Search

Your search keyword '"Esteban, Genoveva F."' showing total 228 results
Start Over Author "Esteban, Genoveva F."
228 results on '"Esteban, Genoveva F."'

4. Symbiosis

Author

Esteban, Genoveva F., Fenchel, Tom M., Esteban, Genoveva F., and Fenchel, Tom M.

Published
2020
Full Text
View/download PDF

8. Feeding

Author

Esteban, Genoveva F., Fenchel, Tom M., Esteban, Genoveva F., and Fenchel, Tom M.

Published
2020
Full Text
View/download PDF

10. Bioenergetics

Author

Esteban, Genoveva F., Fenchel, Tom M., Esteban, Genoveva F., and Fenchel, Tom M.

Published
2020
Full Text
View/download PDF

21. Contributors to Volume IV

Author

Abebe, Eyualem, primary, Anokhin, Boris, additional, Araujo, Rafael, additional, Bain, Bonnie A., additional, Balsamo, Maria, additional, Bartsch, Ilse, additional, Bekker, Eugeniya I., additional, Bielecki, Aleksander, additional, Brandis, Dirk, additional, Daneliya, Mikhail E., additional, Decraemer, Wilfrida, additional, DeWalt, R. Edward, additional, d’Hondt, Jean-Loup, additional, Eisendle-Flöckner, Ursula, additional, Esteban, Genoveva F., additional, Gelder, Stuart R., additional, Gil, João, additional, Glagolev, Sergei M., additional, Glasby, Christopher J., additional, Govedich, Fredric R., additional, Grilli, Paolo, additional, Guidetti, Roberto, additional, Hansknecht, Tom, additional, Horne, David J., additional, Jankowski, Thomas, additional, Klaus, Sebastian, additional, Korovchinsky, Nikolai M., additional, Kotov, Alexey A., additional, Lee, Dong Ju, additional, Lee, Wonchoel, additional, Lewis, Julian J., additional, Lovell, Lawrence L., additional, Manconi, Renata, additional, Martens, Koen, additional, Martin, Daniel, additional, Martin, Patrick, additional, Meisch, Claude, additional, Morino, Hiroshi, additional, Moser, William E., additional, Nakano, Takafumi, additional, Naruse, Tohru, additional, Nelson, Diane R., additional, Ng, Ngan Kee, additional, Noreña, Carolina, additional, Pati, Sameer Kumar, additional, Petryashov, Victor V., additional, Porfiriev, Andrey, additional, Pronzato, Roberto, additional, Rebecchi, Lorena, additional, Resh, Vincent H., additional, Rogers, D. Christopher, additional, Sarma, S.S.S., additional, Schmidt-Rhaesa, Andreas, additional, Segers, Hendrik, additional, Sinev, Artem Y., additional, Sket, Boris, additional, Smirnov, Nikolai N., additional, Snell, T.W., additional, Strand, Malin, additional, Sundberg, Per, additional, Takhteev, Vadim, additional, Thorp, James H., additional, Timm, Tarmo, additional, Timoshkin, Oleg, additional, Utevsky, Serge, additional, Väinölä, Risto, additional, Van Syoc, Robert J., additional, Vinarski, Maxim V., additional, Wallace, Robert L., additional, Walsh, E.J., additional, Warren, Alan, additional, Watling, Les, additional, Wood, Timothy S., additional, and Yeo, Darren C.J., additional

Published
2019
Full Text
View/download PDF

29. Contributors to Volume II

Author

Álvarez, Fernando, primary, Bain, Bonnie A., additional, Bartsch, llse, additional, Behan-Pelletier, Valerie, additional, Bolek, Matthew G., additional, Brinkhurst, Ralph O., additional, Brusa, Francisco, additional, Campbell, Richard D., additional, Cho, Joo-lae, additional, Cook, David R., additional, Cummings, Kevin S., additional, Damborenea, Cristina, additional, Edward DeWalt, R., additional, Esteban, Genoveva F., additional, Fetzner, James W., additional, Finlay, Bland J., additional, Gelder, Stuart R., additional, Govedich, Fredric R., additional, Graf, Daniel L., additional, Guidetti, Roberto, additional, Hanelt, Ben, additional, Hann, Brenda J., additional, Hansknecht, Tom, additional, Horne, David J., additional, Lewis, Julian J., additional, Lovell, Lawrence L., additional, Kånneby, Tobias, additional, Manconi, Renata, additional, Moser, William E., additional, Nelson, Diane R., additional, Noreña, Carolina, additional, Norton, Roy A., additional, Oceguera-Figueroa, Alejandro, additional, Phillips, Anna J., additional, Poinar, George O., additional, Price, Wayne, additional, Pronzato, Roberto, additional, Rebecchi, Lorena, additional, Reid, Janet W., additional, Resh, Vincent H., additional, Richardson, Dennis J., additional, Rogers, D. Christopher, additional, Sarma, S.S.S., additional, Schmidt-Rhaesa, Andreas, additional, Segers, Hendrik, additional, Smith, Alison J., additional, Smith, Ian M., additional, Snell, T.W., additional, Strand, Malin, additional, Sundberg, Per, additional, Taylor, Christopher A., additional, Thoma, Roger F., additional, Thorp, James H., additional, Van Syoc, Robert J., additional, Cristina de Villalobos, L., additional, Wallace, Robert L., additional, Walsh, Elizabeth J., additional, Warren, Alan, additional, Wood, Timothy S., additional, and Zanca, Fernanda, additional

Published
2016
Full Text
View/download PDF

30. Protozoa

Author

Warren, Alan, primary, Esteban, Genoveva F., additional, and Finlay, Bland J., additional

Published
2016
Full Text
View/download PDF

36. Convergent Evolution of Hydrogenosomes from Mitochondria by Gene Transfer and Loss

Author

Lewis, William H, Lind, Anders E., Sendra, Kacper M., Onsbring Gustafson, Henning, Williams, Tom A., Esteban, Genoveva F., Hirt, Robert P., Ettema, Thijs J. G., Embley, T. Martin, Lewis, William H, Lind, Anders E., Sendra, Kacper M., Onsbring Gustafson, Henning, Williams, Tom A., Esteban, Genoveva F., Hirt, Robert P., Ettema, Thijs J. G., and Embley, T. Martin

Abstract

Hydrogenosomes are H-2-producing mitochondrial homologs found in some anaerobic microbial eukaryotes that provide a rare intracellular niche for H-2-utilizing endosymbiotic archaea. Among ciliates, anaerobic and aerobic lineages are interspersed, demonstrating that the switch to an anaerobic lifestyle with hydrogenosomes has occurred repeatedly and independently. To investigate the molecular details of this transition, we generated genomic and transcriptomic data sets from anaerobic ciliates representing three distinct lineages. Our data demonstrate that hydrogenosomes have evolved from ancestral mitochondria in each case and reveal different degrees of independent mitochondrial genome and proteome reductive evolution, including the first example of complete mitochondrial genome loss in ciliates. Intriguingly, the FeFe-hydrogenase used for generating H-2 has a unique domain structure among eukaryotes and appears to have been present, potentially through a single lateral gene transfer from an unknown donor, in the common aerobic ancestor of all three lineages. The early acquisition and retention of FeFe-hydrogenase helps to explain the facility whereby mitochondrial function can be so radically modified within this diverse and ecologically important group of microbial eukaryotes.

Published
2020
Full Text
View/download PDF

37. Convergent Evolution of Hydrogenosomes from Mitochondria by Gene Transfer and Loss

Author

Lewis, William H., Lind, Anders E., Sendra, Kacper M., Onsbring, Henning, Williams, Tom A., Esteban, Genoveva F., Hirt, Robert P., Ettema, Thijs J.G., Embley, T.M., Lewis, William H., Lind, Anders E., Sendra, Kacper M., Onsbring, Henning, Williams, Tom A., Esteban, Genoveva F., Hirt, Robert P., Ettema, Thijs J.G., and Embley, T.M.

Abstract

Hydrogenosomes are H2-producing mitochondrial homologs found in some anaerobic microbial eukaryotes that provide a rare intracellular niche for H2-utilizing endosymbiotic archaea. Among ciliates, anaerobic and aerobic lineages are interspersed, demonstrating that the switch to an anaerobic lifestyle with hydrogenosomes has occurred repeatedly and independently. To investigate the molecular details of this transition, we generated genomic and transcriptomic data sets from anaerobic ciliates representing three distinct lineages. Our data demonstrate that hydrogenosomes have evolved from ancestral mitochondria in each case and reveal different degrees of independent mitochondrial genome and proteome reductive evolution, including the first example of complete mitochondrial genome loss in ciliates. Intriguingly, the FeFe-hydrogenase used for generating H2 has a unique domain structure among eukaryotes and appears to have been present, potentially through a single lateral gene transfer from an unknown donor, in the common aerobic ancestor of all three lineages. The early acquisition and retention of FeFe-hydrogenase helps to explain the facility whereby mitochondrial function can be so radically modified within this diverse and ecologically important group of microbial eukaryotes.

Published
2020

38. Protozoa

Author

Finlay, Bland J., primary and Esteban, Genoveva F., additional

Published
2013
Full Text
View/download PDF

40. Protistological science dissemination

Author

Buonanno, Federico, primary, Dolan, John R., additional, Esteban, Genoveva F., additional, Hines, Hunter N., additional, Kamra, Komal, additional, Kosakyan, Anush, additional, Miceli, Cristina, additional, Samaritani, Emanuela, additional, Vannini, Claudia, additional, and Warren, Alan, additional

Published
2020
Full Text
View/download PDF

48. Cosmopolitan Metapopulations?

Author

Fenchel, Tom, Finlay, Bland J., Esteban, Genoveva F., Fenchel, Tom, Finlay, Bland J., and Esteban, Genoveva F.

Published
2019

49. Ciliophora sp. Raw sequence reads

Author

Lewis, William, Lind, Anders E., Sendra, Kacper M., Williams, Tom A., Esteban, Genoveva F., Hirt, Robert P., Ettema, Thijs, Embley, T.M., Lewis, William, Lind, Anders E., Sendra, Kacper M., Williams, Tom A., Esteban, Genoveva F., Hirt, Robert P., Ettema, Thijs, and Embley, T.M.

Abstract

Investigating the repeated convergent evolution of ciliate hydrogenosomes from three distinct lineages, using a combined genomic and transcriptomic datasets

Published
2019

Catalog

Books, media, physical & digital resources
See catalog results