Academic literature on the topic 'Little blue penguin – Australia'

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Journal articles on the topic "Little blue penguin – Australia"

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Morgan, I. R., H. A. Westbury, and J. Campbell. "VIRAL INFECTIONS OF LITTLE BLUE PENGUINS (EUDYPTULA MINOR) ALONG THE SOUTHERN COAST OF AUSTRALIA." Journal of Wildlife Diseases 21, no. 3 (July 1985): 193–98. http://dx.doi.org/10.7589/0090-3558-21.3.193.

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Boerner, Leslie, Kathleen R. Nevis, Lynn S. Hinckley, E. Scott Weber, and Salvatore Frasca. "ErysipelothrixSepticemia in a Little Blue Penguin (Eudyptula Minor)." Journal of Veterinary Diagnostic Investigation 16, no. 2 (March 2004): 145–49. http://dx.doi.org/10.1177/104063870401600209.

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Tuxbury, Kathryn A., Charles J. Innis, Tuddow Thaiwong, Annabel G. Wise, Roger Maes, Michael M. Garner, and Matti Kiupel. "Herpesvirus Encephalitis in a Little Blue Penguin (Eudyptula minor)." Veterinary Pathology 57, no. 4 (May 21, 2020): 582–85. http://dx.doi.org/10.1177/0300985820926678.

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An 11-day-old little blue penguin ( Eudyptula minor) died unexpectedly. Prior to hatching, the egg experienced trauma and resultant defects were repaired. The chick hatched without complication and was clinically normal prior to death. Necropsy revealed congested lungs. Histologic examination showed moderate nonsuppurative encephalitis with focally extensive neuronal necrosis and intranuclear inclusions in neurons within necrotic foci. Herpesvirus DNA was detected in brain tissue with a generic herpesvirus polymerase chain reaction. Sanger sequencing demonstrated 100% and 98% sequence homology to sphenicid alphaherpesvirus 1 and penguin herpesvirus 2, respectively. In situ hybridization demonstrated large amounts of herpesvirus nucleic acid in intranuclear inclusions and neuronal nuclei. Combined histology, polymerase chain reaction, Sanger sequencing, and in situ hybridization results were most consistent with herpesviral encephalitis, most likely caused by sphenicid alphaherpesvirus 1. To our knowledge, this is the first report of a herpesvirus infection causing encephalitis in a penguin and the first report of herpesvirus in this species.
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Klomp, N. I., C. E. Meathrel, B. C. Wienecke, and R. D. Wooller. "Surface Nesting by Little Penguins on Penguin Island, Western Australia." Emu - Austral Ornithology 91, no. 3 (August 1991): 190–93. http://dx.doi.org/10.1071/mu9910190.

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Thomas, Daniel B., and R. Ewan Fordyce. "The heterothermic loophole exploited by penguins." Australian Journal of Zoology 55, no. 5 (2007): 317. http://dx.doi.org/10.1071/zo07053.

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Penguins are generally smaller than the predicted minimum body size for marine endotherms. Anatomical observations of the little blue penguin (Eudyptula minor) suggest that extant penguins actively defeat the lower size threshold using regional heterothermy. The wing arteries in the little blue penguin form a humeral plexus, a series of three parallel arteries (including the marginal artery) that stem from the axillary artery, replacing a single brachial artery. Each artery of the plexus is associated with at least two veins to form a counter current heat-retention system. The humeral plexus thus restricts heat from entering distal areas of the wing and dissipating into seawater, ultimately reducing the bulk mass required for heat production and insulation. Humeral plexi are confirmed as a synapomorphic character of the Spheniscinae, with the humeral plexus of E. minor most similar to that of the African penguin Spheniscus demersus. The humeral plexus represents a loophole in body size minima of marine endotherms and offers insight into the ecology of living penguins.
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Klomp, NI, and RD Wooller. "Diet of little penguins, Eudyptula minor, from Penguin Island, Western Australia." Marine and Freshwater Research 39, no. 5 (1988): 633. http://dx.doi.org/10.1071/mf9880633.

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Between March 1986 and March 1987, the stomach contents of 236 little penguins on Penguin Island, Western Australia, were obtained using an emetic. The 1392 prey items identified included 16 fish species, one squid and one prawn, but four fishes comprised most of the birds' diet. Hyperlophus vittatus was taken throughout the year, Sardinops neopilchardus and Hyporhamphus melanochir mainly in winter and Spratelloides robustus during spring/summer. The penguins are largely opportunistic in their foraging and their diet appears to be similar to the fish species caught locally by commercial bait fishermen.
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Meredith, Meredith A. M., and Frank Y. T. Sin. "Morphometrical analysis of four populations of the Little Blue Penguin,Eudyptula minor." Journal of Natural History 22, no. 3 (June 1988): 801–9. http://dx.doi.org/10.1080/00222938800770521.

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Meredith, Meredith A. M., and Frank Y. T. Sin. "Genetic variation of four populations of the Little Blue Penguin, Eudyptula minor." Heredity 60, no. 1 (February 1988): 69–76. http://dx.doi.org/10.1038/hdy.1988.11.

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Colombelli-Négrel, Diane, and Ikuko Tomo. "Identification of terrestrial predators at two Little Penguin colonies in South Australia." Australian Field Ornithology 34 (2017): 1–9. http://dx.doi.org/10.20938/afo34001009.

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Campbell, Kym, Andrea Paparini, Adriana Botero Gomez, Belinda Cannell, and Nahiid Stephens. "Fatal toxoplasmosis in Little Penguins (Eudyptula minor) from Penguin Island, Western Australia." International Journal for Parasitology: Parasites and Wildlife 17 (April 2022): 211–17. http://dx.doi.org/10.1016/j.ijppaw.2022.02.006.

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Dissertations / Theses on the topic "Little blue penguin – Australia"

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Povah, Ryan S. "Sex-ratio of Little Penguin (Eudyptula minor) on Penguin Island and Garden Island, Western Australia." Thesis, Povah, Ryan S. (2021) Sex-ratio of Little Penguin (Eudyptula minor) on Penguin Island and Garden Island, Western Australia. Honours thesis, Murdoch University, 2021. https://researchrepository.murdoch.edu.au/id/eprint/61632/.

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Sex-ratio is an important demographic parameter, however, the literature surrounding bird and mammal sex-ratio is incredibly inconsistent. Some bird and mammal species provide strong evidence for sex-ratio adjustment because observed sex-ratio results match the predictions of sex manipulation hypotheses. However, some bird and mammal species exhibit sex-ratio results that conflict with the predictions of sex manipulation hypotheses. The need to rectify bird and mammal sex-ratio inconsistencies is paramount when considering many conserved populations face demographic collapse in the presence of climate change. Therefore, this study has reviewed all known bird and mammal sex manipulation hypotheses, and chosen to examine a species that theoretically displays few sex manipulation hypotheses for a simple study design. Displaying two sex manipulation hypotheses, Little Penguins (Eudyptula minor) were predicted to exhibit an even sex-ratio; whether they possessed the means to adjust sex-ratio or not. To test the above prediction, Little Penguin blood samples were retrieved from chicks nesting on Penguin Island and Garden Island and sexed via the CHDI genetic sexing technique, using the established PL/PR primer pair. Little Penguin chick weight and foot length data were also recorded and examined via the logistic growth curve to determine whether the study’s assumption of ‘equal net costs associated with raising either offspring sex’ was true. The sex-ratio for Little Penguin populations on Penguin Island and Garden Island was marginally female-biased, (P = 0.092 and 0.096 respectively). Possible reasons why the predicted sex-ratio of 1:1 was not observed are;(1) the prediction was based on inaccurate species knowledge as the assumption of ‘equal net costs associated with raising either offspring sex’ was determined false, (2) a small sample size for both Penguin Island and Garden Island (41 and 19 respectively), or (3) aspects beyond those covered in sex manipulation hypotheses influenced what the most adaptive brood sex-ratio is for the species, such as sex manipulation constraints, a lagged processes, or cryptic benefits.
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Fortescue, Martin. "Breeding biology and management of the little penguin, Eudyptula minor (Forster), 1780, on Bowen Island, Jervis Bay." Connect to this title online, 1991. http://cicada.canberra.edu.au/public/adt-AUC20041206.131223/.

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Sidhu, Leesa A. Physical Environmental &amp Mathematical Sciences Australian Defence Force Academy UNSW. "Analysis of recovery-recapture data for little penguins." Awarded by:University of New South Wales - Australian Defence Force Academy. School of Physical, Environmental and Mathematical Sciences, 2007. http://handle.unsw.edu.au/1959.4/38738.

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This thesis analyses yearly mark-recapture-recovery information collected over a 36- year period, from 1968 to 2003, for 23 686 flipper-banded Little Penguins Eudyptula minor of Phillip Island, in south-eastern Australia. Such a long-term data set is extremely rare for any species. Few studies of any animal have been able to model age dependence for the survival, recapture and recovery probabilities simultaneously. I successfully apply such a modelling scheme and obtain biologically realistic age structures for the parameters. I also provide illustrations of erroneous results that may arise when analyses fail to consider simultaneous age dependence, or fail to detect annual variations that may mask age dependence. I obtain a low survival estimate of 17% in the first year of life, increasing to 71% in the second year, and around 80% thereafter, and declining gradually after age nine years. First-year survival increases with number of chicks fledged per pair, increases with annual average fledging weight and decreases with mean laying date. An increase in first-year survival is associated with warmer sea surface temperatures in the summer and autumn of the previous year, which agrees with biological considerations. Irrespective of this inter-year variation, birds born early in the breeding season, relative to the rest of their cohort, have greatly enhanced first-year survival, when compared to birds born late in that season. Fledglings survive better in years in which the mean fledgling weight is higher, and fledglings of above average weight have a better chance of survival than their underweight counterparts. I next analyse seven years of recapture data from a separate experiment studying the effect of banding on adult Little Penguins. In the year following marking, the i survival probability of banded birds is 6% lower than that of unbanded birds, while in subsequent years the survival is 4% lower for banded birds. Band loss is negligible. Finally, I compare the survival estimates for Phillip Island with those obtained for a six-year study in New Zealand. While first-year survival is significantly higher for New Zealand, there is a marked decline over time, coinciding with an increase in population size.
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Braidwood, Jasmine. "Breeding biology and threats to the blue penguin (Eudyptula minor) in South Westland, New Zealand." Lincoln University, 2009. http://hdl.handle.net/10182/1556.

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The Blue Penguin (Eudyptula minor) is assumed to be declining over much of its range, largely due to introduced predators. Anecdotal evidence suggests that one of the areas of declining population is the West Coast of the South Island. The purpose of this study was to determine the reasons for the assumed decline of blue penguins in South Westland. This was done by studying breeding ecology at several blue penguin colonies to assess the importance of breeding success and adult mortality on the penguin population. Three blue penguin colonies in South Westland, at Five Mile and Three Mile beaches south of Okarito, and at the Wanganui River mouth near Harihari, were monitored throughout the 2008/09 breeding season. During each burrow visit the number of eggs and chicks were recorded as well as the date of laying, hatching or fledging. Five colonies of blue penguin were also monitored in Buller over the same breeding season in a study conducted by the West Coast Blue Penguin Trust, a community trust based on the West Coast. The results of both studies were compared to determine the effect of predator control on breeding parameters, such as breeding success. Of 137 eggs laid in South Westland, 108 chicks survived until fledging, giving an overall breeding success of 78.8%. In Buller, 64 chicks survived to fledging from 101 eggs laid, resulting in an overall breeding success of 63.4%. Breeding success was significantly higher at penguin colonies in South Westland, compared to the Buller colonies. There was no evidence that predator control had an effect on breeding success in South Westland or Buller. The mean number of chicks fledged per pair that produced eggs was 1.55 in South Westland and 1.16 in Buller. The overall proportion of occupied breeding burrows compared to the total number of suitable burrows at the South Westland sites was 73.8% (n = 103). At the Buller sites, only 60.3 % (n = 151) of the total number of burrows was occupied. Road kills are a major threat to blue penguins in Buller due to the proximity of colonies to the state highway. Fortunately, incidences of road death in South Westland are rare and due to the distance from roads, do not pose a significant threat to South Westland blue penguins. Further study of blue penguin colonies in South Westland is needed to learn more about annual variation in breeding productivity and to determine if breeding success is consistently high over an extended time period. If this is the case, then the cause of blue penguin decline on the West Coast is unlikely to be due to problems with breeding as the breeding success during this study is one of the highest recorded for blue penguins. Although there was no apparent effect of predator control on breeding productivity during this study there is evidence from other locations that predators, in particular stoats, have contributed to the decline of blue penguin populations. More research into the impact of predators on penguins over a longer period of time is needed on the West Coast before a change is made to how predators are managed.
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Campbell, Kamahl. "An investigation of an infection with a protozoan parasite causing mortalities in Little Penguins (Eudyptula minor) on Penguin Island, Western Australia." Thesis, Campbell, Kamahl (2015) An investigation of an infection with a protozoan parasite causing mortalities in Little Penguins (Eudyptula minor) on Penguin Island, Western Australia. Masters by Research thesis, Murdoch University, 2015. https://researchrepository.murdoch.edu.au/id/eprint/28175/.

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Since at least 2001, routine post mortems of deceased penguins from Penguin Island, Western Australia, have been conducted at Murdoch University Veterinary Hospital (MUVH). In late 2011 and early 2012, a cluster of 12 cases presented with similar and characteristic gross and microscopic changes, namely birds in good body condition with hepatomegaly and splenomegaly, multifocal hepatic and splenic necrosis and numerous, small, 1-2μm diameter protozoan parasites within the necrotic foci. A review of earlier reports in the MUVH archive identified isolated similar cases from 2006 and 2008, which had been provisionally diagnosed as Avian Malaria, that is, Plasmodium spp. infection. An investigation was established in order to: a) definitively identify the parasite causing the mortalities, with the additional aims of: b) evaluating the live population of Penguin Island Little Penguins for the presence of parasitaemia, and c) investigating the possibility that another bird species present on Penguin Island might represent a reservoir of infection. Ninety-four blood smears were made from 79 individual Little Penguins collected from winter to summer of 2012 and in the early spring of 2013. One smear identified intraerythrocytic organisms consistent with the blood stages of an apicomplexan parasite, for example, merozoites or early gametocytes of Haemoproteus or Plasmodium, or merozoites or sporozoites of Babesia. Fifty-one blood smears were made from 51 Bridled Terns (Sterna anaethetus) captured during two visits to the island in November 2012 and March 2013, with no parasites detected in these smears. Electron microscopy of the protozoan parasite identified it as belonging to the phylum Apicomplexa. Further identification to the level of genus was not possible. Molecular identification of the parasite using Polymerase Chain Reaction (PCR) methodology gave inconsistent results. PCR performed by an independent laboratory identified a novel Haemoproteus spp. organism in 4 of 10 cases from this group; however, these results could not be replicated in our laboratory. Additional PCR using a variety of primers aimed at detecting members of the Apicomplexa identified a parasite from the family Sarcocystidae, which was subsequently identified as Toxoplasma. Immunohistochemistry of formalin fixed tissues also identified Toxoplasma in the hepatic and splenic lesions. The distinctive mortalities which were observed in this group of penguins, and which have occurred sporadically since, appear to be attributable to a fulminant toxoplasmosis, with or without a concurrent haemoproteosis in some cases. The significance of the apparent polyparasitism in some of the birds is unknown, as the relative contribution of concurrent Haemoproteus infection to the lesion aetiopathogenesis cannot be quantified at this time. Though the clinical signs of infection are unknown, the gross and microscopic appearance at post mortem is sufficiently characteristic to allow a diagnosis to be made on these features. Definitive confirmation of infection may be made by immunohistochemistry or PCR.
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Jansen, van Rensburg Monique. "Parasitism, disease and breeding ecology of little blue penguins (Eudyptula minor) on Tiritiri Matangi Island, New Zealand : a thesis submitted in partial fulfilment of the requirements for the degree of Master of Science in Conservation Biology, Massey University, Auckland." 2010. http://hdl.handle.net/10179/1634.

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Appendix 4.4 removed due to copyright restrictions: Suepaul, R.B., Alley, M.R., Jansen van Rensburg, M., 2010, Salt gland adenitis associated with bacteria in blue penguins (Eudyptula minor) from Hauraki Gulf (Auckland, New Zealand). Journal of Wildlife Diseases, 46(1) : 46-54.
According to the New Zealand Threat Classification, little blue penguin (LBP) (Eudyptula minor) populations are under ‘gradual decline’. Although long-term data are available for some mainland populations, the status of LBP on offshore islands remains largely unknown. Most studies have focussed on breeding success and foraging ecology. However, there is a paucity of data pertaining to diseases and parasites, and the potential effects of these factors on LBP health, reproductive success and survival. To date, the LBP population on Tiritiri Matangi Island, Hauraki Gulf, Auckland, New Zealand, has only been monitored periodically, despite the island being an important habitat for LBP throughout their annual cycle. The overall aim of this study was to examine the relative importance of parasites and disease in relation to key aspects of LBP life-history, including: the annual cycle; reproductive success; energetic demands, immunity; and mortality. During 2006 and 2007, the reproductive success of LBP on Tiritiri Matangi Island was investigated with respect to lay date, nest site attributes, parental quality and ectoparasite loads. A nest treatment experiment was conducted to explore flea (Parapsyllus longicornis) and tick (Ixodes eudyptidis) effects on breeding success. Overall reproductive output was low, estimated at 33.3%, with an average of 0.67 chicks fledged per pair. Lay date and body condition (BC) appeared to be the main drivers of reproductive success, with early breeders fledging significantly more chicks than late breeders. Increased BC improved reproductive success. Although late breeders exhibited higher BC scores, increased chick mortality indicated that late nests face a reproductive trade-off. Treatment did not prove effective in reducing ectoparasite loads and there was no correlation between ectoparasite abundance in the nest and reproductive success. Throughout their geographic distribution, penguins are host to a range of ectoparasites. Using Ixodes eudyptidis ticks as indicators, ectoparasite-host dynamics were investigated over the course of one year, in relation to LBP life stages, body condition (BC) and haematological parameters. To investigate the presence of vector-borne diseases, blood parasite prevalence was determined using molecular techniques and microscopy. Tick load exhibited significant seasonal variation, being highest during periods of increased host availability i.e. moult and breeding. However, these increases in abundance were not associated with body condition or decreased reproductive success of adults. Nonetheless, LBP exhibited seasonal fluctuations in haematological parameters, with decreases in white blood cell concentrations during periods of increased energy demands and high tick loads. Blood parasite prevalence was low (<1%), determined to be Plasmodium sp. infection. No other blood parasites were found. These results indicate that the lifecycle of I. eudyptidis is tightly linked with that of its LBP hosts, and that infested individuals exhibit physiological responses to tick load. LBP exhibit annual fluctuations in mortality and experience periodic mass mortalities. To examine factors associated with mortality, post-mortems were conducted on 32 LBP from the Hauraki Gulf. Additionally, 128 LBP necropsy records were obtained from the National Wildlife Database (HUIA) for the period spanning April 1993-January 2009, and the causes of mortality were reviewed. Starvation and disease accounted for the highest mortality levels, with 65% of deaths attributed to either one or both of these factors. Furthermore, there was a strong association between starvation and parasites. Parasitic disease and diseases of uncertain aetiology were the most common disease types. In all age groups, the likelihood of infectious, non-infectious and disease of unknown aetiology was significantly higher in LBP that harboured one or more parasite species. Results from this study suggest that starvation and disease, including parasites, are significant factors associated with mortality of LBP in New Zealand, as has been found in Australian LBP populations. Parasites and disease are increasingly recognised as a challenge to the conservation of wildlife, and information regarding endemism of pathogens and parasites within populations is vital for determining ecosystem health, and identifying aberrant diseases.
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Boyer, Anne-Sophie. "Microbial infection of avian eggs : a threat to all synchronously incubating species? Case study of New Zealand's little blue penguin (Eudyptula minor) : a thesis presented in partial fulfilment of the requirements for the degree of Master of Science in Conservation Biology at Massey University, Auckland, New Zealand." 2010. http://hdl.handle.net/10179/1365.

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Microbial infection of eggs was originally investigated in terms of human health only. Recently, however, it was found that it can also cause early embryo mortality in birds, mainly through trans-shell infection prior to incubation. Trans-shell infection is highly dependent upon environmental conditions, egg temperature and egg properties such as shell quality and antimicrobial defences. Microbial infection of eggs is more likely to occur in synchronously incubating species as first laid eggs can be exposed for up to several days prior to full incubation. One example of a population that seems at particular risk of egg microbial infection is New Zealand’s little blue penguin (Eudyptula minor) from Tiritiri Matangi Island. This bird lays two eggs on average three days apart, and is believed to begin full incubation only after the second egg has been laid. Both eggs are laid in particularly humid and soiled nests and contain only low levels of lysozyme, an important antimicrobial protein. The aims of this study were therefore to 1) obtain a first examination of the rates of shell and trans-shell microbial infection of chicken eggs in New Zealand and assess the effects of cleaning on those rates, 2) investigate the role of microbes in hatching failure of little blue penguin eggs and 3) investigate other factors affecting little blue penguin egg viability. This study revealed that shell infection in chicken eggs significantly increased with exposure and significantly decreased with cleaning; however, trans-shell infection was only marginally affected by exposure and cleaning. On Tiritiri Matangi Island, Hauraki Gulf, New Zealand, nest type, egg order and shell cleaning did not affect hatching success, suggesting that nest conditions and microbial infection prior to incubation were not a major cause of egg mortality in this population. Temporary abandonment during incubation, however, was very frequent in the second half of the breeding season and fatal to most eggs. These temporary abandonments seemed to be caused by resource limitations, an aspect that should be investigated in future studies.
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Books on the topic "Little blue penguin – Australia"

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Stahel, Colin. Little penguin: Fairy penguins in Australia. Kensington, NSW: NSWU Press, 1987.

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McDonald, Megan. Penguin and Little Blue. New York: Atheneum Books for Young Readers, 2003.

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McCormack, Carolyn. Little Blue Penguin. Lulu Press, Inc., 2016.

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McDonald, Megan. Penguin and Little Blue. Aladdin, 2007.

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Castro, Rebeca, and Aria Lumina. Pingy the Little Blue Penguin. Independently Published, 2018.

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Jah, Jahri Jah. Kori: The Little Blue Penguin. shane rosemeyer, 2019.

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The Little Blue Penguins (Williams, Kim, Young Explorer Series. Penguins.). Faulkner's Publishing Group, 2001.

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Bloom, Cameron. Penguin the magpie: The odd little bird who saved a family. 2017.

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Greive, Bradley Trevor, and Cameron Bloom. Penguin the Magpie: The Odd Little Bird Who Saved a Family. Atria Books, 2017.

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illustrator, Geddes Serena, ed. Lulu Bell and the fairy penguin. 2013.

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Book chapters on the topic "Little blue penguin – Australia"

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DANN, PETER, and J. M. CULLEN. "Survival, Patterns of Reproduction, and Lifetime Reproductive Output in Little Blue Penguins (Eudyptula minor) on Phillip Island, Victoria, Australia." In Penguin Biology, 63–84. Elsevier, 1990. http://dx.doi.org/10.1016/b978-0-08-057106-5.50010-3.

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"Little Blue Penguin." In Penguins, 234–35. Princeton University Press, 2022. http://dx.doi.org/10.2307/j.ctv22rth6w.49.

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Wilson, Kerry-Jayne, and Thomas Mattern. "Little (blue) penguin / kororā." In State of Penguins. New Zealand Penguin Initiative, Dunedin, New Zealand, 2019. http://dx.doi.org/10.36617/sop.korora.2019-04.

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WAAS, JOSEPH R. "An Analysis of Communication during the Aggressive Interactions of Little Blue Penguins (Eudyptula minor)." In Penguin Biology, 345–76. Elsevier, 1990. http://dx.doi.org/10.1016/b978-0-08-057106-5.50025-5.

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Conference papers on the topic "Little blue penguin – Australia"

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Withcombe, Josh, and Cam Runge. "2022 SAPPHIRE PILOT DRILLING PROGRAMME NORTH BOWEN BASIN." In PESA Symposium Qld 2022. PESA, 2022. http://dx.doi.org/10.36404/kaoe7233.

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Although being one of the longest producing CSG basins in Australia, there has been little recent appraisal work in the North Bowen Basin. The Northern Bowen has the largest uncontracted gas resource on the east coast of Australia and if developed, would provide sufficient volumes to meet not only domestic gas requirements but also potential back fill for existing LNG plants in to the future. Blue Energy will provide an overview of their ongoing Sapphire appraisal program near Moranbah and their view on the future of the basin.
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