DOCSLIB.ORG

Environmental Assessment of a Low-Energy Marine Geophysical Survey by the R/V Marcus G

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
Environmental Assessment of a Low-Energy Marine Geophysical Survey by the R/V Marcus G Environmental Assessment of a Low-Energy Marine Geophysical Survey by the R/V Marcus G. Langseth in the Central Pacific Ocean, May 2012 Prepared for Lamont-Doherty Earth Observatory 61 Route 9W, P.O. Box 1000 Palisades, NY 10964-8000 and National Science Foundation Division of Ocean Sciences 4201 Wilson Blvd., Suite 725 Arlington, VA 22230 by LGL Ltd., environmental research associates 22 Fisher St., POB 280 King City, Ont. L7B 1A6 30 November 2011 Revised 12 December 2011 LGL Report TA8098-1 Environmental Assessment for L-DEO’s Line Islands Seismic Survey, 2012 Page ii Table of Contents TABLE OF CONTENTS Page ABSTRACT .................................................................................................................................................... vi LIST OF ACRONYMS ................................................................................................................................... viii I. PURPOSE AND NEED .................................................................................................................................. 1 II. ALTERNATIVES INCLUDING PROPOSED ACTION ..................................................................................... 2 Proposed Action ................................................................................................................................. 2 (1) Project Objectives and Context .......................................................................................... 2 (2) Proposed Activities ............................................................................................................. 2 (3) Monitoring and Mitigation Measures ................................................................................. 6 Alternative Action: Another Time .................................................................................................... 11 No Action Alternative ...................................................................................................................... 11 III. AFFECTED ENVIRONMENT .................................................................................................................... 12 Oceanography ................................................................................................................................... 12 Protected Areas ................................................................................................................................. 12 Marine Mammals .............................................................................................................................. 13 (1) Mysticetes ......................................................................................................................... 13 (2) Odontocetes ...................................................................................................................... 19 (3) Pinniped ............................................................................................................................ 28 Sea Turtles ........................................................................................................................................ 28 (1) Green Turtle ..................................................................................................................... 29 (2) Hawksbill Turtle ............................................................................................................... 29 (3) Leatherback Turtle ........................................................................................................... 30 (4) Olive Ridley Turtle ........................................................................................................... 31 (5) Loggerhead Turtle ............................................................................................................ 33 Seabirds ............................................................................................................................................ 34 (1) Newell’s Shearwater ......................................................................................................... 34 (2) Hawaiian Petrel ................................................................................................................ 35 (3) Band-rumped storm petrel ................................................................................................ 35 (4) Black-footed Albatross ..................................................................................................... 35 IV. ENVIRONMENTAL CONSEQUENCES...................................................................................................... 35 Proposed Action ............................................................................................................................... 35 (1) Direct Effects and Their Significance on Marine Mammals and Sea Turtles .................. 35 (2) Mitigation Measures for Marine Mammals and Sea Turtles ............................................ 52 (3) Numbers of Marine Mammals that Could be “Taken by Harassment” ............................ 52 (4) Conclusions for Marine Mammals and Sea Turtles ......................................................... 57 (5) Direct Effects on Fish and Their Significance .................................................................. 58 (6) Direct Effects on Invertebrates and Their Significance .................................................... 60 (7) Direct Effects on Seabirds and Their Significance ........................................................... 62 (8) Indirect Effects on Marine Mammals, Sea Turtles, Seabirds, and Their Significance ................................................................................................................. 63 Environmental Assessment for L-DEO’s Line Islands Seismic Survey, 2012 Page iii Table of Contents (9) Cumulative Effects ........................................................................................................... 64 (10) Unavoidable Impacts ...................................................................................................... 67 (11) Coordination with Other Agencies and Processes .......................................................... 67 Alternative Action: Another Time .................................................................................................... 68 No Action Alternative ...................................................................................................................... 68 V. LIST OF PREPARERS ................................................................................................................................ 69 VI. LITERATURE CITED ............................................................................................................................... 70 Marine Mammals and Acoustics ...................................................................................................... 70 Sea Turtles, Seabirds, Fish, and Other .............................................................................................. 91 APPENDIX A: REVIEW OF THE EFFECTS OF AIRGUN SOUNDS ON MARINE MAMMALS ......................... 103 1. Categories of Noise Effects ....................................................................................................... 103 2. Hearing Abilities of Marine Mammals ...................................................................................... 103 2.1 Toothed Whales (Odontocetes) ...................................................................................... 104 2.2 Baleen Whales (Mysticetes) ........................................................................................... 104 2.3 Seals and Sea Lions (Pinnipeds) .................................................................................... 105 2.4 Manatees and Dugong (Sirenians) ................................................................................. 105 2.5 Sea Otter and Polar Bear ................................................................................................ 106 3. Characteristics of Airgun Sounds .............................................................................................. 106 4. Masking Effects of Airgun Sounds ........................................................................................... 108 5. Disturbance by Seismic Surveys ............................................................................................... 110 5.1 Baleen Whales ................................................................................................................ 111 5.2 Toothed Whales ............................................................................................................. 117 5.3 Pinnipeds ........................................................................................................................ 123 5.4 Sirenians, Sea Otter and Polar Bear ............................................................................... 125 6. Hearing Impairment and Other Physical Effects of Seismic Surveys ....................................... 125 6.1 Temporary Threshold Shift (TTS) ................................................................................. 126 6.2 Permanent Threshold Shift (PTS) .................................................................................. 131 6.3 Strandings and Mortality ................................................................................................ 133 6.4 Non-Auditory Physiological Effects .............................................................................
Load more

Recommended publications
  • Experienced Individuals Influence the Thermoregulatory Fanning Behaviour
    Animal Behaviour 142 (2018) 69e76 Contents lists available at ScienceDirect Animal Behaviour journal homepage: www.elsevier.com/locate/anbehav Experienced individuals influence the thermoregulatory fanning behaviour in honey bee colonies * Rachael E. Kaspar a, , Chelsea N. Cook a, b, Michael D. Breed a a Department of Ecology and Evolutionary Biology, The University of Colorado, Boulder, Boulder, CO, U.S.A. b Arizona State University, School of Life Sciences, Tempe, AZ, U.S.A. article info The survival of an animal society depends on how individual interactions influence group coordination. Article history: Interactions within a group determine coordinated responses to environmental changes. Individuals that Received 25 February 2018 are especially influential affect the behavioural responses of other group members. This is exemplified by Initial acceptance 4 April 2018 honey bee worker responses to increasing ambient temperatures by fanning their wings to circulate air Final acceptance 14 May 2018 through the hive. Groups of workers are more likely to fan than isolated workers, suggesting a coordi- Available online 10 July 2018 nated group response. But are some individuals more influential than others in this response? This study MS. number: A18-00153 tests the hypothesis that an individual influences other group members to perform thermoregulatory fanning behaviour in the western honey bee, Apis mellifera L. We show that groups of young nurse bees Keywords: placed with fanners are more likely to initiate fanning compared to groups of nurses without fanners. Apis mellifera L. Furthermore, we find that groups with young nurse bees have lower response thresholds than groups of fanning behaviour just fanners.
    [Show full text]
  • On the Frequency of Eusociality in Snapping Shrimps (Decapoda: Alpheidae), with Description of a Second Eusocial Species
    BULLETIN OF MARINE SCIENCE, 62(3): 387–400, 1998 ON THE FREQUENCY OF EUSOCIALITY IN SNAPPING SHRIMPS (DECAPODA: ALPHEIDAE), WITH DESCRIPTION OF A SECOND EUSOCIAL SPECIES J. Emmett Duffy ABSTRACT Recently, the Caribbean snapping shrimp Synalpheus regalis was shown to be eusocial by the criteria historically used for honeybees, ants, and termites, i.e., colonies contain a single reproducing female and a large number of non-breeding “workers.” This finding prompted a reexamination of several previously puzzling reports of unusual population structures in other Synalpheus species. New collections, and observations made by stu- dents of this genus over the last century, suggest that several sponge-dwelling Synalpheus species similarly exhibit overlapping generations and monopolization of reproduction by a few individuals, and thus that these species may also be eusocial according to classical entomological criteria. The evidence for this conclusion includes reports of several Car- ibbean and Indo-Pacific species occurring in large aggregations of “juvenile” shrimp accompanied by few or no mature females. Here I describe one of these species as Synalpheus chacei. Like other members of the gambarelloides species group within this genus, S. chacei is an obligate inhabitant of living demosponges, and has been collected from at least seven host species in Caribbean Panama, Belize, and the Virgin Islands. Stomach contents comprised primarily detritus and diatoms, suggesting that S. chacei feeds on material inhaled in the host sponge’s feeding current. The new species is mor- phologically similar to S. bousfieldi, and is most reliably distinguished from it (and in- deed, apparently from all other species of Synalpheus) by a unique pair of longitudinal setal combs on the dactyl of the minor first chela.
    [Show full text]
  • Eusociality Through Conflict Dissolution
    bioRxiv preprint doi: https://doi.org/10.1101/2020.09.29.316877; this version posted November 17, 2020. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY-NC-ND 4.0 International license. Eusociality through conflict dissolution 1 † 2 † Mauricio González-Forero ¤ and Jorge Peña ¤ 1School of Biology, University of St Andrews, St Andrews, UK 2Institute for Advanced Study in Toulouse, University of Toulouse Capitole, Toulouse, France ¤Both authors contributed equally. †Corresponding author. E-mail: [email protected] (M.G.F.);[email protected] (J.P.). Abstract Eusociality, where largely unreproductive offspring help their mothers reproduce, is a major form of so- cial organization in social insects and other animals. An increasingly documented feature of eusociality is that mothers induce their offspring to help by means of hormones, pheromones, or behavioral displays, with evidence often indicating that offspring help voluntarily. The co-occurrence of widespread maternal influence and voluntary offspring help may be explained by what we call the converted helping hypothesis, whereby helping originally arising from maternal manipulation subsequently becomes voluntary. This hy- pothesis requires that parent-offspring conflict is eventually dissolved—for instance, if the benefit of helping increases sufficiently over evolutionary time. Here we show that maternal manipulation of offspring help enables the mother to increase her fertility to such extent that parent-offspring conflict is transformed into parent-offspring agreement. Such conflict dissolution mechanism requires that helpers alleviate the total percent life-history trade-off limiting maternal fertility, and results in reproductive division of labor, high queen fertility, and honest queen signaling suppressing worker reproduction, thus exceptionally recovering diverse features of eusociality.
    [Show full text]
  • Social Transitions in Sponge-Dwelling Snapping Shrimp
    Available online at www.sciencedirect.com ScienceDirect Social transitions in sponge-dwelling snapping shrimp Solomon TC Chak and Dustin R Rubenstein Sociality is exceedingly rare in the marine environment, with of sociality is generally not well documented [3]. Deter- true eusociality found only within a single genus of sponge- mining the transitions from solitary living to these two dwelling snapping shrimp. This genus is socially diverse and forms of social organization is important for understand- exhibits multiple independent evolutionary origins of both ing how animal sociality has evolved. Yet, transitions to eusociality and communal breeding from pair-forming eusociality are typically rare, as illustrated by the corbi- ancestors. Ecology was critical to the evolution of shrimp culate bees where within the more than 1000 species, the sociality, as the transition from host specialization to behavior evolved only twice [8]. Additionally, communal generalism preceded the evolution of eusociality, and the breeding generally occurs in clades that lack eusocial transition from small to large host sponges favored the species [3], making it challenging to study simultaneously evolution of communal breeding. Moreover, a change in life both types of social transitions. Thus, the opportunity to history from planktonic to non-dispersing, crawling larvae only study social transitions within insects is limited to a few occurred in eusocial species. Here, we present a hypothesis lineages, making it important to also examine evolution- describing the evolutionary transitions toward sociality in ary transitions within other non-insect lineages that are shrimp that serves to illustrate how ecology and life history socially diverse. interact to shape social evolution more broadly.
    [Show full text]
  • Demographic Inference Provides Insights Into the Extirpation and Ecological Dominance of Eusocial Snapping Shrimps
    bioRxiv preprint doi: https://doi.org/10.1101/2020.09.07.283994; this version posted September 9, 2020. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission. 1 2 3 4 5 Demographic inference provides insights into the extirpation 6 and ecological dominance of eusocial snapping shrimps 7 8 9 Solomon T. C. Chaka,b,c,1, Stephen E. Harrisa,d,1, Kristin M. Hultgrene, J. Emmett Duffyf and 10 Dustin R. Rubensteina 11 12 a Department of Ecology, Evolution and Environmental Biology, Columbia University, New 13 York, NY 10027, USA 14 b Department of Biological Sciences, New Jersey Institute of Technology, Newark, NJ 07102, 15 USA 16 cDepartment of Biological Sciences, SUNY College at Old Westbury, Old Westbury, NY 11568, 17 USA 18 d Biology Department, SUNY Purchase College, Purchase, NY 10577, USA 19 e Biology Department, Seattle University, Seattle, WA 98122, USA 20 f Tennenbaum Marine Observatories Network, Smithsonian Institution, 647 Contees Wharf 21 Road, Edgewater, MD 21037, USA 22 23 Corresponding author: Solomon T. C. Chak, Department of Biological Sciences, SUNY College 24 at Old Westbury, Old Westbury, NY 11568, USA, [email protected], 804-223-2128 25 26 1 Both authors contributed equally to this manuscript 27 bioRxiv preprint doi: https://doi.org/10.1101/2020.09.07.283994; this version posted September 9, 2020. The copyright holder for this preprint (which was not certified by peer review) is the author/funder. All rights reserved. No reuse allowed without permission.
    [Show full text]
  • Cooperation, Conflict, and the Evolution of Complex Animal Societies By: Dustin R
    6/4/2015 Cooperation, Conflict, and the Evolution of Complex Animal Societies By: Dustin R. Rubenstein (Department of Ecology, Evolution and, Environmental Biology, Columbia University) & James Kealey (Columbia University) © 2010 Nature Education Citation: Rubenstein, D. & Kealey, J. (2010) Cooperation, Conflict, and the Evolution of Complex Animal Societies. Nature Education Knowledge 3(10):78 Organisms as diverse as amoebas and elephants frequently live in groups. Why do these and many other animals form complex societies? Organisms are inherently competitive, yet cooperation is widespread. Genes cooperate in genomes; cells cooperate in tissues; individuals cooperate in societies. Animal societies, in which collective action emerges from cooperation among individuals, represent extreme social complexity. Such societies are not only common in insects, mammals, and birds, but exist even in simple species like amoebas (Figure 1). Animal societies vary in structure from eusocial insect colonies with a single reproductive female supported by hundreds, thousands, or even millions of non‑breeding workers, to cooperatively breeding groups of vertebrates with one or more breeders and a small number of non‑breeding helpers. Given the diversity of social taxa, why do some species form complex societies, while other closely related species do not? Within these societies, why do some individuals attempt to reproduce, while others delay their own reproductive efforts to help raise the offspring of others? Determining the answers to these and other questions requires considering how and why groups form, and how individual behavioral roles are determined within groups. http://www.nature.com/scitable/knowledge/library/cooperation-conflict-and-the-evolution-of-complex-13236526 1/8 6/4/2015 Figure 1: Group‑living is widespread in the animal kingdom.
    [Show full text]
  • Defense, Regulation, and Evolution Li Tian University of Kentucky, [email protected]
    University of Kentucky UKnowledge Entomology Faculty Publications Entomology 3-5-2014 The oldieS rs in Societies: Defense, Regulation, and Evolution Li Tian University of Kentucky, [email protected] Xuguo Zhou University of Kentucky, [email protected] Right click to open a feedback form in a new tab to let us know how this document benefits oy u. Follow this and additional works at: https://uknowledge.uky.edu/entomology_facpub Part of the Entomology Commons Repository Citation Tian, Li and Zhou, Xuguo, "The oS ldiers in Societies: Defense, Regulation, and Evolution" (2014). Entomology Faculty Publications. 70. https://uknowledge.uky.edu/entomology_facpub/70 This Article is brought to you for free and open access by the Entomology at UKnowledge. It has been accepted for inclusion in Entomology Faculty Publications by an authorized administrator of UKnowledge. For more information, please contact [email protected]. The Soldiers in Societies: Defense, Regulation, and Evolution Notes/Citation Information Published in International Journal of Biological Sciences, v. 10, no. 3, p. 296-308. © Ivyspring International Publisher. This is an open-access article distributed under the terms of the Creative Commons License (http://creativecommons.org/licenses/by-nc-nd/3.0/). Reproduction is permitted for personal, noncommercial use, provided that the article is in whole, unmodified, and properly cited. Digital Object Identifier (DOI) http://dx.doi.org/10.7150/ijbs.6847 This article is available at UKnowledge: https://uknowledge.uky.edu/entomology_facpub/70 Int. J. Biol. Sci. 2014, Vol. 10 296 Ivyspring International Publisher International Journal of Biological Sciences 2014; 10(3):296-308. doi: 10.7150/ijbs.6847 Review The Soldiers in Societies: Defense, Regulation, and Evolution Li Tian and Xuguo Zhou Department of Entomology, University of Kentucky, Lexington, KY 40546-0091, USA.
    [Show full text]
  • Running Commentaries: Defining Eusociality
    Ann. Zool. Fennici 42: 557 ISSN 0003-455X Helsinki 21 December 2005 © Finnish Zoological and Botanical Publishing Board 2005 Running Commentaries: Defining Eusociality Annales Zoologici Fennici has instituted several changes in recent years. While all are designed to provide the reader a better view of the field of zoology and its research innovations, several changes stand out amongst the others. We have expanded the number of issues each volume from four to six, have edited thematic special issues (e.g., Extinction Thresholds vol. 40(2) and Recognition Systems vol. 41(6)), and have published featured articles covering issues of importance to the field (e.g., Pigliucci 2002, Roff 2003, Frankham & Brook 2004). This issue contains another first for us — a run- ning commentary. Running commentaries are designed to share discussions on points of disagreement. In many ways these can serve as excellent springboards to a larger discussion on topics of interest. Certainly they share the philosophy behind disagreements in a way that is often unclear when stated within the confines of a single article. This issue contains a running commentary on the definition of eusociality (Costa & Fitzgerald 2005, Wisclo 2005, Crespi 2005, Lacey & Sherman 2005). This is a particularly apt discussion for our first running commentary as it addresses two issues of great significance: the general value of a uniform language and, specifically, a disagreement over how to define a social system that Darwin himself felt provided challenges to his theory of natural selec- tion (Darwin 1859). With respect to the former, this journal has recently stressed the importance of a unified language (e.g., see Starks 2004).
    [Show full text]
  • The Evolution of Eusociality
    Vol 466j26 August 2010jdoi:10.1038/nature09205 ANALYSIS The evolution of eusociality Martin A. Nowak1, Corina E. Tarnita1 & Edward O. Wilson2 Eusociality, in which some individuals reduce their own lifetime reproductive potential to raise the offspring of others, underlies the most advanced forms of social organization and the ecologically dominant role of social insects and humans. For the past four decades kin selection theory, based on the concept of inclusive fitness, has been the major theoretical attempt to explain the evolution of eusociality. Here we show the limitations of this approach. We argue that standard natural selection theory in the context of precise models of population structure represents a simpler and superior approach, allows the evaluation of multiple competing hypotheses, and provides an exact framework for interpreting empirical observations. or most of the past half century, much of sociobiological greater than two times the cost to the altruist (R 5 1/2) or eight times theory has focused on the phenomenon called eusociality, in the case of a first cousin (R 5 1/8). where adult members are divided into reproductive and (par- Due to its originality and seeming explanatory power, kin selection F tially) non-reproductive castes and the latter care for the came to be widely accepted as a cornerstone of sociobiological theory. young. How can genetically prescribed selfless behaviour arise by Yet it was not the concept itself in its abstract form that first earned natural selection, which is seemingly its antithesis? This problem favour, but the consequence suggested by Hamilton that came to has vexed biologists since Darwin, who in The Origin of Species be called the ‘‘haplodiploid hypothesis.’’ Haplodiploidy is the sex- declared the paradox—in particular displayed by ants—to be the determining mechanism in which fertilized eggs become females, and most important challenge to his theory.
    [Show full text]
  • Follow the Leader: the Social Influence of an Individual Within the Thermoregulatory Fanning Behavior in Honeybees (Apis Mellifera L.)
    FOLLOW THE LEADER: THE SOCIAL INFLUENCE OF AN INDIVIDUAL WITHIN THE THERMOREGULATORY FANNING BEHAVIOR IN HONEYBEES (APIS MELLIFERA L.) By Rachael E. Kaspar Department of Ecology and Evolutionary Biology University of Colorado Boulder Defense Date: March 11, 2016 Thesis Advisor: Dr. Michael Breed, Department of Ecology and Evolutionary Biology Thesis Committee: Dr. Pieter Johnson, Department of Ecology and Evolutionary Biology Dr. Michael Breed, Department of Ecology and Evolutionary Biology Dr. Ben Teitelbaum, Department of Germanic and Slavic Languages & Literatures TABLE OF CONTENTS Abstract 1 Background 2 Division of Labor 3 Response Thresholds 5 Thermoregulation 7 Thermoregulatory Fanning Behavior 9 Exploratory Studies 12 Follow the Leader Concept 13 Introduction 15 Research Questions & Hypotheses 18 Methods 18 Experimental Design 18 Group Size 20 Collection of Fanner and Nurse Bees 20 Behavioral Assays 21 Statistical Analysis 22 Results 24 Discussion 28 Conclusion 36 Acknowledgments 37 References 37 GRAPHS AND FIGURES Diagram 1 5 Figure 1 13 Figure 2 13 Diagram 2 22 Figure 3 24 Figure 4 25 Figure 5 26 Figure 6 27 Follow the Leader: The social influence of an individual within the thermoregulatory fanning behavior in honeybees (Apis mellifera L.) Abstract The survival of an animal society depends on individual interactions and how they influence the coordination of a group to respond to environmental changes. Coordinated responses to environmental changes are determined by the interactions between individuals within a particular group. Individuals that are especially influential can affect the behavioral response of other group members. Here, I tested a novel concept I call “Follow the Leader”, in which an individual influences other group members within the thermoregulatory fanning behavior in the western honeybee (Apis mellifera L.).
    [Show full text]
  • Molecular Ecology of Social Behaviour: Analyses of Breeding Systems and Genetic Structure
    MEC1191.fm Page 265 Thursday, February 8, 2001 4:49 PM Molecular Ecology (2001) 10, 265–284 INVITEDBlackwell Science, Ltd REVIEW Molecular ecology of social behaviour: analyses of breeding systems and genetic structure KENNETH G. ROSS Department of Entomology, University of Georgia, Athens, Georgia 30602–2603, USA Abstract Molecular genetic studies of group kin composition and local genetic structure in social organisms are becoming increasingly common. A conceptual and mathematical framework that links attributes of the breeding system to group composition and genetic structure is presented here, and recent empirical studies are reviewed in the context of this framework. Breeding system properties, including the number of breeders in a social group, their genetic relatedness, and skew in their parentage, determine group composition and the distribution of genetic variation within and between social units. This group genetic structure in turn influences the opportunities for conflict and cooperation to evolve within groups and for selection to occur among groups or clusters of groups. Thus, molecular studies of social groups provide the starting point for analyses of the selective forces involved in social evolution, as well as for analyses of other fundamental evolutionary problems related to sex allocation, reproductive skew, life history evolution, and the nature of selection in hierarchically struc- tured populations. The framework presented here provides a standard system for interpreting and integrating genetic and natural history data from social organisms for application to a broad range of evolutionary questions. Keywords: breeding systems, genetic structure, kin composition, relatedness, social behaviour, social insects Received 18 May 2000; revision received 20 September 2000; accepted 20 September 2000 genetic variation (Wade 1985; Ross & Keller 1995; Balloux Introduction et al.
    [Show full text]
  • Official Lists and Indexes of Names and Works in Zoology
    OFFICIAL LISTS AND INDEXES OF NAMES AND WORKS IN ZOOLOGY Supplement 1986-2000 Edited by J. D. D. SMITH Copyright International Trust for Zoological Nomenclature 2001 ISBN 0 85301 007 2 Published by The International Trust for Zoological Nomenclature c/o The Natural History Museum Cromwell Road London SW7 5BD U.K. on behalf of lICZtN] The International Commission on Zoological Nomenclature 2001 STATUS OF ENTRIES ON OFFICIAL LISTS AND INDEXES OFFICIAL LISTS The status of names, nomenclatural acts and works entered in an Official List is regulated by Article 80.6 of the International Code of Zoological Nomenclature. All names on Official Lists are available and they may be used as valid, subject to the provisions of the Code and to any conditions recorded in the relevant entries on the Official List or in the rulings recorded in the Opinions or Directions which relate to those entries. However, if a name on an Official List is given a different status by an adopted Part of the List of Available Names in Zoology the status in the latter is to be taken as correct (Article 80.8). A name or nomenclatural act occurring in a work entered in the Official List of Works Approved as Available for Zoological Nomenclature is subject to the provisions of the Code, and to any limitations which may have been imposed by the Commission on the use of that work in zoological nomenclature. OFFICIAL INDEXES The status of names, nomenclatural acts and works entered in an Official Index is regulated by Article 80.7 of the Code.
    [Show full text]