Happy feet in a hostile world? The future of penguins depends on proactive management of current and expected threats
- Ropert-Coudert, Yan, Chiaradia, Andre, Ainley, David, Barbosa, Andres, Boersma, Dee, Brasso, Rebecka, Dewar, Meagan, Ellenberg, Ursula, García-Borboroglu, Pablo, Emmerson, Loulse, Hickcox, Rachel, Jenouvrier, Stephanie, Kato, Akiko, McIntosh, Rebecca, Lewis, Phoebe, Ramírez, Francisco, Ruoppolo, Valeria, Ryan, Peter, Seddon, Philip, Sherley, Richard, Vanstreels, Ralph, Waller, Lauren, Woehler, Eric, Trathan, Phil
- Authors: Ropert-Coudert, Yan , Chiaradia, Andre , Ainley, David , Barbosa, Andres , Boersma, Dee , Brasso, Rebecka , Dewar, Meagan , Ellenberg, Ursula , García-Borboroglu, Pablo , Emmerson, Loulse , Hickcox, Rachel , Jenouvrier, Stephanie , Kato, Akiko , McIntosh, Rebecca , Lewis, Phoebe , Ramírez, Francisco , Ruoppolo, Valeria , Ryan, Peter , Seddon, Philip , Sherley, Richard , Vanstreels, Ralph , Waller, Lauren , Woehler, Eric , Trathan, Phil
- Date: 2019
- Type: Text , Journal article
- Relation: Frontiers in Marine Science Vol. 6, no. May (2019), p. 1-23
- Full Text:
- Reviewed:
- Description: Penguins face a wide range of threats. Most observed population changes have been negative and have happened over the last 60 years. Today, populations of 11 penguin species are decreasing. Here we present a review that synthesizes details of threats faced by the world's 18 species of penguins. We discuss alterations to their environment at both breeding sites on land and at sea where they forage. The major drivers of change appear to be climate, and food web alterations by marine fisheries. In addition, we also consider other critical and/or emerging threats, namely human disturbance near nesting sites, pollution due to oil, plastics and chemicals such as mercury and persistent organic compounds. Finally, we assess the importance of emerging pathogens and diseases on the health of penguins. We suggest that in the context of climate change, habitat degradation, introduced exotic species and resource competition with fisheries, successful conservation outcomes will require new and unprecedented levels of science and advocacy. Successful conservation stories of penguin species across their geographical range have occurred where there has been concerted effort across local, national and international boundaries to implement effective conservation planning.
- Authors: Ropert-Coudert, Yan , Chiaradia, Andre , Ainley, David , Barbosa, Andres , Boersma, Dee , Brasso, Rebecka , Dewar, Meagan , Ellenberg, Ursula , García-Borboroglu, Pablo , Emmerson, Loulse , Hickcox, Rachel , Jenouvrier, Stephanie , Kato, Akiko , McIntosh, Rebecca , Lewis, Phoebe , Ramírez, Francisco , Ruoppolo, Valeria , Ryan, Peter , Seddon, Philip , Sherley, Richard , Vanstreels, Ralph , Waller, Lauren , Woehler, Eric , Trathan, Phil
- Date: 2019
- Type: Text , Journal article
- Relation: Frontiers in Marine Science Vol. 6, no. May (2019), p. 1-23
- Full Text:
- Reviewed:
- Description: Penguins face a wide range of threats. Most observed population changes have been negative and have happened over the last 60 years. Today, populations of 11 penguin species are decreasing. Here we present a review that synthesizes details of threats faced by the world's 18 species of penguins. We discuss alterations to their environment at both breeding sites on land and at sea where they forage. The major drivers of change appear to be climate, and food web alterations by marine fisheries. In addition, we also consider other critical and/or emerging threats, namely human disturbance near nesting sites, pollution due to oil, plastics and chemicals such as mercury and persistent organic compounds. Finally, we assess the importance of emerging pathogens and diseases on the health of penguins. We suggest that in the context of climate change, habitat degradation, introduced exotic species and resource competition with fisheries, successful conservation outcomes will require new and unprecedented levels of science and advocacy. Successful conservation stories of penguin species across their geographical range have occurred where there has been concerted effort across local, national and international boundaries to implement effective conservation planning.
Risk assessment of SARS-CoV-2 in Antarctic wildlife
- Barbosa, Andres, Varsani, Arvind, Morandini, Virginia, Grimaldi, Wray, Vanstreels, Ralph, Diaz, Julia, Boulinier, Thierry, Dewar, Meagan, González-Acuña, Daniel, Gray, Rachael, McMahon, Clive, Miller, Gary, Power, Michelle, Gamble, Amandine, Wille, Michelle
- Authors: Barbosa, Andres , Varsani, Arvind , Morandini, Virginia , Grimaldi, Wray , Vanstreels, Ralph , Diaz, Julia , Boulinier, Thierry , Dewar, Meagan , González-Acuña, Daniel , Gray, Rachael , McMahon, Clive , Miller, Gary , Power, Michelle , Gamble, Amandine , Wille, Michelle
- Date: 2021
- Type: Text , Journal article
- Relation: Science of the Total Environment Vol. 755, no. 2 (2021), p. 1-8
- Full Text:
- Reviewed:
- Description: The coronavirus disease 2019 (COVID-19) pandemic is caused by the severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2). This pathogen has spread rapidly across the world, causing high numbers of deaths and significant social and economic impacts. SARS-CoV-2 is a novel coronavirus with a suggested zoonotic origin with the potential for cross-species transmission among animals. Antarctica can be considered the only continent free of SARS-CoV-2. Therefore, concerns have been expressed regarding the potential human introduction of this virus to the continent through the activities of research or tourism to minimise the effects on human health, and the potential for virus transmission to Antarctic wildlife. We assess the reverse-zoonotic transmission risk to Antarctic wildlife by considering the available information on host susceptibility, dynamics of the infection in humans, and contact interactions between humans and Antarctic wildlife. The environmental conditions in Antarctica seem to be favourable for the virus stability. Indoor spaces such as those at research stations, research vessels or tourist cruise ships could allow for more transmission among humans and depending on their movements between different locations the virus could be spread across the continent. Among Antarctic wildlife previous in silico analyses suggested that cetaceans are at greater risk of infection whereas seals and birds appear to be at a low infection risk. However, caution needed until further research is carried out and consequently, the precautionary principle should be applied. Field researchers handling animals are identified as the human group posing the highest risk of transmission to animals while tourists and other personnel pose a significant risk only when in close proximity (< 5 m) to Antarctic fauna. We highlight measures to reduce the risk as well as identify of knowledge gaps related to this issue. © 2020 The Authors
- Authors: Barbosa, Andres , Varsani, Arvind , Morandini, Virginia , Grimaldi, Wray , Vanstreels, Ralph , Diaz, Julia , Boulinier, Thierry , Dewar, Meagan , González-Acuña, Daniel , Gray, Rachael , McMahon, Clive , Miller, Gary , Power, Michelle , Gamble, Amandine , Wille, Michelle
- Date: 2021
- Type: Text , Journal article
- Relation: Science of the Total Environment Vol. 755, no. 2 (2021), p. 1-8
- Full Text:
- Reviewed:
- Description: The coronavirus disease 2019 (COVID-19) pandemic is caused by the severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2). This pathogen has spread rapidly across the world, causing high numbers of deaths and significant social and economic impacts. SARS-CoV-2 is a novel coronavirus with a suggested zoonotic origin with the potential for cross-species transmission among animals. Antarctica can be considered the only continent free of SARS-CoV-2. Therefore, concerns have been expressed regarding the potential human introduction of this virus to the continent through the activities of research or tourism to minimise the effects on human health, and the potential for virus transmission to Antarctic wildlife. We assess the reverse-zoonotic transmission risk to Antarctic wildlife by considering the available information on host susceptibility, dynamics of the infection in humans, and contact interactions between humans and Antarctic wildlife. The environmental conditions in Antarctica seem to be favourable for the virus stability. Indoor spaces such as those at research stations, research vessels or tourist cruise ships could allow for more transmission among humans and depending on their movements between different locations the virus could be spread across the continent. Among Antarctic wildlife previous in silico analyses suggested that cetaceans are at greater risk of infection whereas seals and birds appear to be at a low infection risk. However, caution needed until further research is carried out and consequently, the precautionary principle should be applied. Field researchers handling animals are identified as the human group posing the highest risk of transmission to animals while tourists and other personnel pose a significant risk only when in close proximity (< 5 m) to Antarctic fauna. We highlight measures to reduce the risk as well as identify of knowledge gaps related to this issue. © 2020 The Authors
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