The Future for Flipper Banding African Penguins: Discussion, Recommendations and Guidelines
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African Penguin Colony
An Innovative and Inspiring Space for a Growing African Penguin Colony enguins are among the most iconic and beloved avian groups, and the PCincinnati Zoo & Botanical Garden is embarking on an opportunity to further their engagement in care and conservation of African Penguins. This species in particular is endangered in their native range and requires the collective focus of zoos, aquariums, and other conservation organizations to ensure its survival into the future. The Cincinnati Zoo is seeking to construct a new habitat space for African Penguins that will allow for our colony to grow from 11 birds to 30+, which will contribute immensely to ex-situ conservation efforts, not to mention inspiring our visitors to care more about the species’ plight. A brand new habitat offers the opportunity to dream and innovate and truly bring the best experience to its animal residents. The new African Penguin habitat at the Cincinnati Zoo will be three times larger than the current space and offer a variety of new habitat feature to maximize their welfare, including: a dynamic pool area to encourage natural swimming behavior and exercise, natural substrates to dig into and to promote improved foot health, outdoor heating and cooling so that penguins can stay outside longer in the year, and a dramatically larger indoor bedroom area with a pool and UV-transmitting skylights to ensure health and comfort during our Cincinnati winter. African Penguin reproduction will be a key goal of this new habitat, and the new habitat and bedroom area will offer the opportunity to expand our nesting sites and maximize successful rearing of chicks. -
Colour Aberrations in African Penguins 19 COLOUR ABERRATIONS in AFRICAN PENGUINS SPHENISCUS DEMERSUS
Traisnel et al.: Colour aberrations in African Penguins 19 COLOUR ABERRATIONS IN AFRICAN PENGUINS SPHENISCUS DEMERSUS GWENDOLINE TRAISNEL1, LORIEN PICHEGRU1, HENVIK J. VISSER2 & LLOYD C. EDWARDS3 1 DST-NRF Centre of Excellence at the Percy FitzPatrick Institute of African Ornithology, Institute for Coastal and Marine Research and Department of Zoology at the Nelson Mandela University, Port Elizabeth, South Africa ([email protected]) 2 Addo Elephant Marine Section, South African National Parks, Port Elizabeth, South Africa 3 Raggy Charters, Port Elizabeth, South Africa Received 31 July 2017, accepted 3 October 2017 ABSTRACT TRAISNEL, G., PICHEGRU, L., VISSER, H.J. & EDWARDS, L.C. 2018. Colour aberrations in African Penguins Spheniscus demersus. Marine Ornithology 46: 19–22. Colour aberrations among wild birds are of long-time interest because they are uncommon, particularly in seabirds, although recent publications have revealed varying forms of aberrations in cormorants and penguins. In African Penguins Spheniscus demersus, there have been previous sightings of abnormal plumages, particularly in Algoa Bay, South Africa. This paper reveals new cases of plumage aberrations in African Penguins: leucism, “brown,” and phaeomelanism, all within Algoa Bay. While all aberrations seemed of natural origin, one in the shape of a number eight may have resulted from human actions. Key words: African Penguin, abnormal plumages, Algoa Bay, leucism, phaeomelanism, “brown” INTRODUCTION but also an effort on the part of the scientific community to report these rare observations. For example, albinism has been recently Production of melanin pigments eumelanin and phaeomelanin recorded in shags and cormorants (Cook et al. 2012, Crossland can be subject to alterations, both of heritable and non-heritable 2012), as has isabel (incorrect term, as the mutation involved was origin, resulting in abnormalities in plumage colour (van Grouw “brown”) (Oosthuizen & De Bruyn, 2009) and ino (Juàres et al. -
A Global Population Assessment of the Chinstrap Penguin (Pygoscelis
www.nature.com/scientificreports OPEN A global population assessment of the Chinstrap penguin (Pygoscelis antarctica) Noah Strycker1*, Michael Wethington2, Alex Borowicz2, Steve Forrest2, Chandi Witharana3, Tom Hart4 & Heather J. Lynch2,5 Using satellite imagery, drone imagery, and ground counts, we have assembled the frst comprehensive global population assessment of Chinstrap penguins (Pygoscelis antarctica) at 3.42 (95th-percentile CI: [2.98, 4.00]) million breeding pairs across 375 extant colonies. Twenty-three previously known Chinstrap penguin colonies are found to be absent or extirpated. We identify fve new colonies, and 21 additional colonies previously unreported and likely missed by previous surveys. Limited or imprecise historical data prohibit our assessment of population change at 35% of all Chinstrap penguin colonies. Of colonies for which a comparison can be made to historical counts in the 1980s, 45% have probably or certainly declined and 18% have probably or certainly increased. Several large colonies in the South Sandwich Islands, where conditions apparently remain favorable for Chinstrap penguins, cannot be assessed against a historical benchmark. Our population assessment provides a detailed baseline for quantifying future changes in Chinstrap penguin abundance, sheds new light on the environmental drivers of Chinstrap penguin population dynamics in Antarctica, and contributes to ongoing monitoring and conservation eforts at a time of climate change and concerns over declining krill abundance in the Southern Ocean. Chinstrap penguins (Pygoscelis antarctica) are abundant in Antarctica, with past estimates ranging from 3–8 million breeding pairs, and are considered a species of “least concern” by BirdLife International1, but the popula- tion dynamics of this species are not well understood and several studies have highlighted signifcant declines at monitored sites2–6. -
Genomic Characterisation of a Novel Avipoxvirus Isolated from an Endangered Yellow-Eyed Penguin (Megadyptes Antipodes)
viruses Article Genomic Characterisation of a Novel Avipoxvirus Isolated from an Endangered Yellow-Eyed Penguin (Megadyptes antipodes) Subir Sarker 1,* , Ajani Athukorala 1, Timothy R. Bowden 2,† and David B. Boyle 2 1 Department of Physiology, Anatomy and Microbiology, School of Life Sciences, La Trobe University, Melbourne, VIC 3086, Australia; [email protected] 2 CSIRO Livestock Industries, Australian Animal Health Laboratory, Geelong, VIC 3220, Australia; [email protected] (T.R.B.); [email protected] (D.B.B.) * Correspondence: [email protected]; Tel.: +61-3-9479-2317; Fax: +61-3-9479-1222 † Present address: CSIRO Australian Animal Health Laboratory, Australian Centre for Disease Preparedness, Geelong, VIC 3220, Australia. Abstract: Emerging viral diseases have become a significant concern due to their potential con- sequences for animal and environmental health. Over the past few decades, it has become clear that viruses emerging in wildlife may pose a major threat to vulnerable or endangered species. Diphtheritic stomatitis, likely to be caused by an avipoxvirus, has been recognised as a signifi- cant cause of mortality for the endangered yellow-eyed penguin (Megadyptes antipodes) in New Zealand. However, the avipoxvirus that infects yellow-eyed penguins has remained uncharacterised. Here, we report the complete genome of a novel avipoxvirus, penguinpox virus 2 (PEPV2), which was derived from a virus isolate obtained from a skin lesion of a yellow-eyed penguin. The PEPV2 genome is 349.8 kbp in length and contains 327 predicted genes; five of these genes were found to be unique, while a further two genes were absent compared to shearwaterpox virus 2 (SWPV2). -
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Traisnel & Pichegru: Nest usurpation in African Penguins 85 POSSIBLE DRIVERS OF NEST USURPATION IN AFRICAN PENGUINS SPHENISCUS DEMERSUS GWENDOLINE TRAISNEL & LORIEN PICHEGRU DST-NRF Centre of Excellence at the Percy FitzPatrick Institute of African Ornithology, Institute for Coastal and Marine Research and Department of Zoology, Nelson Mandela University, Port Elizabeth, South Africa ([email protected]) Received 10 January 2018, accepted 27 February 2018 ABSTRACT TRAISNEL, G. & PICHEGRU, L. 2018. Possible drivers of nest usurpation in African Penguins Spheniscus demersus. Marine Ornithology 46: 85–88. Nest usurpation is a relatively common phenomenon in birds but remains poorly documented in penguins. This behaviour may advantage bolder and aggressive individuals and influence population dynamics by affecting breeding success. African Penguins Spheniscus demersus are aggressive towards conspecifics during the breeding season when competing for territory. However, nest usurpation is rarely observed in this species. We describe three records of nest usurpation in African Penguins from Bird Island, Algoa Bay (South Africa) in 2017. After a climate-related massive breeding failure, late breeders in search of a territory attacked occupants of earlier-breeding nests, sometimes leading to the death of their brood. These observations may be the consequence of an extreme weather event, which created a marked asynchrony in breeding stages in this specific year, with many birds tending chicks, while others were just beginning to look for territories. This mismatch provided the opportunity for particularly aggressive individuals to decrease the breeding output of less aggressive birds, thereby possibly influencing the species’ population dynamics. Key words: African Penguin, nest displacement, nest stealing, asynchrony INTRODUCTION summer may result in nest desertion (Frost et al. -
SHORT NOTE Prey Seizing in African Penguins Spheniscus Demersus
SHORT NOTE Prey seizing in African Penguins Spheniscus demersus For seabirds, foraging behaviour can be divid- ink. Strips of one millimetre graph paper backed by card & (10 x 50 mm), were laid across these surfaces to make irn- ed into three sequential phases (Din Eltring- prints. The surface areas of the imprints were determined by ham 1974): 1) choosing where to forage and lo- counting the number of. quarter-millimetre squares filled cation of prey, i.e. in different habitats, socially with ink. or alone, close to a nest site or at a distance We made direct measurements on the strength of the bite of five live adult African Penguins. Two Pesola balances, ac- (Brown 1980), the use of vision vs olfaction curate to five grams, were attached with tape to both the up- (Wenzel 1980); 2) the mode of attack on prey per and lower mandible tips. The pull was measured when (e.g. plunging, dipping or surface diving, Ash- the beak was slightly opened by inducing the penguin to bite at a finger laid between the two mandibles. We examined mole 1971); and 3) capture and handling of prey approximately 6000 fishes from 556 African Penguin regur- (e.g. spearing, seizing, filtering, Owre 1967, gitations (Wilson 1985) for marks made by the birds' beaks. Ashmole 1971, Zusi 1962, 1975). Much atten- tion has been devoted to the first two aspects of The beak length, from the tip of the unguis to foraging, but relatively little work has been the quadrate, was 105 mm. A single tomium done on the capture and handling of prey. -
WAVE on Wheels Outreach Penguin Presentation Grades 9 – 12
WAVE on Wheels Outreach Penguin Presentation Grades 9 – 12 Time requirement 1 Hour Group size and grade Up to 50 students maximum Materials 1 African Penguin Penguin Artifacts Bin Penguin Emergency Backpack Penguin Pedestal WAVE Tablecloth Goal Through a live penguin encounter, students will be excited, engaged, and educated about the wonders of aquatic life and the importance of conservation. Objectives 1. Students will be able to list 5 adaptations a penguin has for aquatic life including a combination of internal and external body parts as well as behaviors. 2. Students will be able to define natural selection and discuss its effects on penguin adaptations. 3. Students will be able to list at least 5 species of penguin and identify that some penguins live in warm environments. WAVE Foundation • One Aquarium Way • Newport, KY 41071 • www.wavefoundation.org • (859) 815-1442 Rev 3/16 4. Students will be able to discuss biological factors relating to penguin population numbers, individual growth rates, and reproductive success. 5. Students will be able to discuss social behavior strategies among penguins. 6. Students will be able to discuss penguin conservation efforts as well as how they can help save penguins and other aquatic animals. 7. Students will be able to design and describe a method for monitoring and minimizing human impacts on penguin environments. Theme Penguins are unique aquatic birds that play an important role in their environment. Kentucky Core Academic Standards – Science HS. Interdependent Relationships in Ecosystems HS-LS2-7. Design, evaluate, and refine a solution for reducing the impacts of human activities on the environment and biodiversity. -
The Fish Component of Pygoscelis Penguin Diets by Nina J Karnovsky
The fish component of Pygoscelis penguin diets by Nina J Karnovsky A thesis submitted in partial fulfillment of the requirements for the degree of Master of Science in Biological Sciences Montana State University © Copyright by Nina J Karnovsky (1997) Abstract: Long-term research on the breeding biology and foraging ecology of Antarctic seabirds has shown that these birds are excellent indicators of the environmental conditions of the Southern Ocean marine ecosystem. Since 1976 three species of penguins, the gentoo, Adelie and chinstrap, have been studied on King George Island, Antarctica. The coexistence of the three species during their breeding season could be a result of species-specific differences in prey, foraging habitat and/or feeding behavior. Previous studies have shown that krill is the major component of the diet of all three species. The importance of fish in their diet has been underestimated and not well understood. The objective of this study was to analyze which kinds of fish species, and to what extent, the different penguins rely on fish. I examined interspecific, intraspecific differences in the piscivorous portion of diet of the three penguin species. These data will be used for examinations of interannual variation in the penguin diets in the future. Changes in the percentage of, or a shift in species assemblages of fish eaten (preyswitching) could reflect variations in environmental conditions. Such a change might be expected because krill populations have declined in the past decade due to a decrease in winter sea ice. Krill depend on sea-ice for protection from predators and for feeding on the ice-algae populations. -
Sentinels of the Ocean the Science of the World’S Penguins
A scientific report from The Pew Charitable Trusts April 2015 Sentinels Of the Ocean The science of the world’s penguins Contents 1 Overview 1 Status of penguin populations 1 Penguin biology Species 3 22 The Southern Ocean 24 Threats to penguins Fisheries 24 Increasing forage fisheries 24 Bycatch 24 Mismatch 24 Climate change 25 Habitat degradation and changes in land use 25 Petroleum pollution 25 Guano harvest 26 Erosion and loss of native plants 26 Tourism 26 Predation 26 Invasive predators 26 Native predators 27 Disease and toxins 27 27 Protecting penguins Marine protected areas 27 Ecosystem-based management 29 Ocean zoning 29 Habitat protections on land 30 31 Conclusion 32 References This report was written for Pew by: Pablo García Borboroglu, Ph.D., president, Global Penguin Society P. Dee Boersma, Ph.D., director, Center for Penguins as Ocean Sentinels, University of Washington Caroline Cappello, Center for Penguins as Ocean Sentinels, University of Washington Pew’s environmental initiative Joshua S. Reichert, executive vice president Tom Wathen, vice president Environmental science division Becky Goldburg, Ph.D., director, environmental science Rachel Brittin, officer, communications Polita Glynn, director, Pew Marine Fellows Program Ben Shouse, senior associate Charlotte Hudson, director, Lenfest Ocean Program Anthony Rogers, senior associate Katie Matthews, Ph.D., manager Katy Sater, senior associate Angela Bednarek, Ph.D., manager Acknowledgments The authors wish to thank the many contributors to Penguins: Natural History and Conservation (University of Washington Press, 2013), upon whose scholarship this report is based. Used by permission of the University of Washington Press The environmental science team would like to thank Dee Boersma, Pablo “Popi” Borboroglu, and Caroline Cappello for sharing their knowledge of penguins by writing and preparing this report. -
Spheniscus Demersus) Provisioning Chicks at Robben Island, South Africa
Factors influencing the foraging behaviour of African Penguins (Spheniscus demersus) provisioning chicks at Robben Island, South Africa by Kate Campbell Student number: RBNKAT008 Thesis presented for the Degree of Doctor of Philosophy (PhD) Department of Biological Sciences Faculty of Science UniversityUNIVERSITY ofOF CAPE Cape TOWN Town Supervised by Professor Les G. Underhill Co-supervised by: Dr. Richard B. Sherley Dr. Antje Steinfurth Dr. Rob J. M. Crawford December 2016 The copyright of this thesis vests in the author. No quotation from it or information derived from it is to be published without full acknowledgement of the source. The thesis is to be used for private study or non- commercial research purposes only. Published by the University of Cape Town (UCT) in terms of the non-exclusive license granted to UCT by the author. University of Cape Town DECLARATION I, Katrina (Kate) Jane Campbell, formerly Robinson, hereby declare that this thesis and the work on which this thesis is based is my original work (except where acknowledgements indicate otherwise) and that neither the whole work nor any part of it has been, is being, or is to be submitted for another degree in this or any other university. I authorise the University to reproduce for the purpose of research either the whole or any portion of the contents in any manner whatsoever. SIGNED:_____________________________Signature Removed KATRINA JANE CAMPBELL DATE:______________________________11 December 2016 ii "COURAGE IS NOT THE ABSENCE OF FEAR, BUT THE TRIUMPH OVER IT." -
Breeding Dynamics of a Gentoo Penguin Pygoscelis Papua Population at Cierva Point, Antarctic Peninsula
2000 Quintana & Cirelli: Breeding dynamics of Gentoo Penguins at Cierva Point 29 BREEDING DYNAMICS OF A GENTOO PENGUIN PYGOSCELIS PAPUA POPULATION AT CIERVA POINT, ANTARCTIC PENINSULA R.D. QUINTANA & V. CIRELLI GESER (Grupo de Estudios Sobre Ecología Regional), Universidad de Buenos Aires, Facultad de Cs. Exactas y Naturales, Dpto. de Ciencias Biológicas, Pab. II, C. Universitaria, 1428 Buenos Aires, Argentina ([email protected]) Received 4 October 1996, accepted 24 September 1998 SUMMARY QUINTANA, R.D. & CIRELLI, V. 2000. Breeding dynamics of a Gentoo Penguin Pygoscelis papua popu- lation at Cierva Point, Antarctic Peninsula. Marine Ornithology 28: 29–35. Aspects of the breeding biology of the Gentoo Penguin Pygoscelis papua were studied at Cierva Point, Antarctic Peninsula (64°09'S, 60°57'W). From a breeding population of 1044 pairs (85% with two eggs), 83% raised at least one chick to fledging. Survival in different subcolonies was neither correlated with perimeter-area ratio nor with distance to the sea. Chick mortality at the end of January 1993 was 23.9%, whereas for the 1991/92 breeding season it was 14.0%; for 1993/94, 23.9%; for 1994/95, 33.0% and for 1995/96 24.3%. By 17 February 1993, chick mortality was 32.3%. Chick survival was regressed against time for nine selected subcolonies, showing a high correlation between them. Covariance analysis among the regression line slopes showed a non-significant result (F = 0.42, P > 0.05). No significant differences were also observed when Tuckey’s multiple contrasts test was performed on the proportions of surviving chicks in-between weeks (P > 0.05), showing a gradual mortality of chicks from egg-laying to créching. -
Federal Register/Vol. 75, No. 187/Tuesday, September 28, 2010
Federal Register / Vol. 75, No. 187 / Tuesday, September 28, 2010 / Rules and Regulations 59645 * Elevation in feet (NGVD) + Elevation in feet (NAVD) Flooding source(s) Location of referenced elevation # Depth in feet Communities above ground affected ∧ Elevation in meters (MSL) Modified Unnamed Tributary No. 1 to At the area bounded by U.S. Route 33, Wabash Avenue, +1415 Unincorporated Areas of Fink Run (Backwater effects and County Route 33/1. Upshur County. from Buckhannon River). * National Geodetic Vertical Datum. + North American Vertical Datum. # Depth in feet above ground. ∧ Mean Sea Level, rounded to the nearest 0.1 meter. ADDRESSES Unincorporated Areas of Upshur County Maps are available for inspection at the Upshur County Courthouse Annex, 38 West Main Street, Buckhannon, WV 26201. (Catalog of Federal Domestic Assistance No. 76.913(b)(1)—62 FR 6495, February 12, collection requirements that are subject 97.022, ‘‘Flood Insurance.’’) 1997. to OMB approval. Dated: September 21, 2010. 76.924(e)(1)(iii) and (e)(2)(iii)—61 FR [FR Doc. 2010–24203 Filed 9–27–10; 8:45 am] Edward L. Connor, 9367, March 8, 1996. BILLING CODE 6712–01–P Acting Federal Insurance and Mitigation 76.925—60 FR 52119, October 5, 1995. Administrator, Department of Homeland 76.942(f)—60 FR 52120, October 5, Security, Federal Emergency Management 1995. DEPARTMENT OF THE INTERIOR Agency. 76.944(c)—60 FR 52121, October 5, [FR Doc. 2010–24326 Filed 9–27–10; 8:45 am] 1995. Fish and Wildlife Service BILLING CODE 9110–12–P 76.957—60 FR 52121, October 5, 1995.