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645 results on '"Åkesson, Susanne"'

6. Network analysis of sea turtle movements and connectivity : A tool for conservation prioritization

Author

Kot, Connie Y., Åkesson, Susanne, Alfaro-Shigueto, Joanna, Llanos, Diego Fernando Amorocho, Antonopoulou, Marina, Balazs, George H., Baverstock, Warren R., Blumenthal, Janice M., Broderick, Annette C., Bruno, Ignacio, Canbolat, Ali Fuat, Casale, Paolo, Cejudo, Daniel, Coyne, Michael S., Curtice, Corrie, DeLand, Sarah, DiMatteo, Andrew, Dodge, Kara, Dunn, Daniel C., Esteban, Nicole, Formia, Angela, Fuentes, Mariana M. P. B., Fujioka, Ei, Garnier, Julie, Godfrey, Matthew H., Godley, Brendan J., Carman, Victoria González, Harrison, Autumn-Lynn, Hart, Catherine E., Hawkes, Lucy A., Hays, Graeme C., Hill, Nicholas, Hochscheid, Sandra, Kaska, Yakup, Levy, Yaniv, Ley-Quiñónez, César P., Lockhart, Gwen G., López-Mendilaharsu, Milagros, Luschi, Paolo, Mangel, Jeffrey C., Margaritoulis, Dimitris, Maxwell, Sara M., McClellan, Catherine M., Metcalfe, Kristian, Mingozzi, Antonio, Moncada, Felix G., Nichols, Wallace J., Parker, Denise M., Patel, Samir H., Pilcher, Nicolas J., Poulin, Sarah, Read, Andrew J., Rees, ALan F., Robinson, David P., Robinson, Nathan J., Sandoval-Lugo, Alejandra G., Schofield, Gail, Seminoff, Jeffrey A., Seney, Erin E., Snape, Robin T. E., Sözbilen, Doğan, Tomás, Jesús, Varo-Cruz, Nuria, Wallace, Bryan P., Wildermann, Natalie E., Witt, Matthew J., Zavala-Norzagaray, Alan A., and Halpin, Patrick N.

Published
2022

8. The importance of migratory connectivity for global ocean policy.

Author

Dunn, Daniel, Harrison, Autumn-Lynn, Curtice, Corrie, DeLand, Sarah, Donnelly, Ben, Fujioka, Ei, Heywood, Eleanor, Kot, Connie, Poulin, Sarah, Whitten, Meredith, Åkesson, Susanne, Alberini, Amalia, Appeltans, Ward, Arcos, José, Bailey, Helen, Ballance, Lisa, Block, Barbara, Blondin, Hannah, Boustany, Andre, Brenner, Jorge, Catry, Paulo, Cejudo, Daniel, Cleary, Jesse, Corkeron, Peter, Frisch-Nwakanma, Heidrun, Froján, Christopher, Gjerde, Kristina, Glowka, Lyle, Godley, Brendan, Gonzalez-Solis, Jacob, Granadeiro, José, Gunn, Vikki, Hashimoto, Yuriko, Hawkes, Lucy, Hays, Graeme, Hazin, Carolina, Jimenez, Jorge, Johnson, David, Luschi, Paolo, Maxwell, Sara, McClellan, Catherine, Modest, Michelle, Notarbartolo di Sciara, Giuseppe, Palacio, Alejandro, Palacios, Daniel, Pauly, Andrea, Rayner, Matt, Rees, Alan, Salazar, Erick, Secor, David, Sequeira, Ana, Spalding, Mark, Spina, Fernando, Van Parijs, Sofie, Wallace, Bryan, Varo-Cruz, Nuria, Virtue, Melanie, Weimerskirch, Henri, Wilson, Laurie, Woodward, Bill, Halpin, Patrick, Coyne, Michael, Crespo, Guillermo, Davies, Tammy, Dias, Maria, Douvere, Fanny, Ferretti, Francesco, Formia, Angela, Freestone, David, Costa, Daniel|Dan, and Friedlaender, Ari

Subjects
area-based management, areas beyond national jurisdiction, marine spatial planning, migratory species, Animal Migration, Animals, Conservation of Natural Resources, Ecosystem, Environmental Policy, Geography, Oceans and Seas
Abstract

The distributions of migratory species in the ocean span local, national and international jurisdictions. Across these ecologically interconnected regions, migratory marine species interact with anthropogenic stressors throughout their lives. Migratory connectivity, the geographical linking of individuals and populations throughout their migratory cycles, influences how spatial and temporal dynamics of stressors affect migratory animals and scale up to influence population abundance, distribution and species persistence. Population declines of many migratory marine species have led to calls for connectivity knowledge, especially insights from animal tracking studies, to be more systematically and synthetically incorporated into decision-making. Inclusion of migratory connectivity in the design of conservation and management measures is critical to ensure they are appropriate for the level of risk associated with various degrees of connectivity. Three mechanisms exist to incorporate migratory connectivity into international marine policy which guides conservation implementation: site-selection criteria, network design criteria and policy recommendations. Here, we review the concept of migratory connectivity and its use in international policy, and describe the Migratory Connectivity in the Ocean system, a migratory connectivity evidence-base for the ocean. We propose that without such collaboration focused on migratory connectivity, efforts to effectively conserve these critical species across jurisdictions will have limited effect.

Published
2019

9. The importance of migratory connectivity for global ocean policy.

Author

Dunn, Daniel C, Harrison, Autumn-Lynn, Curtice, Corrie, DeLand, Sarah, Donnelly, Ben, Fujioka, Ei, Heywood, Eleanor, Kot, Connie Y, Poulin, Sarah, Whitten, Meredith, Åkesson, Susanne, Alberini, Amalia, Appeltans, Ward, Arcos, José Manuel, Bailey, Helen, Ballance, Lisa T, Block, Barbara, Blondin, Hannah, Boustany, Andre M, Brenner, Jorge, Catry, Paulo, Cejudo, Daniel, Cleary, Jesse, Corkeron, Peter, Costa, Daniel P, Coyne, Michael, Crespo, Guillermo Ortuño, Davies, Tammy E, Dias, Maria P, Douvere, Fanny, Ferretti, Francesco, Formia, Angela, Freestone, David, Friedlaender, Ari S, Frisch-Nwakanma, Heidrun, Froján, Christopher Barrio, Gjerde, Kristina M, Glowka, Lyle, Godley, Brendan J, Gonzalez-Solis, Jacob, Granadeiro, José Pedro, Gunn, Vikki, Hashimoto, Yuriko, Hawkes, Lucy M, Hays, Graeme C, Hazin, Carolina, Jimenez, Jorge, Johnson, David E, Luschi, Paolo, Maxwell, Sara M, McClellan, Catherine, Modest, Michelle, Notarbartolo di Sciara, Giuseppe, Palacio, Alejandro Herrero, Palacios, Daniel M, Pauly, Andrea, Rayner, Matt, Rees, Alan F, Salazar, Erick Ross, Secor, David, Sequeira, Ana MM, Spalding, Mark, Spina, Fernando, Van Parijs, Sofie, Wallace, Bryan, Varo-Cruz, Nuria, Virtue, Melanie, Weimerskirch, Henri, Wilson, Laurie, Woodward, Bill, and Halpin, Patrick N

Subjects
Animals, Animal Migration, Conservation of Natural Resources, Ecosystem, Geography, Oceans and Seas, Environmental Policy, area-based management, areas beyond national jurisdiction, marine spatial planning, migratory species, Biological Sciences, Agricultural and Veterinary Sciences, Medical and Health Sciences
Abstract

The distributions of migratory species in the ocean span local, national and international jurisdictions. Across these ecologically interconnected regions, migratory marine species interact with anthropogenic stressors throughout their lives. Migratory connectivity, the geographical linking of individuals and populations throughout their migratory cycles, influences how spatial and temporal dynamics of stressors affect migratory animals and scale up to influence population abundance, distribution and species persistence. Population declines of many migratory marine species have led to calls for connectivity knowledge, especially insights from animal tracking studies, to be more systematically and synthetically incorporated into decision-making. Inclusion of migratory connectivity in the design of conservation and management measures is critical to ensure they are appropriate for the level of risk associated with various degrees of connectivity. Three mechanisms exist to incorporate migratory connectivity into international marine policy which guides conservation implementation: site-selection criteria, network design criteria and policy recommendations. Here, we review the concept of migratory connectivity and its use in international policy, and describe the Migratory Connectivity in the Ocean system, a migratory connectivity evidence-base for the ocean. We propose that without such collaboration focused on migratory connectivity, efforts to effectively conserve these critical species across jurisdictions will have limited effect.

Published
2019

10. Enhancing monitoring and transboundary collaboration for conserving migratory species under global change: The priority case of the red kite

Author

Mattsson, Brady J., Mateo-Tomás, Patricia, Aebischer, Adrian, Rösner, Sascha, Kunz, Florian, Schöll, Eva M., Åkesson, Susanne, De Rosa, Davide, Orr-Ewing, Duncan, Bodega, David de la, Ferrer, Miguel, Gelpke, Christian, Katzenberger, Jakob, Maciorowski, Grzegorz, Mammen, Ubbo, Kolbe, Martin, Millon, Alexandre, Mionnet, Aymeric, Puente, Javier de la, Raab, Rainer, Vyhnal, Stanislav, Ceccolini, Guido, Godino, Alfonso, Crespo-Luengo, Gabriela, Sanchez-Agudo, Jose Angel, Martínez, Juan, Iglesias-Lebrija, Juan J., Ginés, Ester, Cortés, Maria, Deán, Juan I., Calmaestra, Ricardo Gómez, Dostál, Marek, Steinborn, Eike, and Viñuela, Javier

Published
2022
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14. Biological Earth observation with animal sensors

Author

Åkesson, Susanne, Anisimov, Yury, Antonov, Aleksey, Arnold, Walter, Bairlein, Franz, Baltà, Oriol, Baum, Diane, Beck, Mario, Belonovich, Olga, Belyaev, Mikhail, Berger, Matthias, Berthold, Peter, Bittner, Steffen, Blake, Stephen, Block, Barbara, Bloche, Daniel, Boehning-Gaese, Katrin, Bohrer, Gil, Bojarinova, Julia, Bommas, Gerhard, Bourski, Oleg, Bragin, Albert, Bragin, Alexandr, Bristol, Rachel, Brlík, Vojtěch, Bulyuk, Victor, Cagnacci, Francesca, Carlson, Ben, Chapple, Taylor K., Chefira, Kalkidan F., Cheng, Yachang, Chernetsov, Nikita, Cierlik, Grzegorz, Christiansen, Simon S., Clarabuch, Oriol, Cochran, William, Cornelius, Jamie Margaret, Couzin, Iain, Crofoot, Margret C., Cruz, Sebastian, Davydov, Alexander, Davidson, Sarah, Dech, Stefan, Dechmann, Dina, Demidova, Ekaterina, Dettmann, Jan, Dittmar, Sven, Dorofeev, Dmitry, Drenckhahn, Detlev, Dubyanskiy, Vladimir, Egorov, Nikolay, Ehnbom, Sophie, Ellis-Soto, Diego, Ewald, Ralf, Feare, Chris, Fefelov, Igor, Fehérvári, Péter, Fiedler, Wolfgang, Flack, Andrea, Froböse, Magnus, Fufachev, Ivan, Futoran, Pavel, Gabyshev, Vyachaslav, Gagliardo, Anna, Garthe, Stefan, Gashkov, Sergey, Gibson, Luke, Goymann, Wolfgang, Gruppe, Gerd, Guglielmo, Chris, Hartl, Phil, Hedenström, Anders, Hegemann, Arne, Heine, Georg, Ruiz, Mäggi Hieber, Hofer, Heribert, Huber, Felix, Hurme, Edward, Iannarilli, Fabiola, Illa, Marc, Isaev, Arkadiy, Jakobsen, Bent, Jenni, Lukas, Jenni-Eiermann, Susi, Jesmer, Brett, Jiguet, Frédéric, Karimova, Tatiana, Kasdin, N. Jeremy, Kazansky, Fedor, Kirillin, Ruslan, Klinner, Thomas, Knopp, Andreas, Kölzsch, Andrea, Kondratyev, Alexander, Krondorf, Marco, Ktitorov, Pavel, Kulikova, Olga, Kumar, R. Suresh, Künzer, Claudia, Larionov, Anatoliy, Larose, Christine, Liechti, Felix, Linek, Nils, Lohr, Ashley, Lushchekina, Anna, Mansfield, Kate, Matantseva, Maria, Markovets, Mikhail, Marra, Peter, Masello, Juan F., Melzheimer, Jörg, Menz, Myles H.M., Menzie, Stephen, Meshcheryagina, Swetlana, Miquelle, Dale, Morozov, Vladimir, Mukhin, Andrey, Müller, Inge, Mueller, Thomas, Navedo, Juan G., Nathan, Ran, Nelson, Luke, Németh, Zoltán, Newman, Scott, Norris, Ryan, Nsengimana, Olivier, Okhlopkov, Innokentiy, Oleś, Wioleta, Oliver, Ruth, O’Mara, Teague, Palatitz, Peter, Partecke, Jesko, Pavlick, Ryan, Pedenko, Anastasia, Perry, Alys, Pham, Julie, Piechowski, Daniel, Pierce, Allison, Piersma, Theunis, Pitz, Wolfgang, Plettemeier, Dirk, Pokrovskaya, Irina, Pokrovskaya, Liya, Pokrovsky, Ivan, Pot, Morrison, Procházka, Petr, Quillfeldt, Petra, Rakhimberdiev, Eldar, Ramenofsky, Marilyn, Ranipeta, Ajay, Rapczyński, Jan, Remisiewicz, Magdalena, Rozhnov, Viatcheslav, Rienks, Froukje, Rozhnov, Vyacheslav, Rutz, Christian, Sakhvon, Vital, Sapir, Nir, Safi, Kamran, Schäuffelhut, Friedrich, Schimel, David, Schmidt, Andreas, Shamoun-Baranes, Judy, Sharikov, Alexander, Shearer, Laura, Shemyakin, Evgeny, Sherub, Sherub, Shipley, Ryan, Sica, Yanina, Smith, Thomas B., Simonov, Sergey, Snell, Katherine, Sokolov, Aleksandr, Sokolov, Vasiliy, Solomina, Olga, Soloviev, Mikhail, Spina, Fernando, Spoelstra, Kamiel, Storhas, Martin, Sviridova, Tatiana, Swenson, George, Jr, Taylor, Phil, Thorup, Kasper, Tsvey, Arseny, Tucker, Marlee, Tuppen, Sophie, Turner, Woody, Twizeyimana, Innocent, van der Jeugd, Henk, van Schalkwyk, Louis, van Toor, Mariëlle, Viljoen, Pauli, Visser, Marcel E., Volkmer, Tamara, Volkov, Andrei, Volkov, Sergey, Volkov, Oleg, von Rönn, Jan A.C., Vorneweg, Bernd, Wachter, Bettina, Waldenström, Jonas, Weber, Natalie, Wegmann, Martin, Wehr, Aloysius, Weinzierl, Rolf, Weppler, Johannes, Wilcove, David, Wild, Timm, Williams, Hannah J., Wilshire, John, Wingfield, John, Wunder, Michael, Yachmennikova, Anna, Yanco, Scott, Yohannes, Elisabeth, Zeller, Amelie, Ziegler, Christian, Zięcik, Anna, Zook, Cheryl, Jetz, Walter, Tertitski, Grigori, Kays, Roland, Mueller, Uschi, and Wikelski, Martin

Published
2022
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15. Animal migration in the Anthropocene: threats and mitigation options.

Author

Cooke, Steven J., Piczak, Morgan L., Singh, Navinder J., Åkesson, Susanne, Ford, Adam T., Chowdhury, Shawan, Mitchell, Greg W., Norris, D. Ryan, Hardesty‐Moore, Molly, McCauley, Douglas, Hammerschlag, Neil, Tucker, Marlee A., Horns, Joshua J., Reisinger, Ryan R., Kubelka, Vojtěch, and Lennox, Robert J.

Subjects
ANIMAL migration, BIOLOGICAL extinction, MIGRATORY animals, ANTHROPOGENIC effects on nature, NATURE conservation, ANIMAL mechanics, NATURAL resources management
Abstract

Animal migration has fascinated scientists and the public alike for centuries, yet migratory animals are facing diverse threats that could lead to their demise. The Anthropocene is characterised by the reality that humans are the dominant force on Earth, having manifold negative effects on biodiversity and ecosystem function. Considerable research focus has been given to assessing anthropogenic impacts on the numerical abundance of species/populations, whereas relatively less attention has been devoted to animal migration. However, there are clear linkages, for example, where human‐driven impacts on migration behaviour can lead to population/species declines or even extinction. Here, we explore anthropogenic threats to migratory animals (in all domains – aquatic, terrestrial, and aerial) using International Union for the Conservation of Nature (IUCN) Threat Taxonomy classifications. We reveal the diverse threats (e.g. human development, disease, invasive species, climate change, exploitation, pollution) that impact migratory wildlife in varied ways spanning taxa, life stages and type of impact (e.g. from direct mortality to changes in behaviour, health, and physiology). Notably, these threats often interact in complex and unpredictable ways to the detriment of wildlife, further complicating management. Fortunately, we are beginning to identify strategies for conserving and managing migratory animals in the Anthropocene. We provide a set of strategies that, if embraced, have the potential to ensure that migratory animals, and the important ecological functions sustained by migration, persist. [ABSTRACT FROM AUTHOR]

Published
2024
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17. Evolution of chain migration in an aerial insectivorous bird, the common swift Apus apus

Author

Åkesson, Susanne, Atkinson, Phil W., Bermejo, Ana, de la Puente, Javier, Ferri, Mauro, Hewson, Chris M., Holmgren, Jan, Kaiser, Erich, Kearsley, Lyndon, Klaassen, Raymond H. G., Kolunen, Heikki, Matsson, Gittan, Minelli, Fausto, Norevik, Gabriel, Pietiäinen, Hannu, Singh, Navinder J., Spina, Fernando, Viktora, Lukas, and Hedenström, Anders

Published
2020

19. Continental-scale patterns in diel flight timing of high-altitude migratory insects.

Author

Haest, Birgen, Liechti, Felix, Hawkes, Will L., Chapman, Jason, Åkesson, Susanne, Shamoun-Baranes, Judy, Nesterova, Anna P., Comor, Vincent, Preatoni, Damiano, and Bauer, Silke

Subjects
POLLINATION by bees, LIFE cycles (Biology), INSECTS, BIODIVERSITY monitoring, INSECT locomotion, CIRCADIAN rhythms, MORNINGNESS-Eveningness Questionnaire
Abstract

Many insects depend on high-altitude, migratory movements during part of their life cycle. The daily timing of these migratory movements is not random, e.g. many insect species show peak migratory flight activity at dawn, noon or dusk. These insects provide essential ecosystem services such as pollination but also contribute to crop damage. Quantifying the diel timing of their migratory flight and its geographical and seasonal variation, are hence key towards effective conservation and pest management. Vertical-looking radars provide continuous and automated measurements of insect migration, but large-scale application has not been possible because of limited availability of suitable devices. Here, we quantify patterns in diel flight periodicity of migratory insects between 50 and 500 m above ground level during March-October 2021 using a network of 17 vertical-looking radars across Europe. Independent of the overall daily migratory movements and location, peak migratory movements occur around noon, during crepuscular evening and occasionally the morning. Relative daily proportions of insect migration intensity and traffic during the diel phases of crepuscular-morning, day, crepuscular-evening and night remain largely equal throughout May-September and across Europe. These findings highlight, extend, and generalize previous regional-scale findings on diel migratory insect movement patterns to the whole of temperate Europe. This article is part of the theme issue 'Towards a toolkit for global insect biodiversity monitoring'. [ABSTRACT FROM AUTHOR]

Published
2024
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21. Methods in field chronobiology

Author

Dominoni, Davide M., Åkesson, Susanne, Klaassen, Raymond, Spoelstra, Kamiel, and Bulla, Martin

Published
2017

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