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2. Reading tea leaves worldwide: Decoupled drivers of initial litter decomposition mass‐loss rate and stabilization

Author

Sarneel, Judith M., primary, Hefting, Mariet M., additional, Sandén, Taru, additional, van den Hoogen, Johan, additional, Routh, Devin, additional, Adhikari, Bhupendra S., additional, Alatalo, Juha M., additional, Aleksanyan, Alla, additional, Althuizen, Inge H. J., additional, Alsafran, Mohammed H. S. A., additional, Atkins, Jeff W., additional, Augusto, Laurent, additional, Aurela, Mika, additional, Azarov, Aleksej V., additional, Barrio, Isabel C., additional, Beier, Claus, additional, Bejarano, María D., additional, Benham, Sue E., additional, Berg, Björn, additional, Bezler, Nadezhda V., additional, Björnsdóttir, Katrín, additional, Bolinder, Martin A., additional, Carbognani, Michele, additional, Cazzolla Gatti, Roberto, additional, Chelli, Stefano, additional, Chistotin, Maxim V., additional, Christiansen, Casper T., additional, Courtois, Pascal, additional, Crowther, Thomas W., additional, Dechoum, Michele S., additional, Djukic, Ika, additional, Duddigan, Sarah, additional, Egerton‐Warburton, Louise M., additional, Fanin, Nicolas, additional, Fantappiè, Maria, additional, Fares, Silvano, additional, Fernandes, Geraldo W., additional, Filippova, Nina V., additional, Fliessbach, Andreas, additional, Fuentes, David, additional, Godoy, Roberto, additional, Grünwald, Thomas, additional, Guzmán, Gema, additional, Hawes, Joseph E., additional, He, Yue, additional, Hero, Jean‐Marc, additional, Hess, Laura L., additional, Hogendoorn, Katja, additional, Høye, Toke T., additional, Jans, Wilma W. P., additional, Jónsdóttir, Ingibjörg S., additional, Keller, Sabina, additional, Kepfer‐Rojas, Sebastian, additional, Kuz'menko, Natalya N., additional, Larsen, Klaus S., additional, Laudon, Hjalmar, additional, Lembrechts, Jonas J., additional, Li, Junhui, additional, Limousin, Jean‐Marc, additional, Lukin, Sergey M., additional, Marques, Renato, additional, Marín, César, additional, McDaniel, Marshall D., additional, Meek, Qi, additional, Merzlaya, Genrietta E., additional, Michelsen, Anders, additional, Montagnani, Leonardo, additional, Mueller, Peter, additional, Murugan, Rajasekaran, additional, Myers‐Smith, Isla H., additional, Nolte, Stefanie, additional, Ochoa‐Hueso, Raúl, additional, Okafor, Bernard N., additional, Okorkov, Vladimir V., additional, Onipchenko, Vladimir G., additional, Orozco, María C., additional, Parkhurst, Tina, additional, Peres, Carlos A., additional, Petit Bon, Matteo, additional, Petraglia, Alessandro, additional, Pingel, Martin, additional, Rebmann, Corinna, additional, Scheffers, Brett R., additional, Schmidt, Inger, additional, Scholes, Mary C., additional, Sheffer, Efrat, additional, Shevtsova, Lyudmila K., additional, Smith, Stuart W., additional, Sofo, Adriano, additional, Stevenson, Pablo R., additional, Strouhalová, Barbora, additional, Sundsdal, Anders, additional, Sühs, Rafael B., additional, Tamene, Gebretsadik, additional, Thomas, Haydn J. D., additional, Tolunay, Duygu, additional, Tomaselli, Marcello, additional, Tresch, Simon, additional, Tucker, Dominique L., additional, Ulyshen, Michael D., additional, Valdecantos, Alejandro, additional, Vandvik, Vigdis, additional, Vanguelova, Elena I., additional, Verheyen, Kris, additional, Wang, Xuhui, additional, Yahdjian, Laura, additional, Yumashev, Xaris S., additional, and Keuskamp, Joost A., additional

Published
2024
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3. Reading tea leaves worldwide : decoupled drivers of initial litter decomposition mass-loss rate and stabilization

Author

Sarneel, Judith M., Hefting, Mariet M., Sandén, Taru, van den Hoogen, Johan, Routh, Devin, Adhikari, Bhupendra S., Alatalo, Juha M., Aleksanyan, Alla, Althuizen, Inge H. J., Alsafran, Mohammed H. S. A., Atkins, Jeff W., Augusto, Laurent, Aurela, Mika, Azarov, Aleksej V., Barrio, Isabel C., Beier, Claus, Bejarano, María D., Benham, Sue E., Berg, Björn, Bezler, Nadezhda V., Björnsdóttir, Katrín, Bolinder, Martin A., Carbognani, Michele, Cazzolla Gatti, Roberto, Chelli, Stefano, Chistotin, Maxim V., Christiansen, Casper T., Courtois, Pascal, Crowther, Thomas W., Dechoum, Michele S., Djukic, Ika, Duddigan, Sarah, Egerton-Warburton, Louise M., Fanin, Nicolas, Fantappiè, Maria, Fares, Silvano, Fernandes, Geraldo W., Filippova, Nina V., Fliessbach, Andreas, Fuentes, David, Godoy, Roberto, Grünwald, Thomas, Guzmán, Gema, Hawes, Joseph E., He, Yue, Hero, Jean-Marc, Hess, Laura L., Hogendoorn, Katja, Høye, Toke T., Jans, Wilma W. P., Jónsdóttir, Ingibjörg S., Keller, Sabina, Kepfer-Rojas, Sebastian, Kuz'menko, Natalya N., Larsen, Klaus S., Laudon, Hjalmar, Lembrechts, Jonas J., Li, Junhui, Limousin, Jean-Marc, Lukin, Sergey M., Marques, Renato, Marín, César, McDaniel, Marshall D., Meek, Qi, Merzlaya, Genrietta E., Michelsen, Anders, Montagnani, Leonardo, Mueller, Peter, Murugan, Rajasekaran, Myers-Smith, Isla H., Nolte, Stefanie, Ochoa-Hueso, Raúl, Okafor, Bernard N., Okorkov, Vladimir V., Onipchenko, Vladimir G., Orozco, María C., Parkhurst, Tina, Peres, Carlos A., Petit Bon, Matteo, Petraglia, Alessandro, Pingel, Martin, Rebmann, Corinna, Scheffers, Brett R., Schmidt, Inger, Scholes, Mary C., Sheffer, Efrat, Shevtsova, Lyudmila K., Smith, Stuart W., Sofo, Adriano, Stevenson, Pablo R., Strouhalová, Barbora, Sundsdal, Anders, Sühs, Rafael B., Tamene, Gebretsadik, Thomas, Haydn J. D., Tolunay, Duygu, Tomaselli, Marcello, Tresch, Simon, Tucker, Dominique L., Ulyshen, Michael D., Valdecantos, Alejandro, Vandvik, Vigdis, Vanguelova, Elena I., Verheyen, Kris, Wang, Xuhui, Yahdjian, Laura, Yumashev, Xaris S., Keuskamp, Joost A., Sarneel, Judith M., Hefting, Mariet M., Sandén, Taru, van den Hoogen, Johan, Routh, Devin, Adhikari, Bhupendra S., Alatalo, Juha M., Aleksanyan, Alla, Althuizen, Inge H. J., Alsafran, Mohammed H. S. A., Atkins, Jeff W., Augusto, Laurent, Aurela, Mika, Azarov, Aleksej V., Barrio, Isabel C., Beier, Claus, Bejarano, María D., Benham, Sue E., Berg, Björn, Bezler, Nadezhda V., Björnsdóttir, Katrín, Bolinder, Martin A., Carbognani, Michele, Cazzolla Gatti, Roberto, Chelli, Stefano, Chistotin, Maxim V., Christiansen, Casper T., Courtois, Pascal, Crowther, Thomas W., Dechoum, Michele S., Djukic, Ika, Duddigan, Sarah, Egerton-Warburton, Louise M., Fanin, Nicolas, Fantappiè, Maria, Fares, Silvano, Fernandes, Geraldo W., Filippova, Nina V., Fliessbach, Andreas, Fuentes, David, Godoy, Roberto, Grünwald, Thomas, Guzmán, Gema, Hawes, Joseph E., He, Yue, Hero, Jean-Marc, Hess, Laura L., Hogendoorn, Katja, Høye, Toke T., Jans, Wilma W. P., Jónsdóttir, Ingibjörg S., Keller, Sabina, Kepfer-Rojas, Sebastian, Kuz'menko, Natalya N., Larsen, Klaus S., Laudon, Hjalmar, Lembrechts, Jonas J., Li, Junhui, Limousin, Jean-Marc, Lukin, Sergey M., Marques, Renato, Marín, César, McDaniel, Marshall D., Meek, Qi, Merzlaya, Genrietta E., Michelsen, Anders, Montagnani, Leonardo, Mueller, Peter, Murugan, Rajasekaran, Myers-Smith, Isla H., Nolte, Stefanie, Ochoa-Hueso, Raúl, Okafor, Bernard N., Okorkov, Vladimir V., Onipchenko, Vladimir G., Orozco, María C., Parkhurst, Tina, Peres, Carlos A., Petit Bon, Matteo, Petraglia, Alessandro, Pingel, Martin, Rebmann, Corinna, Scheffers, Brett R., Schmidt, Inger, Scholes, Mary C., Sheffer, Efrat, Shevtsova, Lyudmila K., Smith, Stuart W., Sofo, Adriano, Stevenson, Pablo R., Strouhalová, Barbora, Sundsdal, Anders, Sühs, Rafael B., Tamene, Gebretsadik, Thomas, Haydn J. D., Tolunay, Duygu, Tomaselli, Marcello, Tresch, Simon, Tucker, Dominique L., Ulyshen, Michael D., Valdecantos, Alejandro, Vandvik, Vigdis, Vanguelova, Elena I., Verheyen, Kris, Wang, Xuhui, Yahdjian, Laura, Yumashev, Xaris S., and Keuskamp, Joost A.

Abstract

The breakdown of plant material fuels soil functioning and biodiversity. Currently, process understanding of global decomposition patterns and the drivers of such patterns are hampered by the lack of coherent large-scale datasets. We buried 36,000 individual litterbags (tea bags) worldwide and found an overall negative correlation between initial mass-loss rates and stabilization factors of plant-derived carbon, using the Tea Bag Index (TBI). The stabilization factor quantifies the degree to which easy-to-degrade components accumulate during early-stage decomposition (e.g. by environmental limitations). However, agriculture and an interaction between moisture and temperature led to a decoupling between initial mass-loss rates and stabilization, notably in colder locations. Using TBI improved mass-loss estimates of natural litter compared to models that ignored stabilization. Ignoring the transformation of dead plant material to more recalcitrant substances during early-stage decomposition, and the environmental control of this transformation, could overestimate carbon losses during early decomposition in carbon cycle models.

Published
2024
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4. Reading tea leaves worldwide:Decoupled drivers of initial litter decomposition mass-loss rate and stabilization

Author

Sarneel, Judith M., Hefting, Mariet M., Sandén, Taru, van den Hoogen, Johan, Routh, Devin, Adhikari, Bhupendra S., Alatalo, Juha M., Aleksanyan, Alla, Althuizen, Inge H.J., Alsafran, Mohammed H.S.A., Atkins, Jeff W., Augusto, Laurent, Aurela, Mika, Azarov, Aleksej V., Barrio, Isabel C., Beier, Claus, Bejarano, María D., Benham, Sue E., Berg, Björn, Bezler, Nadezhda V., Björnsdóttir, Katrín, Bolinder, Martin A., Carbognani, Michele, Cazzolla Gatti, Roberto, Chelli, Stefano, Chistotin, Maxim V., Christiansen, Casper T., Courtois, Pascal, Crowther, Thomas W., Dechoum, Michele S., Djukic, Ika, Duddigan, Sarah, Egerton-Warburton, Louise M., Fanin, Nicolas, Fantappiè, Maria, Fares, Silvano, Fernandes, Geraldo W., Filippova, Nina V., Fliessbach, Andreas, Fuentes, David, Godoy, Roberto, Grünwald, Thomas, Guzmán, Gema, Hawes, Joseph E., He, Yue, Hero, Jean Marc, Hess, Laura L., Hogendoorn, Katja, Høye, Toke T., Jans, Wilma W.P., Jónsdóttir, Ingibjörg S., Keller, Sabina, Kepfer-Rojas, Sebastian, Kuz'menko, Natalya N., Larsen, Klaus S., Laudon, Hjalmar, Lembrechts, Jonas J., Li, Junhui, Limousin, Jean Marc, Lukin, Sergey M., Marques, Renato, Marín, César, McDaniel, Marshall D., Meek, Qi, Merzlaya, Genrietta E., Michelsen, Anders, Montagnani, Leonardo, Mueller, Peter, Murugan, Rajasekaran, Myers-Smith, Isla H., Nolte, Stefanie, Ochoa-Hueso, Raúl, Okafor, Bernard N., Okorkov, Vladimir V., Onipchenko, Vladimir G., Orozco, María C., Parkhurst, Tina, Peres, Carlos A., Petit Bon, Matteo, Petraglia, Alessandro, Pingel, Martin, Rebmann, Corinna, Scheffers, Brett R., Schmidt, Inger, Scholes, Mary C., Sheffer, Efrat, Shevtsova, Lyudmila K., Smith, Stuart W., Sofo, Adriano, Stevenson, Pablo R., Strouhalová, Barbora, Sundsdal, Anders, Sühs, Rafael B., Tamene, Gebretsadik, Thomas, Haydn J. D., Tolunay, Duygu, Tomaselli, Marcello, Tresch, Simon, Tucker, Dominique L., Ulyshen, Michael D., Valdecantos, Alejandro, Vandvik, Vigdis, Vanguelova, Elena I., Verheyen, Kris, Wang, Xuhui, Yahdjian, Laura, Yumashev, Xaris S., Keuskamp, Joost A., Sarneel, Judith M., Hefting, Mariet M., Sandén, Taru, van den Hoogen, Johan, Routh, Devin, Adhikari, Bhupendra S., Alatalo, Juha M., Aleksanyan, Alla, Althuizen, Inge H.J., Alsafran, Mohammed H.S.A., Atkins, Jeff W., Augusto, Laurent, Aurela, Mika, Azarov, Aleksej V., Barrio, Isabel C., Beier, Claus, Bejarano, María D., Benham, Sue E., Berg, Björn, Bezler, Nadezhda V., Björnsdóttir, Katrín, Bolinder, Martin A., Carbognani, Michele, Cazzolla Gatti, Roberto, Chelli, Stefano, Chistotin, Maxim V., Christiansen, Casper T., Courtois, Pascal, Crowther, Thomas W., Dechoum, Michele S., Djukic, Ika, Duddigan, Sarah, Egerton-Warburton, Louise M., Fanin, Nicolas, Fantappiè, Maria, Fares, Silvano, Fernandes, Geraldo W., Filippova, Nina V., Fliessbach, Andreas, Fuentes, David, Godoy, Roberto, Grünwald, Thomas, Guzmán, Gema, Hawes, Joseph E., He, Yue, Hero, Jean Marc, Hess, Laura L., Hogendoorn, Katja, Høye, Toke T., Jans, Wilma W.P., Jónsdóttir, Ingibjörg S., Keller, Sabina, Kepfer-Rojas, Sebastian, Kuz'menko, Natalya N., Larsen, Klaus S., Laudon, Hjalmar, Lembrechts, Jonas J., Li, Junhui, Limousin, Jean Marc, Lukin, Sergey M., Marques, Renato, Marín, César, McDaniel, Marshall D., Meek, Qi, Merzlaya, Genrietta E., Michelsen, Anders, Montagnani, Leonardo, Mueller, Peter, Murugan, Rajasekaran, Myers-Smith, Isla H., Nolte, Stefanie, Ochoa-Hueso, Raúl, Okafor, Bernard N., Okorkov, Vladimir V., Onipchenko, Vladimir G., Orozco, María C., Parkhurst, Tina, Peres, Carlos A., Petit Bon, Matteo, Petraglia, Alessandro, Pingel, Martin, Rebmann, Corinna, Scheffers, Brett R., Schmidt, Inger, Scholes, Mary C., Sheffer, Efrat, Shevtsova, Lyudmila K., Smith, Stuart W., Sofo, Adriano, Stevenson, Pablo R., Strouhalová, Barbora, Sundsdal, Anders, Sühs, Rafael B., Tamene, Gebretsadik, Thomas, Haydn J. D., Tolunay, Duygu, Tomaselli, Marcello, Tresch, Simon, Tucker, Dominique L., Ulyshen, Michael D., Valdecantos, Alejandro, Vandvik, Vigdis, Vanguelova, Elena I., Verheyen, Kris, Wang, Xuhui, Yahdjian, Laura, Yumashev, Xaris S., and Keuskamp, Joost A.

Abstract

The breakdown of plant material fuels soil functioning and biodiversity. Currently, process understanding of global decomposition patterns and the drivers of such patterns are hampered by the lack of coherent large-scale datasets. We buried 36,000 individual litterbags (tea bags) worldwide and found an overall negative correlation between initial mass-loss rates and stabilization factors of plant-derived carbon, using the Tea Bag Index (TBI). The stabilization factor quantifies the degree to which easy-to-degrade components accumulate during early-stage decomposition (e.g. by environmental limitations). However, agriculture and an interaction between moisture and temperature led to a decoupling between initial mass-loss rates and stabilization, notably in colder locations. Using TBI improved mass-loss estimates of natural litter compared to models that ignored stabilization. Ignoring the transformation of dead plant material to more recalcitrant substances during early-stage decomposition, and the environmental control of this transformation, could overestimate carbon losses during early decomposition in carbon cycle models.

Published
2024

5. The founding charter of the Genomic Observatories Network

Author

Davies, Neil, Field, Dawn, Amaral-Zettler, Linda, Clark, Melody S, Deck, John, Drummond, Alexei, Faith, Daniel P, Geller, Jonathan, Gilbert, Jack, Glöckner, Frank Oliver, Hirsch, Penny R, Leong, Jo-Ann, Meyer, Chris, Obst, Matthias, Planes, Serge, Scholin, Chris, Vogler, Alfried P, Gates, Ruth D, Toonen, Rob, Berteaux-Lecellier, Véronique, Barbier, Michèle, Barker, Katherine, Bertilsson, Stefan, Bicak, Mesude, Bietz, Matthew J, Bobe, Jason, Bodrossy, Levente, Borja, Angel, Coddington, Jonathan, Fuhrman, Jed, Gerdts, Gunnar, Gillespie, Rosemary, Goodwin, Kelly, Hanson, Paul C, Hero, Jean-Marc, Hoekman, David, Jansson, Janet, Jeanthon, Christian, Kao, Rebecca, Klindworth, Anna, Knight, Rob, Kottmann, Renzo, Koo, Michelle S, Kotoulas, Georgios, Lowe, Andrew J, Marteinsson, Viggó Thór, Meyer, Folker, Morrison, Norman, Myrold, David D, Pafilis, Evangelos, Parker, Stephanie, Parnell, John Jacob, Polymenakou, Paraskevi N, Ratnasingham, Sujeevan, Roderick, George K, Rodriguez-Ezpeleta, Naiara, Schonrogge, Karsten, Simon, Nathalie, Valette-Silver, Nathalie J, Springer, Yuri P, Stone, Graham N, Stones-Havas, Steve, Sansone, Susanna-Assunta, Thibault, Kate M, Wecker, Patricia, Wichels, Antje, Wooley, John C, Yahara, Tetsukazu, Zingone, Adriana, and GOs-COS

Subjects
Biodiversity, Genomics, Biocode, Earth observations, GOs-COS
Abstract

The co-authors of this paper hereby state their intention to work together to launch the Genomic Observatories Network (GOs Network) for which this document will serve as its Founding Charter. We define a Genomic Observatory as an ecosystem and/or site subject to long-term scientific research, including (but not limited to) the sustained study of genomic biodiversity from single-celled microbes to multicellular organisms.An international group of 64 scientists first published the call for a global network of Genomic Observatories in January 2012. The vision for such a network was expanded in a subsequent paper and developed over a series of meetings in Bremen (Germany), Shenzhen (China), Moorea (French Polynesia), Oxford (UK), Pacific Grove (California, USA), Washington (DC, USA), and London (UK). While this community-building process continues, here we express our mutual intent to establish the GOs Network formally, and to describe our shared vision for its future. The views expressed here are ours alone as individual scientists, and do not necessarily represent those of the institutions with which we are affiliated.

Published
2014

22. The 10 Australian ecosystems most vulnerable to tipping points

Author

Laurance, William F, Dell, Bernard, Gawne, Ben, McMahon, Clive R, Yu, Richard, Hero, Jean-Marc, Schwarzkopf, Lin, Krockenberger, Andrew, Setterfield, Samantha A, Douglas, Michael, Silvester, Ewen, Mahony, Michael, Turton, Stephen M, Vella, Karen, Saikia, Udoy, Wahren, Carl-Henrik, Xu, Zhihong, Smith, Bradley, Cocklin, Chris, Lawes, Michael J, Hutley, Lindsay B, McCallum, Hamish, Dale, Patricia, Bird, Michael, Hardy, Giles, and Prideaux, Gavin

Abstract

MDFRC item.DOI:10.1016/j.biocon.2011.01.016.May 2011.We identify the 10 major terrestrial and marine ecosystems in Australia most vulnerable to tipping points, in which modest environmental changes can cause disproportionately large changes in ecosystem properties. To accomplish this we independently surveyed the coauthors of this paper to produce a list of candidate ecosystems, and then refined this list during a 2-day workshop. The list includes (1) elevationally restricted mountain ecosystems, (2) tropical savannas, (3) coastal floodplains and wetlands, (4) coral reefs, (5) drier rainforests, (6) wetlands and floodplains in the Murray-Darling Basin, (7) the Mediterranean ecosystems of southwestern Australia, (8) offshore islands, (9) temperate eucalypt forests, and (10) salt marshes and mangroves. Some of these ecosystems are vulnerable to widespread phase-changes that could fundamentally alter ecosystem properties such as habitat structure, species composition, fire regimes, or carbon storage. Others appear susceptible to major changes across only part of their geographic range, whereas yet others are susceptible to a large-scale decline of key biotic components, such as small mammals or stream-dwelling amphibians. For each ecosystem we consider the intrinsic features and external drivers that render it susceptible to tipping points, and identify subtypes of the ecosystem that we deem to be especially vulnerable.

Published
2023
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25. Multi-taxa Surveys: Integrating Ecosystem Processes and User Demands

Author

Magnusson, William E., Lawson, Ben, Baccaro, Fabricio, de Castilho, Carolina Volkmer, Guy Castley, J., Costa, Flavia, Drucker, Debora P., Franklin, Elizabeth, Lima, Albertina P., Luizão, Regina, Mendonça, Fernando, Pezzini, Flávia, Schietti, Juliana, Toledo, José Julio, Tourinho, Ana, Verdade, Luciano M., Hero, Jean-Marc, Verdade, Luciano M., editor, Lyra-Jorge, Maria Carolina, editor, and Piña, Carlos I., editor

Published
2014
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32. Engineering a future for amphibians under climate change

Author

Shoo, Luke P., Olson, Deanna H., McMenamin, Sarah K., Murray, Kris A., Van Sluys, Monique, Donnelly, Maureen A., Stratford, Danial, Terhivuo, Juhani, Merino-Viteri, Andres, Herbert, Sarah M., Bishop, Phillip J., Corn, Paul Stephen, Dovey, Liz, Griffiths, Richard A., Lowe, Katrin, Mahony, Michael, McCallum, Hamish, Shuker, Jonathan D., Simpkins, Clay, Skerratt, Lee F., Williams, Stephen E., and Hero, Jean-Marc

Published
2011
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33. The Impact of Conservation on the Status of the World's Vertebrates

Author

Hoffmann, Michael, Hilton-Taylor, Craig, Angulo, Ariadne, Böhm, Monika, Brooks, Thomas M., Butchart, Stuart H. M., Carpenter, Kent E., Chanson, Janice, Collen, Ben, Cox, Neil A., Darwall, William R. T., Dulvy, Nicholas K., Harrison, Lucy R., Katariya, Vineet, Pollock, Caroline M., Quader, Suhel, Richman, Nadia I., Rodrigues, Ana S. L., Tognelli, Marcelo F., Vie, Jean-Christophe, Aguiar, John M., Allen, David J., Allen, Gerald R., Amori, Giovanni, Ananjeva, Natalia B., Andreone, Franco, Andrew, Paul, Ortiz, Aida Luz Aquino, Baillie, Jonathan E. M., Baldi, Ricardo, Bell, Ben D., Biju, S. D., Bird, Jeremy P., Black-Decima, Patricia, Blanc, J. Julian, Bolaños, Federico, Bolivar-G., Wilmar, Burfield, Ian J., Burton, James A., Capper, David R., Castro, Fernando, Catullo, Gianluca, Cavanagh, Rachel D., Channing, Alan, Chao, Ning Labbish, Chenery, Anna M., Chiozza, Federica, Clausnitzer, Viola, Collar, Nigel J., Collett, Leah C., Collette, Bruce B., Fernandez, Claudia F. Cortez, Craig, Matthew T., Crosby, Michael J., Cumberlidge, Neil, Cuttelod, Annabelle, Derocher, Andrew E., Diesmos, Arvin C., Donaldson, John S., Duckworth, J. W., Dutson, Guy, Dutta, S. K., Emslie, Richard H., Farjon, Aljos, Fowler, Sarah, Freyhof, Jörg, Garshelis, David L., Gerlach, Justin, Gower, David J., Grant, Tandora D., Hammerson, Geoffrey A., Harris, Richard B., Heaney, Lawrence R., Hedges, S. Blair, Hero, Jean-Marc, Hughes, Baz, Hussain, Syed Ainul, Icochea M., Javier, Inger, Robert F., Ishii, Nobuo, Iskandar, Djoko T., Jenkins, Richard K. B., Kaneko, Yoshio, Kottelat, Maurice, Kovacs, Kit M., Kuzmin, Sergius L., La Marca, Enrique, Lamoreux, John F., Lau, Michael W. N., Lavilla, Esteban O., Leus, Kristin, Lewison, Rebecca L., Lichtenstein, Gabriela, Livingstone, Suzanne R., Lukoschek, Vimoksalehi, Mallon, David P., McGowan, Philip J. K., Mclvor, Anna, Moehlman, Patricia D., Molur, Sanjay, Alonso, Antonio Muñoz, Musick, John A., Nowell, Kristin, Nussbaum, Ronald A., Olech, Wanda, Orlov, Nikolay L., Papenfuss, Theodore J., Parra-Olea, Gabriela, Perrin, William F., Polidoro, Beth A., Pourkazemi, Mohammad, Racey, Paul A., Ragle, James S., Ram, Mala, Rathbun, Galen, Reynolds, Robert P., Rhodin, Anders G. J., Richards, Stephen J., Rodríguez, Lily O., Ron, Santiago R., Rondinini, Carlo, Rylands, Anthony B., de Mitcheson, Yvonne Sadovy, Sanciangco, Jonnell C., Sanders, Kate L., Santos-Barrera, Georgina, Schipper, Jan, Self-Sullivan, Caryn, Shi, Yichuan, Shoemaker, Alan, Short, Frederick T., Sillero-Zubiri, Claudio, Silvano, Débora L., Smith, Kevin G., Smith, Andrew T., Snoeks, Jos, Stattersfield, Alison J., Symes, Andrew J., Taber, Andrew B., Talukdar, Bibhab K., Temple, Helen J., Timmins, Rob, Tobias, Joseph A., Tsytsulina, Katerina, Tweddle, Denis, Ubeda, Carmen, Valenti, Sarah V., van Dijk, Peter Paul, Veiga, Liza M., Veloso, Alberto, Wege, David C., Wilkinson, Mark, Williamson, Elizabeth A., Xie, Feng, Young, Bruce E., Akçakaya, H. Resit, Bennun, Leon, Blackburn, Tim M., Boitani, Luigi, Dublin, Holly T., da Fonseca, Gustavo A. B., Gascon, Claude, Lacher, Thomas E., Mace, Georgina M., Mainka, Susan A., McNeely, Jeffery A., Mittermeier, Russell A., Reid, Gordon McGregor, Rodriguez, Jon Paul, Rosenberg, Andrew A., Samways, Michael J., Smart, Jane, Stein, Bruce A., and Stuart, Simon N.

Published
2010

35. The distribution and host range of the pandemic disease chytridiomycosis in Australia, spanning surveys from 1956–2007

Author

Murray, Kris, Retallick, Richard, McDonald, Keith R., Mendez, Diana, Aplin, Ken, Kirkpatrick, Peter, Berger, Lee, Hunter, David, Hines, Harry B., Campbell, R., Pauza, Matthew, Driessen, Michael, Speare, Richard, Richards, Stephen J., Mahony, Michael, Freeman, Alastair, Phillott, Andrea D., Hero, Jean-Marc, Kriger, Kerry, Driscoll, Don, Felton, Adam, Puschendorf, Robert, and Skerratt, Lee F.

Published
2010

37. Review

Author

Hero, Jean-Marc

Published
2005

39. Red hot frogs: identifying the Australian frogs most at risk of extinction

Author

Geyle, Hayley M., primary, Hoskin, Conrad J., additional, Bower, Deborah S., additional, Catullo, Renee, additional, Clulow, Simon, additional, Driessen, Michael, additional, Daniels, Katrina, additional, Garnett, Stephen T., additional, Gilbert, Deon, additional, Heard, Geoffrey W., additional, Hero, Jean-Marc, additional, Hines, Harry B., additional, Hoffmann, Emily P., additional, Hollis, Greg, additional, Hunter, David A., additional, Lemckert, Frank, additional, Mahony, Michael, additional, Marantelli, Gerry, additional, McDonald, Keith R., additional, Mitchell, Nicola J., additional, Newell, David, additional, Roberts, J. Dale, additional, Scheele, Ben C., additional, Scroggie, Michael, additional, Vanderduys, Eric, additional, Wassens, Skye, additional, West, Matt, additional, Woinarski, John C. Z., additional, and Gillespie, Graeme R., additional

Published
2021
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49. Battling habitat loss: suitability of anthropogenic waterbodies for amphibians associated with naturally acidic, oligotrophic environments.

Author

Simpkins, Clay Alan, Castley, James Guy, Shuker, Jonathan D., Morrison, Clare, and Hero, Jean-Marc

Subjects
BODIES of water, AMPHIBIANS, TADPOLES, WILDLIFE conservation, ARTIFICIAL habitats, HABITATS, ENDANGERED species, HABITAT destruction
Abstract

Habitat destruction is a key threatening process for amphibians. Modified or anthropogenic waterbodies can be used to compensate for habitat loss, with several amphibian species utilising created or modified waterbodies. We measured usage of anthropogenic/modified waterbodies by adult and tadpole frog species, including threatened species, in coastal wallum habitat in eastern Australia. Nine road trenches/ditches, 8 artificial 'lakes', 6 golf course waterbodies and 13 natural waterbodies were surveyed for frog adults and tadpoles during the summer/spring period 2011–2012. Additionally, we examined the relationship between frog assemblages and environmental factors (water chemistry, aquatic predators, vegetation types), focusing on Litoria olongburensis and Litoria fallax. Frog species richness differed between waterbody types, with two of three threatened frog species present in both natural and anthropogenic/modified waterbodies. The frog assemblage was influenced by pH, turbidity, salinity and percentage cover of certain vegetation types. Measured abundance of L. olongburensis adults and tadpoles were highest in natural waterbodies with high sedge density and low pH. The measured abundance of adult L. fallax was highest within artificial lakes. We conclude that differences in water chemistry and vegetation density can affect the amphibian assemblage within these environments. Therefore, effective conservation of all frog species would be enhanced by conserving a variety of waterbody types. However, natural waterbodies are more likely to be used by threatened species and the conservation of these waterbodies provides the best conservation outcomes. Where habitat offsets may be required, environmental managers should critically assess the quality of constructed habitat for specialist frog species including those associated with acidic, oligotrophic environments. Wallum frogs are unique as they occur in naturally acidic, oligotrophic waterbodies. These waterbodies and the habitat surrounding them are often influenced by human disturbances. This article looks at determining the suitability of anthropogenic waterbodies for wallum frogs. We found that naturally occurring waterbodies are most suited for wallum frogs. [ABSTRACT FROM AUTHOR]

Published
2022
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