Responses to Notification to the Parties No. 2020/015
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Reef Fish Biodiversity in the Florida Keys National Marine Sanctuary Megan E
University of South Florida Scholar Commons Graduate Theses and Dissertations Graduate School November 2017 Reef Fish Biodiversity in the Florida Keys National Marine Sanctuary Megan E. Hepner University of South Florida, [email protected] Follow this and additional works at: https://scholarcommons.usf.edu/etd Part of the Biology Commons, Ecology and Evolutionary Biology Commons, and the Other Oceanography and Atmospheric Sciences and Meteorology Commons Scholar Commons Citation Hepner, Megan E., "Reef Fish Biodiversity in the Florida Keys National Marine Sanctuary" (2017). Graduate Theses and Dissertations. https://scholarcommons.usf.edu/etd/7408 This Thesis is brought to you for free and open access by the Graduate School at Scholar Commons. It has been accepted for inclusion in Graduate Theses and Dissertations by an authorized administrator of Scholar Commons. For more information, please contact [email protected]. Reef Fish Biodiversity in the Florida Keys National Marine Sanctuary by Megan E. Hepner A thesis submitted in partial fulfillment of the requirements for the degree of Master of Science Marine Science with a concentration in Marine Resource Assessment College of Marine Science University of South Florida Major Professor: Frank Muller-Karger, Ph.D. Christopher Stallings, Ph.D. Steve Gittings, Ph.D. Date of Approval: October 31st, 2017 Keywords: Species richness, biodiversity, functional diversity, species traits Copyright © 2017, Megan E. Hepner ACKNOWLEDGMENTS I am indebted to my major advisor, Dr. Frank Muller-Karger, who provided opportunities for me to strengthen my skills as a researcher on research cruises, dive surveys, and in the laboratory, and as a communicator through oral and presentations at conferences, and for encouraging my participation as a full team member in various meetings of the Marine Biodiversity Observation Network (MBON) and other science meetings. -
Inventario De Invertebrados De La Zona Rocosa Intermareal De Montepío, Veracruz, México
Revista Mexicana de Biodiversidad 85: 349-362, 2014 Revista Mexicana de Biodiversidad 85: 349-362, 2014 DOI: 10.7550/rmb.42628 DOI: 10.7550/rmb.42628349 Inventario de invertebrados de la zona rocosa intermareal de Montepío, Veracruz, México Inventory of invertebrates from the rocky intertidal shore at Montepío, Veracruz, Mexico Aurora Vassallo, Yasmín Dávila, Nelia Luviano, Sara Deneb-Amozurrutia, Xochitl Guadalupe Vital, Carlos Andrés Conejeros, Leopoldo Vázquez y Fernando Álvarez Colección Nacional de Crustáceos, Instituto de Biología, Universidad Nacional Autónoma de México. Apartado postal 70-153, 04510 México, D. F., México. [email protected] Resumen. Se presenta el registro de las especies de invertebrados marinos que habitan la costa rocosa intermareal de Montepío, Veracruz, identificados hasta ahora. La información se obtuvo de las colectas realizadas en los últimos 10 años por parte de la Colección Nacional de Crustáceos y los registros adicionales se obtuvieron de la información publicada. El listado de especies incluye las formas de vida en relación con el sustrato, criptofauna o epifauna, así como su tipo de distribución en las 2 principales regiones zoogeográficas marinas para el golfo de México: Carolineana y Caribeña; se incluyen también las especies que sólo se encuentran en el golfo de México. El listado incluye 195 especies pertenecientes a 9 grupos, de los cuales Crustacea es el más diverso con 73 especies, seguido por Mollusca con 69 y Echinodermata con 18; los grupos con menor riqueza específica fueron: Chelicerata con 2 especies y Platyhelminthes y Sipuncula con una sola especie cada grupo. Del total de especies 74 son nuevos registros de localidad y 7 nuevos registros para Veracruz. -
St. Kitts Final Report
ReefFix: An Integrated Coastal Zone Management (ICZM) Ecosystem Services Valuation and Capacity Building Project for the Caribbean ST. KITTS AND NEVIS FIRST DRAFT REPORT JUNE 2013 PREPARED BY PATRICK I. WILLIAMS CONSULTANT CLEVERLY HILL SANDY POINT ST. KITTS PHONE: 1 (869) 765-3988 E-MAIL: [email protected] 1 2 TABLE OF CONTENTS Page No. Table of Contents 3 List of Figures 6 List of Tables 6 Glossary of Terms 7 Acronyms 10 Executive Summary 12 Part 1: Situational analysis 15 1.1 Introduction 15 1.2 Physical attributes 16 1.2.1 Location 16 1.2.2 Area 16 1.2.3 Physical landscape 16 1.2.4 Coastal zone management 17 1.2.5 Vulnerability of coastal transportation system 19 1.2.6 Climate 19 1.3 Socio-economic context 20 1.3.1 Population 20 1.3.2 General economy 20 1.3.3 Poverty 22 1.4 Policy frameworks of relevance to marine resource protection and management in St. Kitts and Nevis 23 1.4.1 National Environmental Action Plan (NEAP) 23 1.4.2 National Physical Development Plan (2006) 23 1.4.3 National Environmental Management Strategy (NEMS) 23 1.4.4 National Biodiversity Strategy and Action Plan (NABSAP) 26 1.4.5 Medium Term Economic Strategy Paper (MTESP) 26 1.5 Legislative instruments of relevance to marine protection and management in St. Kitts and Nevis 27 1.5.1 Development Control and Planning Act (DCPA), 2000 27 1.5.2 National Conservation and Environmental Protection Act (NCEPA), 1987 27 1.5.3 Public Health Act (1969) 28 1.5.4 Solid Waste Management Corporation Act (1996) 29 1.5.5 Water Courses and Water Works Ordinance (Cap. -
WMSDB - Worldwide Mollusc Species Data Base
WMSDB - Worldwide Mollusc Species Data Base Family: TURBINIDAE Author: Claudio Galli - [email protected] (updated 07/set/2015) Class: GASTROPODA --- Clade: VETIGASTROPODA-TROCHOIDEA ------ Family: TURBINIDAE Rafinesque, 1815 (Sea) - Alphabetic order - when first name is in bold the species has images Taxa=681, Genus=26, Subgenus=17, Species=203, Subspecies=23, Synonyms=411, Images=168 abyssorum , Bolma henica abyssorum M.M. Schepman, 1908 aculeata , Guildfordia aculeata S. Kosuge, 1979 aculeatus , Turbo aculeatus T. Allan, 1818 - syn of: Epitonium muricatum (A. Risso, 1826) acutangulus, Turbo acutangulus C. Linnaeus, 1758 acutus , Turbo acutus E. Donovan, 1804 - syn of: Turbonilla acuta (E. Donovan, 1804) aegyptius , Turbo aegyptius J.F. Gmelin, 1791 - syn of: Rubritrochus declivis (P. Forsskål in C. Niebuhr, 1775) aereus , Turbo aereus J. Adams, 1797 - syn of: Rissoa parva (E.M. Da Costa, 1778) aethiops , Turbo aethiops J.F. Gmelin, 1791 - syn of: Diloma aethiops (J.F. Gmelin, 1791) agonistes , Turbo agonistes W.H. Dall & W.H. Ochsner, 1928 - syn of: Turbo scitulus (W.H. Dall, 1919) albidus , Turbo albidus F. Kanmacher, 1798 - syn of: Graphis albida (F. Kanmacher, 1798) albocinctus , Turbo albocinctus J.H.F. Link, 1807 - syn of: Littorina saxatilis (A.G. Olivi, 1792) albofasciatus , Turbo albofasciatus L. Bozzetti, 1994 albofasciatus , Marmarostoma albofasciatus L. Bozzetti, 1994 - syn of: Turbo albofasciatus L. Bozzetti, 1994 albulus , Turbo albulus O. Fabricius, 1780 - syn of: Menestho albula (O. Fabricius, 1780) albus , Turbo albus J. Adams, 1797 - syn of: Rissoa parva (E.M. Da Costa, 1778) albus, Turbo albus T. Pennant, 1777 amabilis , Turbo amabilis H. Ozaki, 1954 - syn of: Bolma guttata (A. Adams, 1863) americanum , Lithopoma americanum (J.F. -
Spirorchiid Trematodes of Sea Turtles in Florida: Associated Disease, Diversity, and Life Cycle Studies
SPIRORCHIID TREMATODES OF SEA TURTLES IN FLORIDA: ASSOCIATED DISEASE, DIVERSITY, AND LIFE CYCLE STUDIES By BRIAN ADAMS STACY A DISSERTATION PRESENTED TO THE GRADUATE SCHOOL OF THE UNIVERSITY OF FLORIDA IN PARTIAL FULFILLMENT OF THE REQUIREMENTS FOR THE DEGREE OF DOCTOR OF PHILOSOPHY UNIVERSITY OF FLORIDA 2008 1 © 2008 Brian Stacy 2 To my family 3 ACKNOWLEDGMENTS This project would not have been possible without the substantial contributions and support of many agencies and individuals. I am grateful for the encouragement and assistance provided by my committee members: Elliott Jacobson, Ellis Greiner, Alan Bolten, John Dame, Larry Herbst, Rick Alleman, and Paul Klein. The sea turtle community, both government agencies and private, were essential contributors to the various aspects of this work. I greatly appreciate the contributions of my colleagues in the Florida Fish and Wildlife Conservation Commission (FWC), both present and past, including Allen Foley, Karrie Minch, Rhonda Bailey, Susan Shaf, Kim Sonderman, Nashika Brewer, and Ed DeMaye. Furthermore, I thank the many participants in the Sea Turtle Stranding and Salvage Network. I also am grateful to members of the turtle rehabilitation community, including the faculty and staff of The Turtle Hospital, Mote Marine Laboratory and Aquarium, Marinelife Center at Juno Beach, the Marine Science Center, Clearwater Marine Aquarium, and the Georgia Sea Turtle Center. Specifically, I would like to thank Richie Moretti, Michelle Bauer, Corrine Rose, Sandy Fournies, Nancy Mettee, Charles Manire, Terry Norton, Ryan Butts, Janine Cianciolo, Douglas Mader, and their invaluable support staff. Essential to the life cycle aspects of this project were the critical input and collaboration of the members and volunteers of the In-water Research Group, including Michael Bressette, Blair Witherington, Shigatomo Hirama, Dean Bagley, Steve Traxler, Richard Herren, and Carrie Crady. -
ABSTRACT Title of Dissertation: PATTERNS IN
ABSTRACT Title of Dissertation: PATTERNS IN DIVERSITY AND DISTRIBUTION OF BENTHIC MOLLUSCS ALONG A DEPTH GRADIENT IN THE BAHAMAS Michael Joseph Dowgiallo, Doctor of Philosophy, 2004 Dissertation directed by: Professor Marjorie L. Reaka-Kudla Department of Biology, UMCP Species richness and abundance of benthic bivalve and gastropod molluscs was determined over a depth gradient of 5 - 244 m at Lee Stocking Island, Bahamas by deploying replicate benthic collectors at five sites at 5 m, 14 m, 46 m, 153 m, and 244 m for six months beginning in December 1993. A total of 773 individual molluscs comprising at least 72 taxa were retrieved from the collectors. Analysis of the molluscan fauna that colonized the collectors showed overwhelmingly higher abundance and diversity at the 5 m, 14 m, and 46 m sites as compared to the deeper sites at 153 m and 244 m. Irradiance, temperature, and habitat heterogeneity all declined with depth, coincident with declines in the abundance and diversity of the molluscs. Herbivorous modes of feeding predominated (52%) and carnivorous modes of feeding were common (44%) over the range of depths studied at Lee Stocking Island, but mode of feeding did not change significantly over depth. One bivalve and one gastropod species showed a significant decline in body size with increasing depth. Analysis of data for 960 species of gastropod molluscs from the Western Atlantic Gastropod Database of the Academy of Natural Sciences (ANS) that have ranges including the Bahamas showed a positive correlation between body size of species of gastropods and their geographic ranges. There was also a positive correlation between depth range and the size of the geographic range. -
Courtship Behavior in the Dwarf Seahorse, Hippocampuszosterae
Copeia, 1996(3), pp. 634-640 Courtship Behavior in the Dwarf Seahorse, Hippocampuszosterae HEATHER D. MASONJONESAND SARA M. LEWIS The seahorse genus Hippocampus (Syngnathidae) exhibits extreme morpho- logical specialization for paternal care, with males incubating eggs within a highly vascularized brood pouch. Dwarf seahorses, H. zosterae, form monoga- mous pairs that court early each morning until copulation takes place. Daily behavioral observations of seahorse pairs (n = 15) were made from the day of introduction through the day of copulation. Four distinct phases of seahorse courtship are marked by prominent behavioral changes, as well as by differences in the intensity of courtship. The first courtship phase occurs for one or two mornings preceding the day of copulation and is characterized by reciprocal quivering, consisting of rapid side-to-side body vibrations displayed alternately by males and females. The remaining courtship phases are restricted to the day of copulation, with the second courtship phase distinguished by females pointing, during which the head is raised upward. In the third courtship phase, males begin to point in response to female pointing. During the final phase of courtship, seahorse pairs repeatedly rise together in the water column, eventually leading to females transferring their eggs directly into the male brood pouch during a brief midwater copulation. Courtship activity level (representing the percentage of time spent in courtship) increased from relatively low levels during the first courtship phase to highly active courtship on the day of copulation. Males more actively initiated courtship on the days preceding copulation, indicating that these seahorses are not courtship-role reversed, as has previously been assumed. -
Molinière-Beauséjour Marine Protected Area Management Plan Table of Ccontentsontents
MolinièreMolinière----BeauséjourBeauséjour Marine Protected Area Grenada Management Plan Grenada Ministry of Agriculture, Forestry & FisheriesFisheries September 2010 Acknowledgments All persons who have contributed to the development of this plan, namely the MPA Stakeholders Committee, the personnel of the Fisheries division, and all the people who kindly shared relevant pieces of information that were put together to build this document are hereby acknowledged. Special thanks are due to local communities and fishermen who willingly gave their time to participate in the surveys. This management plan was developed with technical assistance provided by the United States Agency for International Development through the Caribbean Open Trade Support project (COTS). The consultant Dr Dominique Roby, main author of this document, was assisted in the field by Tyrone Buckmire. Jerry Mitchell produced the maps on Figures 1, 4 and 8. The National Fish and Wildlife Foundation provided a financial support to the MPA Realization in Grenada Project which outputs were integrated in the development of the management plan. ii Molinière-Beauséjour Marine Protected Area Management Plan Table of ccontentsontents AcknowledgmentsAcknowledgments................................................................................................................................................................................................................... ................................................................................................ ............................................................................................... -
2020/2021 Field Course Homework Assignment
2020/2021 Field Course Homework Assignment Our class only meets once per month so in order to make the most out of our time together, please complete your monthly homework assignment on the respective topic prior to the class. Each assignment includes scripture reading, reading online articles, watching videos, and answering provided questions. Please complete the assignment for the appropriate class, answering the assigned questions, taking notes on the reading and be prepared to discuss it during our class time. “The works of the Lord are great, studied by all who have pleasure in them.” Psalm 111:2 Each assignment includes an “Apply What You’ve Learned” section that offers the students a chance to write a prayer of praise to the Lord for His Creation. This is because science class done correctly becomes a worship service. Students are encouraged to use these sections to offer heartfelt praise to the Lord. Questions If there are questions regarding the homework assignments, contact your instructor, Christa Jewett, using the following information: Phone Number: 954-895-8579 (No calls after 9:00 PM, please!) Email: [email protected] Click Here to View a Printable Version of this Lesson Plan O Lord, how manifold are Your works! In wisdom, You have made them all, the earth is full of your possessions – this great and wide sea, in which are innumerable teeming things, living things both small and great. Psalm 104:24- 25 Please note that this section of your homework assignment is to be completed before the class scheduled for December 11, 2020. To complete your homework, read the scriptures and assigned online articles and answer the associated questions. -
University of Florida Thesis Or Dissertation
DOES CULTCH TYPE AND RESTORATION HISTORY INFLUENCE DECAPOD CRUSTACEAN COLONIZATION OF OYSTER REEFS? By MEGAN SCHERRER LAMB A THESIS PRESENTED TO THE GRADUATE SCHOOL OF THE UNIVERSITY OF FLORIDA IN PARTIAL FULFILLMENT OF THE REQUIREMENTS FOR THE DEGREE OF MASTER OF SCIENCE UNIVERSITY OF FLORIDA 2018 © 2018 Megan Scherrer Lamb To the oysters ACKNOWLEDGMENTS I would like to thank my advisor, Dr. Behringer, for taking me on as a distance student and providing me with counsel and advice. Thank you to my committee members Dr. Andy Kane and Dr. Shirley Baker who provided valuable input and support. I would like to thank my lab mates for welcoming me to the lab and their willingness to help me, even though they saw me more over a computer screen than in person. Thank you to the Apalachicola National Estuarine Research Reserve which has provided support, water quality data, and equipment use to allow me to complete this project, especially J. Garwood and C. Snyder for technical assistance. Thank you to C. Jones and J. Shields at the Florida Department of Agriculture and Consumer Services for answering questions and providing fossilized material used in collectors. Additional shell material was provided by T. Ward and Paddy’s Raw Bar. I would like to thank D. Armentrout, T. Griffith, M. K. Davis, M. Davis, C. Snyder, E. Bourque, M. Christopher, K. Peter, H. Heinke-Green, S. Simpson, and W. Annis for assistance with field sample collection. Thanks to J. Collee from UF-IFAS Consulting provided assistance with statistical methods. I would like to thank my parents for all the support, encouragement, and education they have provided me with over my entire lifetime. -
Of the Americas
iSeahorse.org – Saving Seahorses Together seahorses of the Americas Seahorses of the Americas Masters of Disguise There are currently fi ve recognized species of Seahorses are well-camoufl aged, and individuals seahorses (Hippocampus spp.) in the Americas, can be covered by seaweeds and sediments in one in the Pacifi c Ocean and four in the the wild. Color and lengths of skin fi laments (“hairs”) Atlantic. All of these American seahorses tend can vary for individuals within the same species to live in relatively shallow coastal areas with and so are NOT useful for identifi cation. Practice 3D-structured habitat, including seagrasses, your identifi cation skills before starting surveys. corals, and mangroves. Above: Potential seahorse habitats. Left to right: coral reef, seagrass bed, mangrove forest. Photos by Tse-Lynn Loh and Ria Tan/Wild Singapore. Seahorse Parts Hippocampus barbouri Coronet Trunk Eye spine Nose spine Dorsal fi n Cheek spines Snout Brood pouch (males only) Tail Female Male In females, the belly does not extend past the bottom of the dorsal fi n. If you are uncertain, it is likely male. Pacifi c Seahorses Don’t Know Which Seahorse Species? How to Photograph for ID For unknown species, record the Head length following characteristics: • Torso length Torso length (distance from top of coronet to base of dorsal fi n) • Head length (from immediately behind the operculum – the fl ap covering the gills – to tip of snout) • Snout length Snout length (from bump immediately in front of the eye to tip of snout) or Take a photo of the side profi le of the seahorse with a ruler and calculate these measurements from the photo. -
Diversity of Seahorse Species (Hippocampus Spp.) in the International Aquarium Trade
diversity Review Diversity of Seahorse Species (Hippocampus spp.) in the International Aquarium Trade Sasha Koning 1 and Bert W. Hoeksema 1,2,* 1 Groningen Institute for Evolutionary Life Sciences, University of Groningen, P.O. Box 11103, 9700 Groningen, The Netherlands; [email protected] 2 Taxonomy, Systematics and Geodiversity Group, Naturalis Biodiversity Center, P.O. Box 9517, 2300 Leiden, The Netherlands * Correspondence: [email protected] Abstract: Seahorses (Hippocampus spp.) are threatened as a result of habitat degradation and over- fishing. They have commercial value as traditional medicine, curio objects, and pets in the aquarium industry. There are 48 valid species, 27 of which are represented in the international aquarium trade. Most species in the aquarium industry are relatively large and were described early in the history of seahorse taxonomy. In 2002, seahorses became the first marine fishes for which the international trade became regulated by CITES (Convention for the International Trade in Endangered Species of Wild Fauna and Flora), with implementation in 2004. Since then, aquaculture has been developed to improve the sustainability of the seahorse trade. This review provides analyses of the roles of wild-caught and cultured individuals in the international aquarium trade of various Hippocampus species for the period 1997–2018. For all species, trade numbers declined after 2011. The proportion of cultured seahorses in the aquarium trade increased rapidly after their listing in CITES, although the industry is still struggling to produce large numbers of young in a cost-effective way, and its economic viability is technically challenging in terms of diet and disease. Whether seahorse aqua- Citation: Koning, S.; Hoeksema, B.W.