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Your search keyword '"Novosolov, Maria"' showing total 16 results
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16 results on '"Novosolov, Maria"'

1. Plastic and genomic change of a newly established lizard population following a founder event

Author

Sabolić, Iva, primary, Mira, Óscar, additional, Brandt, Débora Y. C., additional, Lisičić, Duje, additional, Stapley, Jessica, additional, Novosolov, Maria, additional, Bakarić, Robert, additional, Cizelj, Ivan, additional, Glogoški, Marko, additional, Hudina, Tomislav, additional, Taverne, Maxime, additional, Allentoft, Morten E., additional, Nielsen, Rasmus, additional, Herrel, Anthony, additional, and Štambuk, Anamaria, additional

Published
2023
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2. A global analysis of viviparity in squamates highlights its prevalence in cold climates

Author

Zimin, Anna, primary, Zimin, Sean V., additional, Shine, Richard, additional, Avila, Luciano, additional, Bauer, Aaron, additional, Böhm, Monika, additional, Brown, Rafe, additional, Barki, Goni, additional, de Oliveira Caetano, Gabriel Henrique, additional, Castro Herrera, Fernando, additional, Chapple, David G., additional, Chirio, Laurent, additional, Colli, Guarino R., additional, Doan, Tiffany M., additional, Glaw, Frank, additional, Grismer, L. Lee, additional, Itescu, Yuval, additional, Kraus, Fred, additional, LeBreton, Matthew, additional, Martins, Marcio, additional, Morando, Mariana, additional, Murali, Gopal, additional, Nagy, Zoltán T., additional, Novosolov, Maria, additional, Oliver, Paul, additional, Passos, Paulo, additional, Pauwels, Olivier S. G., additional, Pincheira‐Donoso, Daniel, additional, Ribeiro‐Junior, Marco Antonio, additional, Shea, Glenn, additional, Tingley, Reid, additional, Torres‐Carvajal, Omar, additional, Trape, Jean‐François, additional, Uetz, Peter, additional, Wagner, Philipp, additional, Roll, Uri, additional, and Meiri, Shai, additional

Published
2022
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3. The global biogeography of lizard functional groups

Author

Vidan, Enav, primary, Novosolov, Maria, additional, Bauer, Aaron M., additional, Herrera, Fernando Castro, additional, Chirio, Laurent, additional, de Campos Nogueira, Cristiano, additional, Doan, Tiffany M., additional, Lewin, Amir, additional, Meirte, Danny, additional, Nagy, Zoltan T., additional, Pincheira‐Donoso, Daniel, additional, Tallowin, Oliver J.S., additional, Torres Carvajal, Omar, additional, Uetz, Peter, additional, Wagner, Philipp, additional, Wang, Yuezhao, additional, Belmaker, Jonathan, additional, and Meiri, Shai, additional

Published
2019
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7. Patterns of species richness, endemism and environmental gradients of African reptiles

Author

Lewin, Amir, primary, Feldman, Anat, additional, Bauer, Aaron M., additional, Belmaker, Jonathan, additional, Broadley, Donald G., additional, Chirio, Laurent, additional, Itescu, Yuval, additional, LeBreton, Matthew, additional, Maza, Erez, additional, Meirte, Danny, additional, Nagy, Zoltán T., additional, Novosolov, Maria, additional, Roll, Uri, additional, Tallowin, Oliver, additional, Trape, Jean-François, additional, Vidan, Enav, additional, and Meiri, Shai, additional

Published
2016
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8. Are lizards feeling the heat?: a tale of ecology and evolution under two temperatures

Author

Meiri, Shai, Bauer, Aaron M., Chirio, Laurent, Colli, Guarino R., Das, Indraneil, Doan, Tiffany M., Feldman, Anat, Herrera, Fernando-Castro, Novosolov, Maria, Pafilis, Panayiotis, Pincheira-Donoso, Daniel, Powney, Gary, Torres-Carvajal, Omar, Uetz, Peter, and Van Damme, Raoul

Subjects
Ecology and Environment
Abstract

Aim: Temperature influences most components of animal ecology and life history – but what kind of temperature? Physiologists usually examine the influence of body temperatures, while biogeographers and macroecologists tend to focus on environmental temperatures. We aim to examine the relationship between these two measures, to determine the factors that affect lizard body temperatures and to test the effect of both temperature measures on lizard life history. Location: World-wide. Methods: We used a large (861 species) global dataset of lizard body temperatures, and the mean annual temperatures across their geographic ranges to examine the relationships between body and mean annual temperatures. We then examined factors influencing body temperatures, and tested for the influence of both on ecological and life-history traits while accounting for the influence of shared ancestry. Results: Body temperatures and mean annual temperatures are uncorrelated. However, accounting for activity time (nocturnal species have low body temperatures), use of space (fossorial and semi-aquatic species are ‘colder’), insularity (mainland species are ‘hotter’) and phylogeny, the two temperatures are positively correlated. High body temperatures are only associated with larger hatchlings and increased rates of biomass production. Annual temperatures are positively correlated with clutch frequency and annual longevity, and negatively correlated with clutch size, age at first reproduction and longevity. Main conclusions: Lizards with low body temperatures do not seem to have ‘slower’ life-history attributes than species with high body temperatures. The longer seasons prevalent in warm regions, and physiological processes that operate while lizards are inactive (but warm enough), make environmental temperatures better predictors of lizard life-history variation than body temperatures. This surprisingly greater effect of environmental temperatures on lizard life histories hints that global warming may have a profound influence on lizard ecology and evolution.

Published
2013

13. Are lizards feeling the heat? A tale of ecology and evolution under two temperatures

Author

Meiri, Shai, primary, Bauer, Aaron M., additional, Chirio, Laurent, additional, Colli, Guarino R., additional, Das, Indraneil, additional, Doan, Tiffany M., additional, Feldman, Anat, additional, Herrera, Fernando-Castro, additional, Novosolov, Maria, additional, Pafilis, Panayiotis, additional, Pincheira-Donoso, Daniel, additional, Powney, Gary, additional, Torres-Carvajal, Omar, additional, Uetz, Peter, additional, and Van Damme, Raoul, additional

Published
2013
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15. Late bloomers and baby boomers: ecological drivers of longevity in squamates and the tuatara

Author

Scharf, Inon, Feldman, Anat, Novosolov, Maria, Pincheira-Donoso, Daniel, Das, Indraneil, Bohm, Monica, Uetz, Peter, Torres-Carvajal, Omar, Bauer, Aaron, Roll, Uri, Meiri, Shai, Scharf, Inon, Feldman, Anat, Novosolov, Maria, Pincheira-Donoso, Daniel, Das, Indraneil, Bohm, Monica, Uetz, Peter, Torres-Carvajal, Omar, Bauer, Aaron, Roll, Uri, and Meiri, Shai

Abstract

Longevity is an important life-history trait, directly linked to the core attributes of fitness (reproduction and survival), yet large-scale comparative studies quantifying its implications for the ecology and life history of ectotherms are scarce. We tested the allometry of longevity in squamates and the tuatara, and determined how longevity is related to key environmental characteristics and life-history traits. Predictions based on life-history theory are expected to hold true for ectotherms, similarly to mammals and birds. Location: World-wide. Methods: We assembled from the literature a dataset of the maximum longevities of more than a thousand squamate species, representing c. 10 of their known species diversity, their phylogenetic relationships and multiple life-history and ecological variables. Correcting for phylogeny, we modelled the link between squamate longevity and both key life-history traits, such as body mass and age at first reproduction, and important environmental factors, such as latitude and primary productivity within species distributional ranges. Results: Large-bodied species live for longer than small ones, but body size explains far less of the variance in longevity than it does in mammals and birds. Accounting for body size, squamate brood frequency is negatively correlated with longevity, while age at first reproduction is positively correlated with longevity. This points to a continuum of slow-to-fast life-history strategies. Squamates in high latitudes and cold regions live for longer, probably because a shorter season of activity translates to slower development, older age at first reproduction and hence to increased longevity. Individuals live longer in captivity than in the wild. Herbivorous and omnivorous squamates live for longer than carnivorous ones. We postulate that low-quality nutrition reduces growth rates, promotes a relative decline in reproductive rates and thus prolongs life. Main conclusions: Our results support key pre

16. Late bloomers and baby boomers: ecological drivers of longevity in squamates and the tuatara

Author

Scharf, Inon, Feldman, Anat, Novosolov, Maria, Pincheira-Donoso, Daniel, Das, Indraneil, Bohm, Monica, Uetz, Peter, Torres-Carvajal, Omar, Bauer, Aaron, Roll, Uri, Meiri, Shai, Scharf, Inon, Feldman, Anat, Novosolov, Maria, Pincheira-Donoso, Daniel, Das, Indraneil, Bohm, Monica, Uetz, Peter, Torres-Carvajal, Omar, Bauer, Aaron, Roll, Uri, and Meiri, Shai

Abstract

Longevity is an important life-history trait, directly linked to the core attributes of fitness (reproduction and survival), yet large-scale comparative studies quantifying its implications for the ecology and life history of ectotherms are scarce. We tested the allometry of longevity in squamates and the tuatara, and determined how longevity is related to key environmental characteristics and life-history traits. Predictions based on life-history theory are expected to hold true for ectotherms, similarly to mammals and birds. Location: World-wide. Methods: We assembled from the literature a dataset of the maximum longevities of more than a thousand squamate species, representing c. 10 of their known species diversity, their phylogenetic relationships and multiple life-history and ecological variables. Correcting for phylogeny, we modelled the link between squamate longevity and both key life-history traits, such as body mass and age at first reproduction, and important environmental factors, such as latitude and primary productivity within species distributional ranges. Results: Large-bodied species live for longer than small ones, but body size explains far less of the variance in longevity than it does in mammals and birds. Accounting for body size, squamate brood frequency is negatively correlated with longevity, while age at first reproduction is positively correlated with longevity. This points to a continuum of slow-to-fast life-history strategies. Squamates in high latitudes and cold regions live for longer, probably because a shorter season of activity translates to slower development, older age at first reproduction and hence to increased longevity. Individuals live longer in captivity than in the wild. Herbivorous and omnivorous squamates live for longer than carnivorous ones. We postulate that low-quality nutrition reduces growth rates, promotes a relative decline in reproductive rates and thus prolongs life. Main conclusions: Our results support key pre

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