S. A. Power

This study shows that introduced Plantago lanceolata populations have higher chemical defenses than native populations without reducing biomass.

This study quantifies how nutrient addition affects ecological stability facets in grasslands, finding reduced resistance in species richness and community composition but not biomass.

This study examines how nitrogen niche partitioning between tropical legumes and grasses affects over-yielding under elevated CO2, finding that niche partitioning and over-yielding decrease in mixtures under higher CO2.

This study examines how nutrient addition affects grassland stability through changes in functional trait diversity and finds that these effects are generally weak compared to direct impacts.

This study examines how nine pasture species respond to drought by analyzing biomass, dead material, and nutritional composition changes across multiple harvests.

This study evaluates NIRS calibration strategies for predicting nutritional parameters of pasture species under different climate conditions.

This study assesses climate change vulnerability of urban forest species using exposure, safety margin, and risk metrics, finding most species exceed current climatic tolerance and face increased risk by 2050.

This study investigates how Epicephala moths synchronize their life cycle with the flowering of their host plant Breynia oblongifolia, finding evidence of diapause at multiple stages and a bet hedging strategy for adult emergence.

This study shows that grassland biomass is co-limited by nutrients and water, with nutrient availability affecting precipitation sensitivity regardless of aridity or herbivory.

This study compares the effects of drought and warming on two pasture species, finding drought has a stronger negative impact on biomass, morphology, and nutritional quality than warming.

This study examines the effects of drought and warming on pasture productivity in a field experiment, finding significant yield reductions and highlighting the negative impacts of climate extremes on forage availability.

This study tracks carbon fate in a mature forest under CO2 enrichment, finding that increased carbon uptake does not lead to greater sequestration, as most extra carbon is released via respiration.