| Intro | | Search taxa | | Taxon tree | | Search literature | | Taxon match | | Homonyms | | Statistics | | Webservice | | Manual | | FAQ | | LifeWatch | | Download | | Log in |
IRMNG taxon detailsThigmothrix Rotterová et al., 2020
11933782 (urn:lsid:irmng.org:taxname:11933782)
accepted
Genus
recent only
Rotterová, J.; Salomaki, E.; Pánek, T.; Bourland, W.; Žihala, D.; Táborský, P.; Edgcomb, V. P.; Beinart, R. A.; Kolísko, M.; Čepička, I. (2020). Genomics of new ciliate lineages provides insight into the evolution of obligate anaerobiosis. <em>Current Biology.</em> 30(11): 2037-2050.e6., available online at https://doi.org/10.1016/j.cub.2020.03.064 [details]
IRMNG (2024). Thigmothrix Rotterová et al., 2020. Accessed at: https://www.irmng.org/aphia.php?p=taxdetails&id=11933782 on 2024-11-23
Date action by
original description
Rotterová, J.; Salomaki, E.; Pánek, T.; Bourland, W.; Žihala, D.; Táborský, P.; Edgcomb, V. P.; Beinart, R. A.; Kolísko, M.; Čepička, I. (2020). Genomics of new ciliate lineages provides insight into the evolution of obligate anaerobiosis. <em>Current Biology.</em> 30(11): 2037-2050.e6., available online at https://doi.org/10.1016/j.cub.2020.03.064 [details]
basis of record Rotterová, J.; Salomaki, E.; Pánek, T.; Bourland, W.; Žihala, D.; Táborský, P.; Edgcomb, V. P.; Beinart, R. A.; Kolísko, M.; Čepička, I. (2020). Genomics of new ciliate lineages provides insight into the evolution of obligate anaerobiosis. <em>Current Biology.</em> 30(11): 2037-2050.e6., available online at https://doi.org/10.1016/j.cub.2020.03.064 [details] verified source for family Rotterová, J.; Salomaki, E.; Pánek, T.; Bourland, W.; Žihala, D.; Táborský, P.; Edgcomb, V. P.; Beinart, R. A.; Kolísko, M.; Čepička, I. (2020). Genomics of new ciliate lineages provides insight into the evolution of obligate anaerobiosis. <em>Current Biology.</em> 30(11): 2037-2050.e6., available online at https://doi.org/10.1016/j.cub.2020.03.064 [details] name verified source Rotterová, J.; Salomaki, E.; Pánek, T.; Bourland, W.; Žihala, D.; Táborský, P.; Edgcomb, V. P.; Beinart, R. A.; Kolísko, M.; Čepička, I. (2020). Genomics of new ciliate lineages provides insight into the evolution of obligate anaerobiosis. <em>Current Biology.</em> 30(11): 2037-2050.e6., available online at https://doi.org/10.1016/j.cub.2020.03.064 [details] current name source Rotterová, J.; Salomaki, E.; Pánek, T.; Bourland, W.; Žihala, D.; Táborský, P.; Edgcomb, V. P.; Beinart, R. A.; Kolísko, M.; Čepička, I. (2020). Genomics of new ciliate lineages provides insight into the evolution of obligate anaerobiosis. <em>Current Biology.</em> 30(11): 2037-2050.e6., available online at https://doi.org/10.1016/j.cub.2020.03.064 [details] extant flag source Rotterová, J.; Salomaki, E.; Pánek, T.; Bourland, W.; Žihala, D.; Táborský, P.; Edgcomb, V. P.; Beinart, R. A.; Kolísko, M.; Čepička, I. (2020). Genomics of new ciliate lineages provides insight into the evolution of obligate anaerobiosis. <em>Current Biology.</em> 30(11): 2037-2050.e6., available online at https://doi.org/10.1016/j.cub.2020.03.064 [details] habitat flag source Rotterová, J.; Salomaki, E.; Pánek, T.; Bourland, W.; Žihala, D.; Táborský, P.; Edgcomb, V. P.; Beinart, R. A.; Kolísko, M.; Čepička, I. (2020). Genomics of new ciliate lineages provides insight into the evolution of obligate anaerobiosis. <em>Current Biology.</em> 30(11): 2037-2050.e6., available online at https://doi.org/10.1016/j.cub.2020.03.064 [details] |
