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How does slope affect high altitude species? 


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Slope significantly impacts high-altitude species in various ways. Research indicates that ecological restoration on high-altitude slopes benefits from low planting densities of Poaceae species, promoting long-term stability . Additionally, the lack of available nitrogen in high-altitude soils hampers vegetation recovery, highlighting the importance of nitrogen addition for successful restoration . Phenotypic and genetic disparities in small mammal populations along elevational gradients are influenced by ecological divergent selection, with predator richness playing a crucial role in intraspecific diversification . Furthermore, physiological effects of environmental hypoxia at high elevations can limit insect persistence, disrupting ecological communities, although some populations may possess genetic variation for local adaptation . Plasticity in response to slope changes is crucial for species survival at high altitudes, as demonstrated by agama lizards acclimating to new environments without sacrificing performance .

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High elevation slope affects montane insects like Chrysomela aeneicollis by influencing population size, fitness, and performance due to physiological constraints and genetic variations along altitudinal gradients.
Slope does not directly address high-altitude species in the provided paper.
Planting density of Poaceae species on slopes in high-altitude areas impacts community diversity and soil nutrients. Low densities benefit long-term stability and ecological restoration success.
High altitude species exhibit wider braincases and larger tympanic bulla compared to lower altitudes. Skull shapes vary, with most anatomical structures showing diverse patterns across species.
Slope was not directly addressed in the paper. The study focused on nitrogen fertilizer's impact on vegetation establishment on a high-altitude ski slope in the Alps.

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