 . Marine plants ................................................................................... 4 Thank you to the many people that have contributed to this book and motivated its production. It Seagrass . 5 is a collaborative effort drawing on the experience and knowledge of many individuals. This book Marine algae . .7 was completed as part of a project funded by the John D and Catherine T MacArthur Foundation Mangroves . 10 in Marovo Lagoon from 2004 to 2013 with additional support through an AusAID funded community based adaptation project led by The Nature Conservancy. Marine invertebrates ....................................................................... 13 Corals . 18 Photographs: Simon Albert, Fred Olivier, Chris Roelfsema, Anthony Plummer (www.anthonyplummer. Bêche-de-mer . 21 com), Grant Kelly, Norm Duke, Corey Howell, Morgan Jimuru, Kate Moore, Joelle Albert, John Read, Katherine Moseby, Lisa Choquette, Simon Foale, Uepi Island Resort and Nate Henry. Crown of thorns starfish . 24 Cover art: Steven Daefoni (artist), funded by GEF/IWP Fish ............................................................................................ 26 Cover photos: Anthony Plummer (www.anthonyplummer.com) and Fred Olivier (far right). Turtles ........................................................................................... 30 Text: Simon Albert, -
Chapter 12 Lecture
ChapterChapter 1 12 Clickers Lecture Essentials of Oceanography Eleventh Edition Marine Life and the Marine Environment Alan P. Trujillo Harold V. Thurman © 2014 Pearson Education, Inc. Chapter Overview • Living organisms, including marine species, are classified by characteristics. • Marine organisms are adapted to the ocean’s physical properties. • The marine environment has distinct divisions. © 2014 Pearson Education, Inc. Classification of Life • Classification based on physical characteristics • DNA sequencing allows genetic comparison. © 2014 Pearson Education, Inc. Classification of Life • Living and nonliving things made of atoms • Life consumes energy from environment. • NASA’s definition encompasses potential for extraterrestrial life. © 2014 Pearson Education, Inc. Classification of Life • Working definition of life • Living things can – Capture, store, and transmit energy – Reproduce – Adapt to environment – Change over time © 2014 Pearson Education, Inc. Classification of Life • Three domains or superkingdoms • Bacteria – simple life forms without nuclei • Archaea – simple, microscopic creatures • Eukarya – complex, multicellular organisms – Plants and animals – DNA in discrete nucleus © 2014 Pearson Education, Inc. Classification of Living Organisms • Five kingdoms – Monera – Protoctista – Fungi – Plantae – Animalia © 2014 Pearson Education, Inc. Five Kingdoms of Organisms • Monera – Simplest organisms, single-celled – Cyanobacteria, heterotrophic bacteria, archaea • Protoctista – Single- and multicelled with nucleus – -
The Role of Reservations and Vetoes in Marine Conservation Agreements
The Role of Reservations and Vetoes in Marine Conservation Agreements Howard S. Schiffman A thesis submitted in partial satisfaction of the degree of Doctor of Philosophy Professor Robin R. Churchill, Supervisor Cardiff Law School Cardiff University Submitted, July 3, 2006 \ ~ . lv UMI Number: U585553 All rights reserved INFORMATION TO ALL USERS The quality of this reproduction is dependent upon the quality of the copy submitted. In the unlikely event that the author did not send a complete manuscript and there are missing pages, these will be noted. Also, if material had to be removed, a note will indicate the deletion. Dissertation Publishing UMI U585553 Published by ProQuest LLC 2013. Copyright in the Dissertation held by the Author. Microform Edition © ProQuest LLC. All rights reserved. This work is protected against unauthorized copying under Title 17, United States Code. ProQuest LLC 789 East Eisenhower Parkway P.O. Box 1346 Ann Arbor, Ml 48106-1346 The Role of Reservations and Vetoes in Marine Conservation Agreements Howard S. Schiffman Contents Preface...................................................................................................................iv Acknowledgements ..............................................................................................v List of Abbreviations ...........................................................................................viii Chapter 1 “Exemptive Provisions:” A Survey of the Issues in International Law 1 I. Introduction ............................................................................................ -
Key Threatening Process Nomination Form
Key Threatening Process Nomination Form for amending the list of key threatening processes under the Environment Protection and Biodiversity Conservation Act 1999 (EPBC Act) 2012 Assessment Period This nomination form is designed to assist in the preparation of nominations of threatening processes consistent with the Regulations and EPBC Act. The listing of a key threatening process under the EPBC Act is designed to prevent native species or ecological communities from becoming threatened or prevent threatened species and ecological communities from becoming more threatened. Many processes that occur in the landscape are, or could be, threatening processes, however priority for listing will be directed to key threatening processes, those factors that most threaten biodiversity at national scale. For a key threatening process to be eligible for listing it must meet at least one of the three listing criteria. If there is insufficient data and information available to allow completion of the questions for each of the listing criteria, state this in your nomination under the relevant question. Note – Further detail to help you complete this form is provided at Attachment A. If using this form in Microsoft Word, you can jump to this information by Ctrl+clicking the hyperlinks (in blue text). Nominated key threatening process 1. NAME OF KEY THREATENING PROCESS Recreational game fishing – competition game fishing especially for sharks, tuna and marlins 2. CRITERIA UNDER WHICH THE KEY THREATENING PROCESS IS ELIGIBLE FOR LISTING Please mark the boxes that apply by clicking them with your mouse. Criterion A Evidence that the threatening process could cause a native species or ecological community to become eligible for listing in any category, other than conservation dependent. -
Energetics of Marine Ecosystems Part I
Section 3 Where does energy for life come from? Autotrophs- can fix inorganic molecules into organic substances. They can be: 1. Photosynthetic: use light energy to synthesize glucose from carbon dioxide and water Can only take place in photic zone so 90% of marine life is found here. 2. Chemosynthetic: synthesis of organic compounds by bacteria (or other living organisms) using energy derived from reactions with inorganic chemicals ex. Hydrogen Sulfide (H2S) Hydrothermal vents In 1977 Hydrothermal Vents were discovered. Prior to this, scientists thought that the only way energy could reach the bottom of the ocean would be when organisms died and sunk to bottom. Transfer of nrg Heterotrophs (consumers) obtain nrg by feeding off autotrophs or other consumers Primary Productivity- how much nrg is “fixed” into carbohydrates (organic matter) Remember from Bio: Carbohydrates are sugar molecules made of C,H,O in a ratio of 1:2:1 Most productive marine ecosystems are: 1. Estuaries 2. Swamps 3. Marshes Overall…. Oceans are the most productive ecosystems because it covers such a high proportion of Earths surface. Photosynthesis in the water Photosynthesis in marine ecosystems is carried out by: 1. Phytoplankton: microscopic photosynthetic organisms that live in the photic zone. -algae (single cell Kingdom: Protista) 2. Macroalgae ex. Seagrass and kelp glucose Phyto and Zoo Plankton Greek Phyto = plant- autotrophs Algae Zoo = animal- heterotrophs Planktos = drifter; wanderer Cnidarians – jellyfish Crustaceans - krill Chlorophyll Green pigment found in algae and plants that allows them to absorb energy from light Greek Chloros – green Phyllon – leaf http://earthobservatory.nasa.gov/GlobalMaps/view.ph p?d1=MY1DMM_CHLORA What affects the rate of photosynthesis? 1. -
Getting to the Bottom of Global Fishery Catches COMMENTARY Eva´ Elizabeth Plag ´Anyia,1
COMMENTARY Getting to the bottom of global fishery catches COMMENTARY Eva´ Elizabeth Plag ´anyia,1 When one tugs at a single thing in nature, he finds more complex, and it is important to resolve the it attached to the rest of the world. actual energy available from phytoplankton after John Muir, The Yosemite accounting for lost material that sinks to the deep Ecosystems are complex, interconnected systems ocean and for the energy that passes through an fueled by primary production, from vegetation on important group of intermediate-sized plankton, land and phytoplankton in the sea. In the oceans, this the mesozooplankton (3) (Fig. 1). The importance of energy moves from prey to predators, specifically mesozooplankton, and specifically copepods such as from phytoplankton up the food chain to the species Calanus, in linking phytoplankton variability to fish- of marine fish that are harvested by fishers (1) (Fig. 1). eries catch has previously been recognized (9) but, However, despite some strong regional relationships again, found not to hold universally. According to between phytoplankton production and fish catch (2), Stock et al. (3), the key to explaining cross-ecosystem these simple relationships do not exist in other places catch differences better is to consider also how effi- (3), perhaps due, in part, to uncertainties in catch es- ciently energy is transferred through the food web. timates and fishing effort, as well as variable predation Their calculations therefore reduce trophic transfer pressure from species at the top of the food chain. The efficiencies in warm-water LMEs because of the total amount of the primary production that is appro- higher metabolic demands in these regions. -
Life on the Coral Reef
Coral Reef Teacher’s Guide Life on the Coral Reef Life on the Coral Reef THE CORAL REEF ECOSYSTEM The muddy silt drifts out to sea, covering the nearby Coral reefs provide the basis for the most productive coral reefs. Some corals can remove the silt, but many shallow water ecosystem in the world. An ecosystem cannot. If the silt is not washed off within a short pe- is a group of living things, such as coral, algae and riod of time by the current, the polyps suffocate and fishes, along with their non-living environment, such die. Not only the rainforest is destroyed, but also the as rocks, water, and sand. Each influences the other, neighboring coral reef. and both are necessary for the successful maintenance of life. If one is thrown out of balance by either natural Reef Zones or human-made causes, then the survival of the other Coral reefs are not uniform, but are shaped by the is seriously threatened. forces of the sea and the structure of the sea floor into DID YOU KNOW? All of the Earth’s ecosystems are a series of different parts or reef zones. Understand- interrelated, forming a shell of life that covers the ing these zones is useful in understanding the ecol- entire planet – the biosphere. For instance, if too many ogy of coral reefs. Keep in mind that these zones can trees are cut down in the rainforest, soil from the for- blend gradually into one another, and that sometimes est is washed by rain into rivers that run to the ocean. -
Ecological Change in the Oceans and the Role of Fisheries
Ecological Change in the Oceans and the Role of Fisheries Boris Worm Department of Biology, Dalhousie University, Halifax, Nova Scotia, Canada When I took a course with Elisabeth Mann Borgese in 1999, she reminded us that the oceans are constantly changing, both in their outer appearance, and their internal workings. Constant ecological change makes the ocean fascinat- ing to observe and study, but challenging to understand and manage. Long-term changes are brought about by geological processes such as sedi- ment transport, volcanism, and plate tectonics that affect the very shape of ocean basins and the extent of habitat features such as shallow shelf seas con- ducive to biological productivity. On intermediate time scales, climate-driven changes in ocean temperature, circulation, and chemistry can have profound ecological effects on the abundance and distribution of marine life forms, and even caused massive extinction events in the past. Over the last few thousand years, however, people have gradually become a dominant agent of change in the oceans. Initially tied to the continents where we evolved, human hunters at least 42,000 years ago started to venture out into the ocean to pursue large fish.1 Driven by changes in fishing technology, human population size, and global trade, this role has been extending to all ocean basins, and even parts of the deep sea. Over the last two decades, the profound ecological change brought about by human activities has also been studied in detail by the sci- entific community. Although human impacts on ocean ecosystems involve many pathways, there is little doubt that fishing— defined here as any extraction of marine animals and plants—is the activity that historically has had the most trans- formative ecological effects.2 Although it is not clear how much marine life has been removed over the entire history of fishing, recent total catches likely 1 S.