Compensatory responses to loss of warming-sensitive plant species
Abstract
Climate warming-induced plant species loss is likely to be nonrandom and based on species-specific susceptibility to changing climate. We examined the ecological consequences of losing shallow-rooted forbs, a group of species we predict to be adversely affected by climate change based on their response to experimental warming. After three years of experimental species removal, tap-rooted forbs and grasses were able to fully compensate for the loss of shallow-rooted forbs with increased biomass production. Moreover, the remaining plant community yielded a larger biomass response to nitrogen addition when shallow-rooted forbs were removed, possibly because removal led to increased soil moisture. We conclude that, although shallow-rooted forbs share a common response to warming, their loss did not affect community-level biomass. However, the loss of shallow-rooted forbs could result in increased sensitivity to perturbations, such as changing nutrient availability. Our results demonstrate that realistic, nonrandom scenarios of species loss do not necessarily follow the general pattern of decreased productivity and dampened response to nitrogen addition with species loss that is predicted by theory and many experimental results. Further examinations of nonrandom species loss in other ecosystems are needed to further improve our understanding of the consequences of human-driven species loss.
Local Knowledge Graph (19 entities)
Related Works
Items connected by shared entities, co-authorship, citations, or semantic similarity.
Changes in flowering and abundance of <i>Delphinium nuttallianum</i> (Ranunculaceae) in response to a subalpine climate warming experiment
Response of nitrogen cycling to simulated climate change: differential responses along a subalpine ecotone
Global warming and soil microclimate: results from a meadow-warming experiment
The impact of warming on peak-season ecosystem carbon uptake is influenced by dominant species in warmer sites
Data from: Aboveground resilience to species loss but belowground resistance to nitrogen addition in a montane plant community
Data for Lynn et al. “Soil microbes that may accompany climate warming increase alpine plant production”
Shrubland Ecosystem Genetics And Biodiversity: Proceedings
Revegetation with Native Plant Species: proceedings, 1997 Society for Ecological Restoration Annual Meeting
Response of a Depleted Sagebrush Steppe Riparian System to Grazing Control and Woody Plantings
Cited By (68 times, 9 in Knowledge Hub)
Experimental warming decouples plant-fungal symbiont interactions and leads to a more conservative ecosystem
Investigating alpine plant community responses to simulated warming and dominant species removal at a low and high elevation in the Colorado Rocky Mountains
Effects of experimental warming on plant traits of subalpine wildflower species of Gothic, CO
The structure and function of subalpine ecosystems in the face of climate change
Testing the maximum entropy theory of ecology in the warming meadow
The effects of hemiparasitism by <i> Castilleja</i> spp on community structure in alpine ecosystems
Beyond biomass: measuring the effects of community-level nitrogen enrichment on floral traits, pollinator visitation and plant reproduction
Effects of water addition on above- and below-ground processes in montane meadows
Bottom-up effects of nutrient enrichment on plants, pollinators, and their interactions
References (45)
3 in Knowledge Hub, 42 external
