The dispersal of soil nematodes was not affected by plant spatial configurations, which mostly varied according to their life-history strategy. However, creeping bentgrass grown in a more clustered spatial configuration developed a larger aboveground biomass, which was coupled with a reduction in biomass of subsequently grown ryegrass and plantain. The negative plant–soil feedback may be attributed to the depleted soil nutrients by the stimulated plant growth due to plant–nematode interactions.

This study provides a record of co-occurrence patterns of tigers and leopards in a dry deciduous forest where both these sympatric predators coexist in high densities. Populations of large carnivores are decreasing on a global scale, and looking into their inter-species relationships is crucial to conserving these species. Our results show that leopards avoid tigers spatially in a dry deciduous system and show significant temporal overlap, with no fine-scale spatio-temporal avoidance.

We focus on the consequences of land-use intensity on functional trait variation within species. In general, only few effects on intraspecific trait variation were found showing a decreasing variation with increasing land-use intensity in forests but an increasing variation in grasslands. Although many studies confirmed strong land-use impacts on arthropod communities, we were not able to confirm similar effects at the intraspecific level.

We found that crowded neighborhoods reduced individual seed production via plant–plant competition, but they also made individual plants more attractive for some pollinator guilds, increasing visitation rates and, therefore, plant fitness. The balance between these two forces varied depending on the species identity and the spatial scale considered. Our results indicate that plant spatial aggregation plays an important role in defining the net effect of mutualistic and antagonistic interactions.