TB-PUL-112391 Bodianus Pulchellus - T.B

Total Page:16

File Type:pdf, Size:1020Kb

TB-PUL-112391 Bodianus Pulchellus - T.B T.B. - TANK BRED = RIPRODOTTO IN CATTIVITA N.B. L'ULTIMA CIFRA DEL CODICE INDICA LA TAGLIA (1 LA PIU PICCOLA A 6 CHE è XXL) Code Description Common name Stock TZ-FLA-100331 Zebrasoma flavescens - T.B. Yellow tang 5 TZ-FLA-100332 Zebrasoma flavescens - T.B. Yellow tang 200 TS-LIN-100912 Siganus lineatus - T.B. Golden Lined Rabbitfish 1 TC-CEP-101352 Chaetodontoplus cephalareticulatus - T.B. Maze angelfish 1 TC-CON-101351 Chaetodontoplus conspicillatus - T.B. Conspicuous angelfish 4 TC-DUB-101372 Chaetodontoplus duboulayi - T.B. Scribbled angelfish 28 TC-PER-101422 Chaetodontoplus personifer - T.B. Blueface angelfish 6 TC-SXP-101592 Chaetodontoplus septentrionalis X Black Phantom - T.B. Hybrid angelfish 3 TG-PER-101881 Genicanthus personatus - T.B. Masked angelfish 1 TP-ZON-101853 Pomacanthus zonipectus - T.B. Cortez angelfish 3 TH-ABD-107022 Hippocampus abdominalis - T.B. (Temperate water) Big belly seahorse 186 TH-ABD-107024 Hippocampus abdominalis (pair) - T.B. (Temperate water) Big belly seahorse 5 TH-REI-106012 Hippocampus reidi - T.B. Long-snout Seahorse 81 TH-RYW-106031 Hippocampus reidi (Yellowish) - T.B. Long-snout Seahorse 13 TP-EQU-106032 Phycodurus eques - T.B. Leafy Seadragon 4 TP-TAE-106012 Phyllopteryx taeniolatus - T.B. Common seadragon 6 TM-SPL-107302 Manonichthys splendens - T.B. Thread-finned dottyback 7 TP-ELO-107052 Pseudochromis elongatus - T.B. Red elongated dottyback 3 TP-SAN-107282 Pseudochromis sankeyi - T.B. Striped dottyback 3 TS-NEM-110012 Sphaeramia nematoptera - T.B. Pajama cardinalfish 311 TB-PUL-112391 Bodianus pulchellus - T.B. Spot fin hogfish 3 TM-KAM-116142 Meiacanthus kamoharai - T.B. 1 DJM-117140 Amphiprion frenatus - DJM Bred Tomato clownfish 494 DJM-117141 Amphiprion frenatus - DJM Bred Tomato clownfish 384 DJM-117142 Amphiprion frenatus - DJM Bred Tomato clownfish 132 DJM-117143 Amphiprion frenatus - DJM Bred Tomato clownfish 100 DJM-117250 Amphiprion ocellaris darwini - DJM Bred Black clownfish 88 DJM-117251 Amphiprion ocellaris darwini - DJM Bred Black clownfish 111 DJM-117252 Amphiprion ocellaris darwini - DJM Bred Black clownfish 338 DJM-117271 Amphiprion percula - DJM Bred Percula clownfish 4 TA-BIC-117062 Amphiprion bicinctus - T.B. Twoband anemonefish 13 TA-CLA-117092 Amphiprion clarkii (Australia) - T.B. Yellowtail clownfish 12 TA-CLI-116992 Amphiprion clarkii (Indian) - T.B. Yellowtail clownfish 13 TA-CLP-117082 Amphiprion clarkii (pearl eye) - T.B. Yellowtail clownfish 7 TA-CYD-118172 Amphiprion clarkii yellow deluxe - T.B. Yellowtail clownfish 3 TA-EPH-117121 Amphiprion ephippium - T.B. Saddle anemonefish 18 TA-FRO-117212 Amphiprion ocellaris frostbite chilled (pair) - T.B. Frostbite clownfish 2 TA-HEL-116001 Amphiprion percula helmet picasso - T.B. Helmet clownfish 1 TA-HEL-116002 Amphiprion percula helmet picasso (pair) - T.B. Helmet clownfish 2 TA-MCC-117192 Amphiprion mccullochi - T.B. Mcculoch's anemonefish 4 TA-MLG-118112 Amphiprion ocellaris midnight lightning (pair) - T.B. midnight lightning clownfish 1 TA-MOC-117222 Amphiprion ocellaris mocha - T.B. Mocha clownfish 47 TA-NEB-115011 Amphiprion percula nebula - T.B. Nebula clownfish 1 TA-OCE-117242 Amphiprion ocellaris - T.B. Common clownfish 856 TA-OCE-117243 Amphiprion ocellaris - T.B. Common clownfish 817 TA-OPS-117832 Amphiprion ocellaris platinum storm (pair) - T.B. Platinum storm clownfish 5 TA-PER-117273 Amphiprion percula - T.B. Percula clownfish 88 TA-PER-117291 Amphiprion perideraion - T.B. Skunk clownfish 24 TA-PIC-116071 Amphiprion percula picasso - T.B. Picasso clownfish 1 TA-PIC-116072 Amphiprion percula picasso (pair) - T.B. Picasso clownfish 1 TA-PLB-118272 Amphiprion polymnus (Black) - T.B. Saddleback clownfish (Black variation) 11 TA-POL-117302 Amphiprion polymnus - T.B. Saddleback clownfish 6 TA-PON-116082 Amphiprion percula onyx (pair) - T.B. Onyx clownfish 4 TA-PPI-116061 Amphiprion percula premium picasso - T.B. Premium picasso clownfish 2 TA-SNO-117042 Amphiprion ocellaris snowflake (pair) - T.B. Snowflake clownfish 4 TA-VIV-116092 Amphiprion ocellaris vivid fancy - T.B. Vivid fancy clownfish 15 TP-BIA-117381 Premnas biaculeatus - T.B. Spinecheek anemonefish 2 TP-BIA-117382 Premnas biaculeatus - T.B. Spinecheek anemonefish 41 TP-EPI-117593 Premnas epigramma - T.B. Gold stripe maroon clownfish 24 TP-GON-117362 Premnas biaculeatus Gold nugget (pair) - T.B. Gold nugget maroon clownfish 3 TP-LIG-117371 Premnas biaculeatus Lightning maroon clownfish - T.B. Lightning maroon clownfish 1 TP-OBO-117603 Premnas X ocellaris (Hybrid) blood orange (pair) - T.B. maroon hybrid 1 TP-PGD-117652 Premnas epigramma Gold dot - T.B. Gold stripe maroon clownfish 1 TR-ERC-122592 Rudarius ercodes - T.B. Whitespotted pygmy filefish 2 TA-VIR-127011 Anisotremus virginicus - T.B. Porkfish 159 TS-SPI-128212 Symphorichthys spilurus - T.B. Sailfin snapper 22 TS-SPI-128213 Symphorichthys spilurus - T.B. Sailfin snapper 6 TP-ORB-131032 Platax orbicularis - T.B. Orbicular batfish 25 TP-ORB-131033 Platax orbicularis - T.B. Orbicular batfish 127 TP-ORB-131034 Platax orbicularis - T.B. Orbicular batfish 11 TS-VOM-138002 Selene vomer - T.B. Lookdown 109 TS-VOM-138003 Selene vomer - T.B. Lookdown 5 TT-CAR-131202 Trachinotus carolinus - T.B. Florida pompano 6 TT-GOO-131193 Trachinotus goodei - T.B. Great pompano 20 TA-SEM-135682 Asterropteryx semipunctata - T.B. Starry goby 4 TC-CIN-135482 Cryptocentrus cinctus - T.B. Yellow prawn-goby 4 TE-EVE-136261 Elacatinus evelynae - T.B. Shraknose goby 14 TE-OCE-136242 Elacatinus oceanops - T.B. Neon goby 42 TT-CAE-136561 Trimma cf. caesiura - T.B. White Spotted Dwarf Goby 3 TL-WUR-140071 Lysmata wurdemanni - T.B. Peppermint shrimp 109 AA-AUR-000052 Acanthurus auranticavus Orange-socket surgeonfish 1 AA-CHI-000235 Acanthurus chirurgus Black doctorfish 1 AA-FOW-000323 Acanthurus fowleri Fowler's surgeonfish 5 AA-LCH-000152 Acanthurus leucocheilus White-lipped surgeonfish 2 AA-LEU-000142 Acanthurus leucosternon Powder blue surgeonfish 26 AA-LEU-000143 Acanthurus leucosternon Powder blue surgeonfish 10 AA-LEU-000144 Acanthurus leucosternon Powder blue surgeonfish 2 AA-LIN-000161 Acanthurus lineatus Lined surgeonfish 9 AA-LIN-000162 Acanthurus lineatus Lined surgeonfish 4 AA-MAC-000181 Acanthurus maculiceps White-freckled surgeonfish 3 AA-MAT-000173 Acanthurus mata Elongate surgeonfish 1 AA-NGC-000211 Acanthurus nigricauda Epaulette surgeonfish 1 AA-NGC-000212 Acanthurus nigricauda Epaulette surgeonfish 2 AA-NGC-000213 Acanthurus nigricauda Epaulette surgeonfish 3 AA-NGC-000214 Acanthurus nigricauda Epaulette surgeonfish 1 AA-NGF-000222 Acanthurus nigrofuscus Brown surgeonfish 1 AA-OLI-000255 Acanthurus olivaceus Orangespot surgeonfish 2 AA-SOH-000282 Acanthurus sohal Sohal surgeonfish 5 AA-SOH-000283 Acanthurus sohal Sohal surgeonfish 36 AA-SOH-000284 Acanthurus sohal Sohal surgeonfish 4 AA-TEN-000291 Acanthurus tennentii Doubleband surgeonfish 7 AA-TEN-000292 Acanthurus tennentii Doubleband surgeonfish 12 AA-THO-000303 Acanthurus thompsoni Thompson's surgeonfish 1 AA-TRI-000312 Acanthurus triostegus Convict surgeonfish 26 AC-BIN-000411 Ctenochaetus binotatus Blue-eyed Bristletooth 10 AC-BIN-000412 Ctenochaetus binotatus Blue-eyed Bristletooth 13 AC-BIN-000413 Ctenochaetus binotatus Blue-eyed Bristletooth 6 AC-STR-000441 Ctenochaetus striatus Linned Bristletooth 3 AC-STR-000442 Ctenochaetus striatus Linned Bristletooth 1 AC-TOM-000461 Ctenochaetus tominiensis Tomini Bristletooth 9 AC-TOM-000462 Ctenochaetus tominiensis Tomini Bristletooth 10 AC-TRU-000433 Ctenochaetus truncatus Truncate Bristletooth 1 AN-BRE-000511 Naso brevirostris Longnose unicornfish 10 AN-BRE-000513 Naso brevirostris Longnose unicornfish 10 AN-BRE-000514 Naso brevirostris Longnose unicornfish 5 AN-ELE-000481 Naso elegans Elegant unicornfish 50 AN-ELE-000482 Naso elegans Elegant unicornfish 20 AN-ELE-000484 Naso elegans Elegant unicornfish 1 AN-ELE-000485 Naso elegans Elegant unicornfish 1 AN-HEX-000534 Naso hexacanthus Sleek unicornfish 1 AN-UNI-000525 Naso unicornis Bluespine unicornfish 4 AN-VLA-000502 Naso vlamingii Bignose unicornfish 5 AN-VLA-000503 Naso vlamingii Bignose unicornfish 5 AN-VLA-000504 Naso vlamingii Bignose unicornfish 2 AN-VLA-000505 Naso vlamingii Bignose unicornfish 2 AP-HEP-000572 Paracanthurus hepatus Blue tang (4-5cm) 10 AP-HEP-000573 Paracanthurus hepatus Blue tang (6-8cm) 298 AP-HPY-000583 Paracanthurus hepatus (yellow belly) Yellow belly Blue tang 1 AP-HPY-000584 Paracanthurus hepatus (yellow belly) Yellow belly Blue tang 53 AP-HPY-000585 Paracanthurus hepatus (yellow belly) Yellow belly Blue tang 35 AP-LAT-000543 Prionurus laticlavius Razor surgeonfish 1 AP-LAT-000544 Prionurus laticlavius Razor surgeonfish 4 AZ-DES-000402 Zebrasoma desjardinii Desjardin's sailfin tang 5 AZ-DES-000403 Zebrasoma desjardinii Desjardin's sailfin tang 14 AZ-DES-000404 Zebrasoma desjardinii Desjardin's sailfin tang 2 AZ-SCO-000361 Zebrasoma scopas Brown tang 10 AZ-SCO-000362 Zebrasoma scopas Brown tang 5 AZ-SCO-000363 Zebrasoma scopas Brown tang 3 SS-GUT-000661 Siganus guttatus Orange - spotted spinefoot 6 SS-GUT-000663 Siganus guttatus Orange - spotted spinefoot 4 SS-GUT-000664 Siganus guttatus Orange - spotted spinefoot 2 SS-MAG-000643 Siganus magnificus Magnificent rabbitfish 13 SS-PUE-000671 Siganus puellus Masked spinefoot 2 SS-PUN-000714 Siganus punctatus Goldspotted spinefoot 3 SS-SPI-000722 Siganus spinus Little spinefoot 1 SS-STE-000762 Siganus stellatus Brown-spotted spinefoot 20 SS-VIR-000681 Siganus virgatus Barhead spinefoot 8 SS-VIR-000683 Siganus virgatus Barhead spinefoot 7 PA-GRI-001523 Apolemichthys
Recommended publications
  • Fluorescence Characterisation and Visual Ecology of Pseudocheilinid Wrasses Tobias Gerlach1*, Jennifer Theobald1, Nathan S
    Gerlach et al. Frontiers in Zoology (2016) 13:13 DOI 10.1186/s12983-016-0145-1 RESEARCH Open Access Fluorescence characterisation and visual ecology of pseudocheilinid wrasses Tobias Gerlach1*, Jennifer Theobald1, Nathan S. Hart2, Shaun P. Collin2 and Nico K. Michiels1 Abstract Background: Wrasses represent the second largest family of marine fishes and display a high diversity of complex colours linked to ecological functions. Recently, red autofluorescent body colouration has been reported in some of these fishes. However, little is known about the distribution of such fluorescent body patterns in wrasses or the animals’ ability to perceive such colours. Results: Against this background, we (1) investigated long-wavelength emission autofluorescence in thirteen species of pseudocheilinid wrasses and (2) characterised the spectral absorbance of visual pigments in one of the examined species, the fairy wrasse Cirrhilabrus solorensis. Spectrophotometric analysis revealed that fluorescent body colouration is widespread and diverse within this clade, with considerable variation in both fluorescent pattern and maximum emission wavelength between species. Characterisation of visual pigments in retinal photoreceptors showed a single class of rod and three spectrally distinct cone photoreceptors, suggesting possible trichromacy. Conclusion: Combining the emission characteristics of fluorescence body colouration and the spectral sensitivity data of retinal cells suggests that the visual system of C. solorensis is sensitive to pseudocheilinid fluorescence. Keywords: Red fluorescence, Photoluminescence, Microspectrophotometry, Colour vision, Labridae Background wavelength (>600 nm) part of downwelling sunlight is Wrasses (Labridae) represent the second largest marine quickly absorbed by sea water, which is most transparent fish family, containing more than 600 species within 82 to blue light of wavelengths at around 480 nm [15–17].
    [Show full text]
  • Wrasse Infograph-Lores-F
    WRASSES Are wrasses endangered? Some species, such as the humphead wrasse, are listed as endangered due to over-shing and destruction of coral reefs where they live. Humphead wrasse How long do Cheilinus undulatus wrasses live? Wrasses are marine shes that belong to the Labridae family. Humphead wrasses can survive three to 30 years, most species live There are more than 500 species of wrasses that can be found from three to ve years. in tropical and subtropical waters of the Indian, Pacic and Atlantic oceans. Wrasses inhabit coastal areas, rocky shores, Fascinating fact: Wrasses are born female are able change sex coral reefs, tide pools and the sandy sea oor. to male during their lifetime. This is usually driven by the loss of the dominant male, allowing the largest (formerly) female to then Wrasse species common to the tropical Pacific take control of the harem. Blackstripe coris wrasse Coris avovittata Bluestreak cleaner wrasse What do Labroides dimidiatus Birdnose wrasse Gomphosus varius wrasses eat? Wrasses are carnivores. Their diets are based on small invertebrates (crabs, shrimp, mollusks, snails and Christmas wrasse Thalassoma trilobatum sea urchins) and sh. Occasionally they follow large marine predators and collect leftovers of their meals. Cleaner wrasses collect and eat Pink asher wrasse dead tissue and parasites Ornate wrasse Paracheilinus carpenteri Halichoeres ornatissimus accumulated in the mouths of large Psychedelic wrasse Anampses chrysocephalus marine sh. Who are wrasse predators? Saddle wrasse Thalassoma duperrey Natural enemies of wrasses are Rockmover wrasse Novaculichthys taeniourus lionsh, barracudas and sharks. Some Sixline wrasse wrasses can bury themselves in the Pseudocheilinus hexataenia sand or quickly swim away, thanks to well-developed pectoral and caudal ns, to escape from predators.
    [Show full text]
  • ABSTRACT MORRIS, JAMES ADIEL, JR. The
    ABSTRACT MORRIS, JAMES ADIEL, JR. The Biology and Ecology of the Invasive Indo-Pacific Lionfish. (Under the direction of James A. Rice and John J. Govoni.) The Indo-Pacific lionfishes, Pterois miles and P. volitans, are now established along the Southeast U.S. and Caribbean and are expected to expand into the Gulf of Mexico and South America. Prior to this invasion little was known regarding the biology and ecology of these lionfishes. I provide a synopsis of lionfish biology and ecology including: invasion chronology, taxonomy, local abundance, reproduction, early life history and dispersal, venomology, feeding ecology, parasitology, potential impacts, and control and management. This information was collected by review of the literature and by direct field and experimental study. I confirm the existence of an unusual supraocular tentacle phenotype and suggest that the high prevalence of this phenotype in the Atlantic is not the result of selection, but likely ontogenetic change. To characterize the trophic impacts of lionfish, I report a comprehensive assessment of diet that describes lionfish as a generalist piscivore that preys on over 40 species of teleost comprising more than 20 families. Next, I use the histology of gonads to describe both oogenesis and reproductive dynamics of lionfish. Lionfish females mature at approximately 170 mm total length and reproduce several times per month throughout the entire calendar year off North Carolina and the Bahamas. To investigate predation, an important component of natural mortality, I assessed the vulnerability of juvenile lionfish to predation by native serranids. Juvenile lionfish were largely avoided as prey suggesting that predation mortality by serranids will not likely be a significant source of mortality for lionfish populations.
    [Show full text]
  • Findings and Recommendations of Effectiveness of the West Hawai'i Regional Fishery Management Area (WHRFMA)
    Report to the Thirtieth Legislature 2020 Regular Session Findings and Recommendations of Effectiveness of the West Hawai'i Regional Fishery Management Area (WHRFMA) Prepared by: Department of Land and Natural Resources Division of Aquatic Resources State of Hawai'i In response to Section 188F-5, Hawaiʹi Revised Statutes November 2019 Findings and Recommendations of Effectiveness of the West Hawai'i Regional Fishery Management Area (WHRFMA) CORRESPONDING AUTHOR William J. Walsh Ph.D., Hawai′i Division of Aquatic Resources CONTRIBUTING AUTHORS Stephen Cotton, M.S., Hawai′i Division of Aquatic Resources Laura Jackson, B. S., Hawai′i Division of Aquatic Resources Lindsey Kramer, M.S., Hawai′i Division of Aquatic Resources, Pacific Cooperative Studies Unit Megan Lamson, M.S., Hawai′i Division of Aquatic Resources, Pacific Cooperative Studies Unit Stacia Marcoux, M.S., Hawai′i Division of Aquatic Resources, Pacific Cooperative Studies Unit Ross Martin B.S., Hawai′i Division of Aquatic Resources, Pacific Cooperative Studies Unit Nikki Sanderlin. B.S., Hawai′i Division of Aquatic Resources ii PURPOSE OF THIS REPORT This report, which covers the period between 2015 - 2019, is submitted in compliance with Act 306, Session Laws of Hawai′i (SLH) 1998, and subsequently codified into law as Chapter 188F, Hawaiʹi Revised Statutes (HRS) - West Hawai'i Regional Fishery Management Area. Section 188F-5, HRS, requires a review of the effectiveness of the West Hawai′i Regional Fishery Management Area shall be conducted every five years by the Department of Land and Natural Resources (DLNR), in cooperation with the University of Hawai′i (Section 188F-5 HRS). iii CONTENTS PURPOSE OF THIS REPORT .................................................................................................
    [Show full text]
  • Poisoned Waters
    POISONED WATERS How Cyanide Fishing and the Aquarium Trade Are Devastating Coral Reefs and Tropical Fish Center for Biological Diversity For the Fishes June 2016 Royal blue tang fish / H. Krisp Executive Summary mollusks, and other invertebrates are killed in the vicinity of the cyanide that’s squirted on the reefs to he release of Disney/Pixar’s Finding Dory stun fish so they can be captured for the pet trade. An is likely to fuel a rapid increase in sales of estimated square meter of corals dies for each fish Ttropical reef fish, including royal blue tangs, captured using cyanide.” the stars of this widely promoted new film. It is also Reef poisoning and destruction are expected to likely to drive a destructive increase in the illegal use become more severe and widespread following of cyanide to catch aquarium fish. Finding Dory. Previous movies such as Finding Nemo The problem is already widespread: A new Center and 101 Dalmatians triggered a demonstrable increase for Biological Diversity analysis finds that, on in consumer purchases of animals featured in those average, 6 million tropical marine fish imported films (orange clownfish and Dalmatians respectively). into the United States each year have been exposed In this report we detail the status of cyanide fishing to cyanide poisoning in places like the Philippines for the saltwater aquarium industry and its existing and Indonesia. An additional 14 million fish likely impacts on fish, coral and other reef inhabitants. We died after being poisoned in order to bring those also provide a series of recommendations, including 6 million fish to market, and even the survivors reiterating a call to the National Marine Fisheries are likely to die early because of their exposure to Service, U.S.
    [Show full text]
  • Reef Fishes of the Bird's Head Peninsula, West
    Check List 5(3): 587–628, 2009. ISSN: 1809-127X LISTS OF SPECIES Reef fishes of the Bird’s Head Peninsula, West Papua, Indonesia Gerald R. Allen 1 Mark V. Erdmann 2 1 Department of Aquatic Zoology, Western Australian Museum. Locked Bag 49, Welshpool DC, Perth, Western Australia 6986. E-mail: [email protected] 2 Conservation International Indonesia Marine Program. Jl. Dr. Muwardi No. 17, Renon, Denpasar 80235 Indonesia. Abstract A checklist of shallow (to 60 m depth) reef fishes is provided for the Bird’s Head Peninsula region of West Papua, Indonesia. The area, which occupies the extreme western end of New Guinea, contains the world’s most diverse assemblage of coral reef fishes. The current checklist, which includes both historical records and recent survey results, includes 1,511 species in 451 genera and 111 families. Respective species totals for the three main coral reef areas – Raja Ampat Islands, Fakfak-Kaimana coast, and Cenderawasih Bay – are 1320, 995, and 877. In addition to its extraordinary species diversity, the region exhibits a remarkable level of endemism considering its relatively small area. A total of 26 species in 14 families are currently considered to be confined to the region. Introduction and finally a complex geologic past highlighted The region consisting of eastern Indonesia, East by shifting island arcs, oceanic plate collisions, Timor, Sabah, Philippines, Papua New Guinea, and widely fluctuating sea levels (Polhemus and the Solomon Islands is the global centre of 2007). reef fish diversity (Allen 2008). Approximately 2,460 species or 60 percent of the entire reef fish The Bird’s Head Peninsula and surrounding fauna of the Indo-West Pacific inhabits this waters has attracted the attention of naturalists and region, which is commonly referred to as the scientists ever since it was first visited by Coral Triangle (CT).
    [Show full text]
  • One Smart Fish Free
    FREE ONE SMART FISH PDF Christopher Wormell | 32 pages | 06 Jan 2011 | Random House Children's Publishers UK | 9781862306523 | English | London, United Kingdom One Smart Fish by Chris Wormell Hardcover | eBay Now a day people who Living in the era exactly where everything reachable by interact with the internet and the resources inside can be true or not require people to be aware of each information they get. How a lot more to be smart in One Smart Fish any information nowadays? Of course the solution is reading a book. Looking at a book can help folks out of this uncertainty Information particularly this One Smart Fish Smart Fish Rookie Reader Rhyme book as this book offers you rich info and knowledge. Of course the details in this book hundred percent guarantees there is no doubt in it you may already know. You can get a lot of help after read this book. This specific book exist new know-how the information that exist in this reserve represented the condition of the world now. That is important to yo7u to find out how the improvement of the world. This kind of book will bring you throughout new era of the globalization. You can read the e-book on your own smart phone, so you can read that anywhere you want. A lot of people always spent their free time to vacation One Smart Fish well as go to the outside with them loved ones or their friend. Did you know? Many a lot of people spent these people free One Smart Fish just watching TV, or even playing video games all day long.
    [Show full text]
  • Giant Pacific Octopus (Enteroctopus Dofleini) Care Manual
    Giant Pacific Octopus Insert Photo within this space (Enteroctopus dofleini) Care Manual CREATED BY AZA Aquatic Invertebrate Taxonomic Advisory Group IN ASSOCIATION WITH AZA Animal Welfare Committee Giant Pacific Octopus (Enteroctopus dofleini) Care Manual Giant Pacific Octopus (Enteroctopus dofleini) Care Manual Published by the Association of Zoos and Aquariums in association with the AZA Animal Welfare Committee Formal Citation: AZA Aquatic Invertebrate Taxon Advisory Group (AITAG) (2014). Giant Pacific Octopus (Enteroctopus dofleini) Care Manual. Association of Zoos and Aquariums, Silver Spring, MD. Original Completion Date: September 2014 Dedication: This work is dedicated to the memory of Roland C. Anderson, who passed away suddenly before its completion. No one person is more responsible for advancing and elevating the state of husbandry of this species, and we hope his lifelong body of work will inspire the next generation of aquarists towards the same ideals. Authors and Significant Contributors: Barrett L. Christie, The Dallas Zoo and Children’s Aquarium at Fair Park, AITAG Steering Committee Alan Peters, Smithsonian Institution, National Zoological Park, AITAG Steering Committee Gregory J. Barord, City University of New York, AITAG Advisor Mark J. Rehling, Cleveland Metroparks Zoo Roland C. Anderson, PhD Reviewers: Mike Brittsan, Columbus Zoo and Aquarium Paula Carlson, Dallas World Aquarium Marie Collins, Sea Life Aquarium Carlsbad David DeNardo, New York Aquarium Joshua Frey Sr., Downtown Aquarium Houston Jay Hemdal, Toledo
    [Show full text]
  • Recruitment in Anemonefishes
    Interspecific, Spatial and Temporal Variability of Self- Recruitment in Anemonefishes Hawis H. Madduppa1*, Janne Timm2, Marc Kochzius3 1 Marine Science and Technology, Faculty of Fisheries and Marine Science, Bogor Agricultural University (IPB), Bogor, Indonesia, 2 Biotechnology and Molecular Genetics, University of Bremen, Bremen, Germany, 3 Marine Biology, Vrije Universiteit Brussel, Brussels, Belgium Abstract Polymorphic microsatellite DNA parentage analysis was used to investigate the spatio-temporal variability of self- recruitment in populations of two anemonefishes: Amphiprion ocellaris and A. perideraion. Tissue samples of A. ocellaris (n = 364) and A. perideraion (n = 105) were collected from fringing reefs around two small islands (Barrang Lompo and Samalona) in Spermonde Archipelago, Indonesia. Specimens were genotyped based on seven microsatellite loci for A. ocellaris and five microsatellite loci for A. perideraion, and parentage assignment as well as site fidelity were calculated. Both species showed high levels of self-recruitment: 65.2% of juvenile A. ocellaris in Samalona were the progeny of parents from the same island, while on Barrang Lompo 47.4% of A. ocellaris and 46.9% of A. perideraion juveniles had parents from that island. Self-recruitment of A. ocellaris in Barrang Lompo varied from 44% to 52% between the two sampling periods. The site fidelity of A. ocellaris juveniles that returned to their reef site in Barang Lompo was up to 44%, while for A. perideraion up to 19%. In Samalona, the percentage of juveniles that returned to their natal reef site ranged from 8% to 11%. Exchange of progeny between the two study islands, located 7.5 km apart, was also detected via parentage assignments.
    [Show full text]
  • Defensive Behaviors of Deep-Sea Squids: Ink Release, Body Patterning, and Arm Autotomy
    Defensive Behaviors of Deep-sea Squids: Ink Release, Body Patterning, and Arm Autotomy by Stephanie Lynn Bush A dissertation submitted in partial satisfaction of the requirements for the degree of Doctor of Philosophy in Integrative Biology in the Graduate Division of the University of California, Berkeley Committee in Charge: Professor Roy L. Caldwell, Chair Professor David R. Lindberg Professor George K. Roderick Dr. Bruce H. Robison Fall, 2009 Defensive Behaviors of Deep-sea Squids: Ink Release, Body Patterning, and Arm Autotomy © 2009 by Stephanie Lynn Bush ABSTRACT Defensive Behaviors of Deep-sea Squids: Ink Release, Body Patterning, and Arm Autotomy by Stephanie Lynn Bush Doctor of Philosophy in Integrative Biology University of California, Berkeley Professor Roy L. Caldwell, Chair The deep sea is the largest habitat on Earth and holds the majority of its’ animal biomass. Due to the limitations of observing, capturing and studying these diverse and numerous organisms, little is known about them. The majority of deep-sea species are known only from net-caught specimens, therefore behavioral ecology and functional morphology were assumed. The advent of human operated vehicles (HOVs) and remotely operated vehicles (ROVs) have allowed scientists to make one-of-a-kind observations and test hypotheses about deep-sea organismal biology. Cephalopods are large, soft-bodied molluscs whose defenses center on crypsis. Individuals can rapidly change coloration (for background matching, mimicry, and disruptive coloration), skin texture, body postures, locomotion, and release ink to avoid recognition as prey or escape when camouflage fails. Squids, octopuses, and cuttlefishes rely on these visual defenses in shallow-water environments, but deep-sea cephalopods were thought to perform only a limited number of these behaviors because of their extremely low light surroundings.
    [Show full text]
  • The Global Trade in Marine Ornamental Species
    From Ocean to Aquarium The global trade in marine ornamental species Colette Wabnitz, Michelle Taylor, Edmund Green and Tries Razak From Ocean to Aquarium The global trade in marine ornamental species Colette Wabnitz, Michelle Taylor, Edmund Green and Tries Razak ACKNOWLEDGEMENTS UNEP World Conservation This report would not have been The authors would like to thank Helen Monitoring Centre possible without the participation of Corrigan for her help with the analyses 219 Huntingdon Road many colleagues from the Marine of CITES data, and Sarah Ferriss for Cambridge CB3 0DL, UK Aquarium Council, particularly assisting in assembling information Tel: +44 (0) 1223 277314 Aquilino A. Alvarez, Paul Holthus and and analysing Annex D and GMAD data Fax: +44 (0) 1223 277136 Peter Scott, and all trading companies on Hippocampus spp. We are grateful E-mail: [email protected] who made data available to us for to Neville Ash for reviewing and editing Website: www.unep-wcmc.org inclusion into GMAD. The kind earlier versions of the manuscript. Director: Mark Collins assistance of Akbar, John Brandt, Thanks also for additional John Caldwell, Lucy Conway, Emily comments to Katharina Fabricius, THE UNEP WORLD CONSERVATION Corcoran, Keith Davenport, John Daphné Fautin, Bert Hoeksema, Caroline MONITORING CENTRE is the biodiversity Dawes, MM Faugère et Gavand, Cédric Raymakers and Charles Veron; for assessment and policy implemen- Genevois, Thomas Jung, Peter Karn, providing reprints, to Alan Friedlander, tation arm of the United Nations Firoze Nathani, Manfred Menzel, Julie Hawkins, Sherry Larkin and Tom Environment Programme (UNEP), the Davide di Mohtarami, Edward Molou, Ogawa; and for providing the picture on world’s foremost intergovernmental environmental organization.
    [Show full text]
  • Seed Production and Culture of Marine Ornamental Fishes G
    Course Manual Seed Production and Culture of Marine Ornamental Fishes G. Gopakumar, A. K. Abdul Nazar and R. Jayakumar Mandapam Regional Centre of CMFRI Mandapam Camp - 623 520, Tamil Nadu, India Introduction The marine ornamental fish trade has been expanding in recent years and has grown into a multimillion dollar enterprise. The ornamental animals are the highest valued products that are mostly harvested from coral reef environments. The global marine ornamental trade is estimated at US$ 200-330 million. The trade is operated throughout the tropics. Philippines, Indonesia, Solomon Islands, Sri Lanka, Australia, Fiji, Maldives and Palau supplied more than 98% of the total number of marine ornamental fish exported in recent years. It is a multi-stakeholder industry ranging from specimen collectors, culturists, wholesalers, transhippers, retailers, and hobbyists to researchers, government resource managers and conservators and hence involves a series of issues to be addressed and policies to be formulated for developing and expanding a sustainable trade. It is well understood that a long term sustainable trade of marine ornamental fishes can be developed only through the development and commercialization of hatchery production technologies for the species which are in high demand in the trade. Global scenario In recent years it has been reported that nearly 1500 species of marine ornamental fishes are traded globally and most of these are associated with coral reefs. Nearly 98% of the marine ornamental fishes marketed are wild collected from coral reefs of tropical countries. Among the most commercially traded families of reef fishes, family Pomacentridae dominate, accounting for nearly 43% of all fish traded.
    [Show full text]