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54. Global patterns of stream detritivore distribution: implications for biodiversity loss in changing climates

Author

Boyero, Luz, Pearson, Richard G., Dudgeon, David, Ferreira, Verónica, Graça, Manuel A. S., Gessner, Mark O., Boulton, Andrew J., Chauvet, Eric, Yule, Catherine M., Albariño, Ricardo J., Ramírez, Alonso, Helson, Julie E., Callisto, Marcos, Arunachalam, Muthukumarasamy, Chará, Julián, Figueroa, Ricardo, Mathooko, Jude M., Gonçalves, José F., Moretti, Marcelo S., Chará-Serna, Ana Marcela, Davies, Judy N., Encalada, Andrea, Lamothe, Sylvain, Buria, Leonardo M., Castela, José, Cornejo, Aydeé, Li, Aggie O. Y., M'Erimba, Charles, Villanueva, Verónica Díaz, del Carmen Zúñiga, María, Swan, Christopher M., and Barmuta, Leon A.

Published
2012
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57. Global distribution of a key trophic guild contrasts with common latitudinal diversity patterns

Author

Boyero, Luz, Pearson, Richard G., Dudgeon, David, Graça, Manuel A. S., Gessner, Mark O., Albariño, Ricardo J., Ferreira, Verónica, Yule, Catherine M., Boulton, Andrew J., Arunachalam, Muthukumarasamy, Callisto, Marcos, Chauvet, Eric, Ramírez, Alonso, RAMÍREZ, ALONZO, Chará, Julián, Moretti, Marcelo S., Gonçalves,, José F., Helson, Julie E., Chará-Serna, Ana M., Encalada, Andrea C., Davies, Judy N., Lamothe, Sylvain, Cornejo, Aydeè, Li, Aggie O. Y., Buria, Leonardo M., Villanueva, Verónica D., Zúñiga, María C., and Pringle, Catherine M.

Published
2011

68. Latitudinal gradient of nestedness and its potential drivers in stream detritivores

Author

Boyero, Luz, Pearson, Richard G., Swan, Christopher M., Hui, Cang, Albariño, Ricardo J., Arunachalam, Muthukumarasamy, Callisto, Marcos, Chará, Julián, Chará-Serna, Ana M., Chauvet, Eric, Cornejo, Aydeé, Dudgeon, David, Encalada, Andrea C., Ferreira, Verónica, Gessner, Mark O., Gonçalves, José F., Jr, Graça, Manuel A. S., Helson, Julie E., Mathooko, Jude M., McKie, Brendan G., Moretti, Marcelo S., and Yule, Catherine M.

Published
2015
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70. Latitude dictates plant diversity effects on instream decomposition

Author

Boyero, Luis, Pérez, Javier, López-Rojo, Naiara, Tonin, Alan M., Correa-Araneda, Francisco, Pearson, Richard G., Bosch, Jaime, Eusko Jaurlaritza, European Commission, and Fundação para a Ciência e a Tecnologia (Portugal)

Abstract

Running waters contribute substantially to global carbon fluxes through decomposition of terrestrial plant litter by aquatic microorganisms and detritivores. Diversity of this litter may influence instream decomposition globally in ways that are not yet understood. We investigated latitudinal differences in decomposition of litter mixtures of low and high functional diversity in 40 streams on 6 continents and spanning 113° of latitude. Despite important variability in our dataset, we found latitudinal differences in the effect of litter functional diversity on decomposition, which we explained as evolutionary adaptations of litter-consuming detritivores to resource availability. Specifically, a balanced diet effect appears to operate at lower latitudes versus a resource concentration effect at higher latitudes. The latitudinal pattern indicates that loss of plant functional diversity will have different consequences on carbon fluxes across the globe, with greater repercussions likely at low latitudes., This study was part of the DecoDiv project conducted by the GLoBE network (www.globenetwork.es), which is coordinated by L.B. Most research was based on crowdfunding (details on specific funding sources at each region are given in the Supplementary Materials). Project coordination was funded by Basque Government funds (ref. IT951-16) to the Stream Ecology Group (UPV/EHU, Spain). Litter trait analyses were funded by the 2014–2020 Operational Programme FEDER Andalusia, Spain (ref. UAL18-RNM-B006-B to J.J.C.) and the Portuguese Science Foundation, Portugal (ref. UIDB/04292/2020 to MARE).

Published
2021
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71. Effects of gamma irradiation on instream leaf litter decomposition

Author

Biología vegetal y ecología, Landaren biologia eta ekologia, Boyero González, María Luz, López Rojo, Naiara, Pérez Viñuela, Javier, Tonin, Alan M., Correa Araneda, Francisco, Davis, Aaron M., Pearson, Richard G., Biología vegetal y ecología, Landaren biologia eta ekologia, Boyero González, María Luz, López Rojo, Naiara, Pérez Viñuela, Javier, Tonin, Alan M., Correa Araneda, Francisco, Davis, Aaron M., and Pearson, Richard G.

Abstract

[EN]Leaf litter decomposition is a key process in stream ecosystems, the rates of which can vary with changes in litter quality or its colonization by microorganisms. Decomposition in streams is increasingly used to compare ecosystem functioning globally, often requiring the distribution of litter across countries. It is important to understand whether litter sterilization, which is required by some countries, can alter the rates of decomposition and associated processes. We examined whether litter sterilization with gamma irradiation (25 kGy) influenced decomposition rates, litter stoichiometry, and colonization by invertebrates after weeks of instream incubation within coarse-mesh and fine-mesh litterbags. We used nine plant species from three families that varied widely in litter chemistry but found mostly consistent responses, with no differences in decomposition rates or numbers of invertebrates found at the end of the incubation period. However, litter stoichiometry differed between irradiated and control litter, with greater nutrient losses (mostly phosphorus) in the former. Therefore, the effects of irradiation on litter chemistry should be taken into account in studies focused on stoichiometry but not necessarily in those focused on decomposition rates, at least within the experimental timescale considered here.

Published
2021

72. Impacts of Detritivore Diversity Loss on Instream Decomposition Are Greatest in the Tropics

Author

Biología vegetal y ecología, Landaren biologia eta ekologia, Boyero González, María Luz, López Rojo, Naiara, Tonin, Alan M., Pérez Viñuela, Javier, Correa Araneda, Francisco, Pearson, Richard G., Bosch, Jaime, Albariño, Ricardo J., Anbalagan, Sankarappan, Barmuta, Leon A., Basaguren del Campo, Ana Luisa, Burdon, Francis J., Caliman, Adriano, Callisto, Marcos, Calor, Adolfo R., Campbell, Ian C., Cardinale, Bradley J., Casas Jiménez, José Jesús, Chara Serna, Ana M., Chauvet, Eric, Ciapala, Szymon, Colón-Gaud, Checo, Cornejo, Aydeé, Davis, Aaron M., Degebrodt, Monika, Dias, Emerson S., Díaz, María E., Douglas, Michael M., Encalada, Andrea C., Figueroa, Ricardo, Flecker, Alexander S., Fleituch, Tadeusz, García, Erica A., García, Gabriela, García, Pavel E., Gessner, Mark O., Gómez, Jesús E., Gómez, Sergio, Gonçalves Jr., José F., Graça, Manuel A. S., Gwinn, Daniel C., Hall Jr., Robert O., Hamada, Neusa, Hui, Cang, Imazawa, Daichi, Iwata, Tomoya, Kariuki, Samuel, Landeira-Dabarca, Andrea, Laymon, Kelsey, Leal, María, Marchant, Richard, Martins, Renato T., Masese, Frank O., Maul, Megan, McKie, Brendan G., Medeiros, Adriana O., M'Erimba, Charles, Middleton, Jen A., Monroy Zarzuelo, Silvia, Muotka, Timo, Negishi, Junjiro N., Ramírez, Alonso, Richardson, John S., Rincón, José, Rubio Ríos, Juan, Dos Santos, Gisele M., Sarremejane, Romain, Sheldon, Fran, Sitati, Augustine, Tenkiano, Nathalie S. D., Tiegs, Scott D., Tolod, Janine R., Venarsky, Michael, Watson, Anne, Yule, Catherine M., Biología vegetal y ecología, Landaren biologia eta ekologia, Boyero González, María Luz, López Rojo, Naiara, Tonin, Alan M., Pérez Viñuela, Javier, Correa Araneda, Francisco, Pearson, Richard G., Bosch, Jaime, Albariño, Ricardo J., Anbalagan, Sankarappan, Barmuta, Leon A., Basaguren del Campo, Ana Luisa, Burdon, Francis J., Caliman, Adriano, Callisto, Marcos, Calor, Adolfo R., Campbell, Ian C., Cardinale, Bradley J., Casas Jiménez, José Jesús, Chara Serna, Ana M., Chauvet, Eric, Ciapala, Szymon, Colón-Gaud, Checo, Cornejo, Aydeé, Davis, Aaron M., Degebrodt, Monika, Dias, Emerson S., Díaz, María E., Douglas, Michael M., Encalada, Andrea C., Figueroa, Ricardo, Flecker, Alexander S., Fleituch, Tadeusz, García, Erica A., García, Gabriela, García, Pavel E., Gessner, Mark O., Gómez, Jesús E., Gómez, Sergio, Gonçalves Jr., José F., Graça, Manuel A. S., Gwinn, Daniel C., Hall Jr., Robert O., Hamada, Neusa, Hui, Cang, Imazawa, Daichi, Iwata, Tomoya, Kariuki, Samuel, Landeira-Dabarca, Andrea, Laymon, Kelsey, Leal, María, Marchant, Richard, Martins, Renato T., Masese, Frank O., Maul, Megan, McKie, Brendan G., Medeiros, Adriana O., M'Erimba, Charles, Middleton, Jen A., Monroy Zarzuelo, Silvia, Muotka, Timo, Negishi, Junjiro N., Ramírez, Alonso, Richardson, John S., Rincón, José, Rubio Ríos, Juan, Dos Santos, Gisele M., Sarremejane, Romain, Sheldon, Fran, Sitati, Augustine, Tenkiano, Nathalie S. D., Tiegs, Scott D., Tolod, Janine R., Venarsky, Michael, Watson, Anne, and Yule, Catherine M.

Abstract

The relationship between detritivore diversity and decomposition can provide information on how biogeochemical cycles are affected by ongoing rates of extinction, but such evidence has come mostly from local studies and microcosm experiments. We conducted a globally distributed experiment (38 streams across 23 countries in 6 continents) using standardised methods to test the hypothesis that detritivore diversity enhances litter decomposition in streams, to establish the role of other characteristics of detritivore assemblages (abundance, biomass and body size), and to determine how patterns vary across realms, biomes and climates. We observed a positive relationship between diversity and decomposition, strongest in tropical areas, and a key role of abundance and biomass at higher latitudes. Our results suggest that litter decomposition might be altered by detritivore extinctions, particularly in tropical areas, where detritivore diversity is already relatively low and some environmental stressors particularly prevalent.

Published
2021

73. Latitude Dictates Plant Diversity Effects on Instream Decomposition

Author

Biología vegetal y ecología, Landaren biologia eta ekologia, Boyero González, María Luz, Pérez, Javier, López Rojo, Naiara, Tonin, Alan M., Correa Araneda, Francisco, Pearson, Richard G., Bosch, Jaime, Albariño, Ricardo J., Anbalagan, Sankarappan, Barmuta, Leon A., Beesley, Leah, Burdon, Francis J., Caliman, Adriano, Callisto, Marcos, Campbell, Ian C., Cardinale, Bradley J., Casas Jiménez, José Jesús, Chara Serna, Ana M., Ciapala, Szymon, Chauvet, Eric, Colón-Gaud, Checo, Cornejo, Aydeé, Davis, Aaron M., Degebrodt, Monika, Dias, Emerson S., Díaz, María E., Douglas, Michael M., Elosegi Irurtia, Arturo, Encalada, Andrea C., De Eyto, Elvira, Figueroa, Ricardo, Flecker, Alexander S., Fleituch, Tadeusz, Frainer, André, Franca, Juliana S., García, Erica A., García, Gabriela, García, Pavel, Gessner, Mark O., Giller, Paul S., Gómez, Jesús E., Gómez, Sergio, Gonçalves Jr., José F., Graça, Manuel A. S., Hall Jr., Robert O., Hamada, Neusa, Hepp, Luiz U., Hui, Cang, Imazawa, Daichi, Iwata, Tomoya, Edson Jr., S. A., Kariuki, Samuel, Landeira-Dabarca, Andrea, Leal, María, Lehosmaa, Kaisa, M'Erimba, Charles, Marchant, Richard, Martins, Renato T., Masese, Frank O., Camden, Megan, McKie, Brendan G., Medeiros, Adriana O., Middleton, Jen A., Muotka, Timo, Negishi, Junjiro N., Pozo Martínez, Jesús, Ramírez, Alonso, Rezende, Renan S., Richardson, John S., Rincón, José, Rubio Ríos, Juan, Serrano, Claudia, Shaffer, Angela R., Sheldon, Fran, Swan, Christopher M., Tenkiano, Nathalie S. D., Tiegs, Scott D., Tolod, Janine R., Vernasky, Michael, Watson, Anne, Yegon, Mourine J., Yule, Catherine M., Biología vegetal y ecología, Landaren biologia eta ekologia, Boyero González, María Luz, Pérez, Javier, López Rojo, Naiara, Tonin, Alan M., Correa Araneda, Francisco, Pearson, Richard G., Bosch, Jaime, Albariño, Ricardo J., Anbalagan, Sankarappan, Barmuta, Leon A., Beesley, Leah, Burdon, Francis J., Caliman, Adriano, Callisto, Marcos, Campbell, Ian C., Cardinale, Bradley J., Casas Jiménez, José Jesús, Chara Serna, Ana M., Ciapala, Szymon, Chauvet, Eric, Colón-Gaud, Checo, Cornejo, Aydeé, Davis, Aaron M., Degebrodt, Monika, Dias, Emerson S., Díaz, María E., Douglas, Michael M., Elosegi Irurtia, Arturo, Encalada, Andrea C., De Eyto, Elvira, Figueroa, Ricardo, Flecker, Alexander S., Fleituch, Tadeusz, Frainer, André, Franca, Juliana S., García, Erica A., García, Gabriela, García, Pavel, Gessner, Mark O., Giller, Paul S., Gómez, Jesús E., Gómez, Sergio, Gonçalves Jr., José F., Graça, Manuel A. S., Hall Jr., Robert O., Hamada, Neusa, Hepp, Luiz U., Hui, Cang, Imazawa, Daichi, Iwata, Tomoya, Edson Jr., S. A., Kariuki, Samuel, Landeira-Dabarca, Andrea, Leal, María, Lehosmaa, Kaisa, M'Erimba, Charles, Marchant, Richard, Martins, Renato T., Masese, Frank O., Camden, Megan, McKie, Brendan G., Medeiros, Adriana O., Middleton, Jen A., Muotka, Timo, Negishi, Junjiro N., Pozo Martínez, Jesús, Ramírez, Alonso, Rezende, Renan S., Richardson, John S., Rincón, José, Rubio Ríos, Juan, Serrano, Claudia, Shaffer, Angela R., Sheldon, Fran, Swan, Christopher M., Tenkiano, Nathalie S. D., Tiegs, Scott D., Tolod, Janine R., Vernasky, Michael, Watson, Anne, Yegon, Mourine J., and Yule, Catherine M.

Abstract

Running waters contribute substantially to global carbon fluxes through decomposition of terrestrial plant litter by aquatic microorganisms and detritivores. Diversity of this litter may influence instream decomposition globally in ways that are not yet understood. We investigated latitudinal differences in decomposition of litter mixtures of low and high functional diversity in 40 streams on 6 continents and spanning 113 degrees of latitude. Despite important variability in our dataset, we found latitudinal differences in the effect of litter functional diversity on decomposition, which we explained as evolutionary adaptations of litter-consuming detritivores to resource availability. Specifically, a balanced diet effect appears to operate at lower latitudes versus a resource concentration effect at higher latitudes. The latitudinal pattern indicates that loss of plant functional diversity will have different consequences on carbon fluxes across the globe, with greater repercussions likely at low latitudes.

Published
2021

74. Latitude dictates plant diversity effects on instream decomposition

Author

Eusko Jaurlaritza, European Commission, Fundação para a Ciência e a Tecnologia (Portugal), Boyero, Luis, Pérez, Javier, López-Rojo, Naiara, Tonin, Alan M., Correa-Araneda, Francisco, Pearson, Richard G., Bosch, Jaime, Eusko Jaurlaritza, European Commission, Fundação para a Ciência e a Tecnologia (Portugal), Boyero, Luis, Pérez, Javier, López-Rojo, Naiara, Tonin, Alan M., Correa-Araneda, Francisco, Pearson, Richard G., and Bosch, Jaime

Abstract

Running waters contribute substantially to global carbon fluxes through decomposition of terrestrial plant litter by aquatic microorganisms and detritivores. Diversity of this litter may influence instream decomposition globally in ways that are not yet understood. We investigated latitudinal differences in decomposition of litter mixtures of low and high functional diversity in 40 streams on 6 continents and spanning 113° of latitude. Despite important variability in our dataset, we found latitudinal differences in the effect of litter functional diversity on decomposition, which we explained as evolutionary adaptations of litter-consuming detritivores to resource availability. Specifically, a balanced diet effect appears to operate at lower latitudes versus a resource concentration effect at higher latitudes. The latitudinal pattern indicates that loss of plant functional diversity will have different consequences on carbon fluxes across the globe, with greater repercussions likely at low latitudes.

Published
2021

75. Impacts of detritivore diversity loss on instream decomposition are greatest in the tropics

Author

Eusko Jaurlaritza, Universidad del País Vasco, Boyero, Luz, López-Rojo, Naiara, Tonin, Alan M., Pérez, Javier, Correa-Araneda, Francisco, Pearson, Richard G., Bosch, Jaime, Eusko Jaurlaritza, Universidad del País Vasco, Boyero, Luz, López-Rojo, Naiara, Tonin, Alan M., Pérez, Javier, Correa-Araneda, Francisco, Pearson, Richard G., and Bosch, Jaime

Abstract

he relationship between detritivore diversity and decomposition can provide information on how biogeochemical cycles are affected by ongoing rates of extinction, but such evidence has come mostly from local studies and microcosm experiments. We conducted a globally distributed experiment (38 streams across 23 countries in 6 continents) using standardised methods to test the hypothesis that detritivore diversity enhances litter decomposition in streams, to establish the role of other characteristics of detritivore assemblages (abundance, biomass and body size), and to determine how patterns vary across realms, biomes and climates. We observed a positive relationship between diversity and decomposition, strongest in tropical areas, and a key role of abundance and biomass at higher latitudes. Our results suggest that litter decomposition might be altered by detritivore extinctions, particularly in tropical areas, where detritivore diversity is already relatively low and some environmental stressors particularly prevalent.

Published
2021

77. Climate change, land cover change, and overharvesting threaten a widely used medicinal plant in South Africa.

Author

Groner, Vivienne P., Nicholas, Owen, Mabhaudhi, Tafadzwanashe, Slotow, Rob, Akçakaya, H. Reşit, Mace, Georgina M., and Pearson, Richard G.

Subjects
LAND cover, MEDICINAL plants, CLIMATE change, POOR communities, ECOSYSTEM services, SPECIES distribution
Abstract

Medicinal plants contribute substantially to the well‐being of people in large parts of the world, providing traditional medicine and supporting livelihoods from trading plant parts, which is especially significant for women in low‐income communities. However, the availability of wild medicinal plants is increasingly threatened; for example, the Natal Lily (Clivia miniata), which is one of the most widely traded plants in informal medicine markets in South Africa, lost over 40% of individuals over the last 90 years. Understanding the species' response to individual and multiple pressures is essential for prioritizing and planning conservation actions. To gain this understanding, we simulated the future range and abundance of C. miniata by coupling Species Distribution Models with a metapopulation model (RAMAS‐GIS). We contrasted scenarios of climate change (RCP2.6 vs. RCP8.5), land cover change (intensification vs. expansion), and harvesting (only juveniles vs. all life‐stages). All our scenarios pointed to continuing declines in suitable habitat and abundance by the 2050s. When acting independently, climate change, land cover change, and harvesting each reduced the projected abundance substantially, with land cover change causing the most pronounced declines. Harvesting individuals from all life stages affected the projected metapopulation size more negatively than extracting only juveniles. When the three pressures acted together, declines of suitable habitat and abundance accelerated but uncertainties were too large to identify whether pressures acted synergistically, additively, or antagonistically. Our results suggest that conservation should prioritize the protection of suitable habitat and ensure sustainable harvesting to support a viable metapopulation under realistic levels of climate change. Inadequate management of C. miniata populations in the wild will likely have negative consequences for the well‐being of people relying on this ecosystem service, and we expect there may be comparable consequences relating to other medicinal plants in different parts of the world. [ABSTRACT FROM AUTHOR]

Published
2022
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78. Latitude dictates plant diversity effects on instream decomposition

Author

Boyero, Luz, primary, Pérez, Javier, additional, López-Rojo, Naiara, additional, Tonin, Alan M., additional, Correa-Araneda, Francisco, additional, Pearson, Richard G., additional, Bosch, Jaime, additional, Albariño, Ricardo J., additional, Anbalagan, Sankarappan, additional, Barmuta, Leon A., additional, Beesley, Leah, additional, Burdon, Francis J., additional, Caliman, Adriano, additional, Callisto, Marcos, additional, Campbell, Ian C., additional, Cardinale, Bradley J., additional, Casas, J. Jesús, additional, Chará-Serna, Ana M., additional, Ciapała, Szymon, additional, Chauvet, Eric, additional, Colón-Gaud, Checo, additional, Cornejo, Aydeé, additional, Davis, Aaron M., additional, Degebrodt, Monika, additional, Dias, Emerson S., additional, Díaz, María E., additional, Douglas, Michael M., additional, Elosegi, Arturo, additional, Encalada, Andrea C., additional, de Eyto, Elvira, additional, Figueroa, Ricardo, additional, Flecker, Alexander S., additional, Fleituch, Tadeusz, additional, Frainer, André, additional, França, Juliana S., additional, García, Erica A., additional, García, Gabriela, additional, García, Pavel, additional, Gessner, Mark O., additional, Giller, Paul S., additional, Gómez, Jesús E., additional, Gómez, Sergio, additional, Gonçalves, Jose F., additional, Graça, Manuel A. S., additional, Hall, Robert O., additional, Hamada, Neusa, additional, Hepp, Luiz U., additional, Hui, Cang, additional, Imazawa, Daichi, additional, Iwata, Tomoya, additional, Junior, Edson S. A., additional, Kariuki, Samuel, additional, Landeira-Dabarca, Andrea, additional, Leal, María, additional, Lehosmaa, Kaisa, additional, M’Erimba, Charles, additional, Marchant, Richard, additional, Martins, Renato T., additional, Masese, Frank O., additional, Camden, Megan, additional, McKie, Brendan G., additional, Medeiros, Adriana O., additional, Middleton, Jen A., additional, Muotka, Timo, additional, Negishi, Junjiro N., additional, Pozo, Jesús, additional, Ramírez, Alonso, additional, Rezende, Renan S., additional, Richardson, John S., additional, Rincón, José, additional, Rubio-Ríos, Juan, additional, Serrano, Claudia, additional, Shaffer, Angela R., additional, Sheldon, Fran, additional, Swan, Christopher M., additional, Tenkiano, Nathalie S. D., additional, Tiegs, Scott D., additional, Tolod, Janine R., additional, Vernasky, Michael, additional, Watson, Anne, additional, Yegon, Mourine J., additional, and Yule, Catherine M., additional

Published
2021
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85. Discovering Biodiversity

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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86. Linking Niches with Evolutionary Processes

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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87. Niches and Geographic Distributions

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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88. Species’ Occurrence Data

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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89. The Geography of Disease Transmission

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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90. Conservation Planning and Climate Change Effects

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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91. Niches and Distributions in Practice: Overview

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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92. Modeling Ecological Niches

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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93. Introduction to Applications

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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94. Species’ Invasions

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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95. Conclusions

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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96. Introduction

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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97. From Niches to Distributions

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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98. Concepts of Niches

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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99. Evaluating Model Performance and Significance

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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100. Environmental Data

Author

Peterson, A. Townsend, primary, Soberón, Jorge, additional, Pearson, Richard G., additional, Anderson, Robert P., additional, Martínez-Meyer, Enrique, additional, Nakamura, Miguel, additional, and Araújo, Miguel Bastos, additional

Published
2011
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