Tiffany M. Knight

This study evaluates plant subsampling strategies for automated pollinator monitoring, finding that abundance-based sampling captures key network metrics effectively.

The paper examines water-related leaf traits in Anthurium species to understand adaptations for epiphytism, finding consistent but variable associations with water retention strategies.

This study uses a meta-analysis to show that temperature gradients affect flower and fruit traits across species, with implications for plant-animal interactions.

The paper examines how seasonal variation and temporal resolution affect the relative importance of species attributes in plant-pollinator interactions using data from three European botanical gardens.

The paper examines how climate change and biotic interactions affect plant population dynamics through a field experiment and modeling, finding species-specific responses and amplification of climate effects by antagonists.

This study evaluates air-layer propagation for duplicating at-risk breadfruit accessions, finding 17% rooting success and 75% survival, with success influenced by tree vigor and age.

This study examines climatic niche changes in non-native plants across multiple regions, finding that niche dynamics depend on introduction history and biogeographic context rather than ecological traits.

The paper shows climate, not latitude, drives plant-pollinator specialisation globally, with specialisation peaking at northern mid-latitudes and declining in warmer, more seasonal climates.

This study quantifies uncertainty in species distribution model-based blacklists for invasive plants by evaluating the impact of occurrence data, environmental predictors, algorithms, and thresholding methods.

This study uses CNNs to classify 15 European fly families and quantify uncertainty, achieving 95.61% accuracy with EfficientNetB4.

This study evaluates using smartphones and time-lapse photography for pollinator monitoring, finding that bees can be identified to genus level but flies are more challenging due to size and features.

This study shows that low land-use intensity grasslands are more resilient to climate change than intensively managed ones, based on eight years of field experiments in Germany.