Taylor Ping Data-verified
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Researcher
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Biography and Research Information
OverviewAI-generated summary
Taylor Ping's research investigates the interplay between predator-prey dynamics and the evolution of adaptive plasticity in prey. Their work examines how selective pressures exerted by predators can drive changes in prey behavior and physiology, influencing fitness components across different life stages. Publications explore the impact of predators on prey immune function and the potential for physiological adaptations, such as antipredator defenses, to overcome growth costs. Ping collaborates with researchers at the University of Arkansas at Fayetteville, including Adam M. Siepielski, Wade A. Boys, Simon P. Tye, and Tara L. Lanzer, with whom they have co-authored multiple publications. Their scholarship to date includes 6 publications and 56 citations, with an h-index of 3.
Metrics
- h-index: 3
- Publications: 6
- Citations: 59
Selected Publications
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Cheating death: selection on digestive physiology overcomes expected growth costs of antipredator defences (2025)
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Predators drive selection for adaptive plasticity in prey defense behavior (2025)
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Interactions between fitness components across the life cycle constrain competitor coexistence (2023)
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A common measure of prey immune function is not constrained by the cascading effects of predators (2021)
Collaboration Network
Top Collaborators
- 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
- Predators drive selection for adaptive plasticity in prey defense behavior
- Cheating death: selection on digestive physiology overcomes expected growth costs of antipredator defences
- Interactions between fitness components across the life cycle constrain competitor coexistence
- Predators drive selection for adaptive plasticity in prey defense behavior
- Cheating death: selection on digestive physiology overcomes expected growth costs of antipredator defences
- 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
- Predators drive selection for adaptive plasticity in prey defense behavior
- Cheating death: selection on digestive physiology overcomes expected growth costs of antipredator defences
- A common measure of prey immune function is not constrained by the cascading effects of predators
- Interactions between fitness components across the life cycle constrain competitor coexistence
- Cheating death: selection on digestive physiology overcomes expected growth costs of antipredator defences
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