Simon P. Tye
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Researcher
Also affiliated: University of Nebraska at Kearney (2017–2021)
Faculty Researcher
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Simon P. Tye's research investigates ecological dynamics and evolutionary processes, with a recent focus on the impacts of climate change on aquatic ecosystems and the broader tree of life. His work has examined how climate warming influences mass mortality events in north temperate lakes and how these events can restructure food webs through trophic decoupling. Tye also studies the fundamental principles of species coexistence, exploring how fitness components across life cycles can constrain competition. His publications address predator-prey interactions, including the immune function of prey in the presence of predators, and temporal partitioning of vertebrates on beaver lodges. Furthermore, Tye has contributed to understanding evolutionary mechanisms, with research on diatom evolution through phylogenomics and meta-analytical evidence for frequency-dependent selection across diverse taxa. His scholarship metrics include an h-index of 8, with 152 total citations across 18 publications. Key collaborators at the University of Arkansas at Fayetteville include Adam M. Siepielski, Wade A. Boys, and Taylor Ping.
Metrics
- h-index: 8
- Publications: 18
- Citations: 183
Selected Publications
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Phylogenomics reveals the slow-burning fuse of diatom evolution (2025)
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Meta‐analytical evidence for frequency‐dependent selection across the tree of life (2024)
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Predator mass mortality events restructure food webs through trophic decoupling (2024)
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Predator mass mortality events restructure freshwater food webs via trophic decoupling (2023)
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Interactions between fitness components across the life cycle constrain competitor coexistence (2023)
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Climate warming amplifies the frequency of fish mass mortality events across north temperate lakes (2022)
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A common measure of prey immune function is not constrained by the cascading effects of predators (2021)
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Insect Species Coexistence and Conservation Amidst Global Change (2021)
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Predators weaken prey intraspecific competition through phenotypic selection (2020)
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Population‐level variation of digestive physiology costs of mounting an immune response in damselflies (2020)
Collaboration Network
Top Collaborators
- Climate warming amplifies the frequency of fish mass mortality events across north temperate lakes
- Interactions between fitness components across the life cycle constrain competitor coexistence
- A common measure of prey immune function is not constrained by the cascading effects of predators
- Predator mass mortality events restructure food webs through trophic decoupling
- Meta‐analytical evidence for frequency‐dependent selection across the tree of life
Showing 5 of 7 shared publications
- Interactions between fitness components across the life cycle constrain competitor coexistence
- Meta‐analytical evidence for frequency‐dependent selection across the tree of life
- Insect Species Coexistence and Conservation Amidst Global Change
- Climate warming amplifies the frequency of fish mass mortality events across north temperate lakes
- Predator mass mortality events restructure food webs through trophic decoupling
- Predator mass mortality events restructure freshwater food webs via trophic decoupling
- Interactions between fitness components across the life cycle constrain competitor coexistence
- Insect Species Coexistence and Conservation Amidst Global Change
- Interactions between fitness components across the life cycle constrain competitor coexistence
- A common measure of prey immune function is not constrained by the cascading effects of predators
- Insect Species Coexistence and Conservation Amidst Global Change
- Insect Species Coexistence and Conservation Amidst Global Change
- A common measure of prey immune function is not constrained by the cascading effects of predators
- Climate warming amplifies the frequency of fish mass mortality events across north temperate lakes
- Climate warming amplifies the frequency of fish mass mortality events across north temperate lakes
- Climate warming amplifies the frequency of fish mass mortality events across north temperate lakes
- Predator mass mortality events restructure freshwater food webs via trophic decoupling
- Predator mass mortality events restructure food webs through trophic decoupling
- Meta‐analytical evidence for frequency‐dependent selection across the tree of life
- Meta‐analytical evidence for frequency‐dependent selection across the tree of life
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