Author

E. Tilic

Listed by name: these papers carry no ORCID for this author, so different people with the same name may be mixed together.

Biology Disciplines

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Ecology· 1 Evolutionary Biology· 1 Microbiology· 1

Signature Assays, Organisms & Methods

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Research Focus:cell type annotation· 2 Approach:experimental assay· 2 Assay:metagenomics· 2 Assay:DNA methylation· 1 Research Focus:ecology & biodiversity· 1 Research Focus:host-pathogen & immune response· 1 Research Focus:phylogenetics / evolution· 1 Assay:proteomics· 1

Frequent Co-Authors

G. W. Rouse· 3 shared S. K. Goffredi· 2 shared A. K. Miller· 1 shared A. Keller· 1 shared C. Motooka· 1 shared D. A. Fike· 1 shared E. Cordes· 1 shared E. Rodriguez· 1 shared

Activity by Year

2019-2022 · peak 1/yr

Co-Author Collaboration Network

10 top collaborators · 22 mutual co-author links

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3 shared papersEvolutionary Biology

G. W. Rouse

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3 papers

Recent·Most cited

Confusion will be my epitaph: Genome-scale discordance stifles phylogenetic resolution of Holothuroidea

N. Mongiardino Koch, E. Tilic, A. K. Miller, J. Stiller, G. W. Rouse

This study performs the first phylogenomic analysis of sea cucumbers, finding that genome-scale discordance prevents resolving relationships among Neoholothuriida clades.

bioRxiv · Dec 11, 2022 · PreprintEvolutionary Biology

Facultative chemosynthesis in a deep-sea anemone from hydrothermal vents in the Pescadero Basin, Gulf of California

S. K. Goffredi, C. Motooka, D. A. Fike, L. C. Gusmao, E. Tilic, G. W. Rouse, E. Rodriguez

This paper describes a new chemosynthetic symbiosis in a deep-sea anemone, Ostiactis pearseae, found at hydrothermal vents, showing its reliance on intracellular bacteria for nutrition.

bioRxiv · Aug 10, 2020Ecology

Sequestration of Methane by Symbiotic Deep-Sea Annelids: Ancient and Future Implications of Redefining the Seep Influence

S. K. Goffredi, E. Tilic, S. W. Mullin, K. S. Dawson, A. Keller, R. Lee, F. Wu, L. A. Levin, G. W. Rouse, E. Cordes, V. J. Orphan

The paper identifies new deep-sea annelid-bacterial symbioses that actively consume methane, expanding the known spatial extent of methane seeps and their ecological impact.

bioRxiv · Dec 23, 2019Microbiology