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1 end-Permian mass extinction on bioturbating ecosystem engineers.
2 egetation, beaver are widely acknowledged as ecosystem engineers.
3 the role of warm-blooded animals as thermal ecosystem engineers.
4 ations and often serve as long-lived benthic ecosystem engineers.
5 hange resource availability are often termed ecosystem engineers.
6 of protective symbionts beyond bodyguards to ecosystem engineers.
7 iors include deep tier, high-impact, complex ecosystem engineering.
8 microbiome research, niche construction, and ecosystem engineering.
9 der animal-mediated bottom-up processes like ecosystem engineering.
10 y, ichnodisparity, ecospace utilization, and ecosystem engineering.
12 , large mammalian herbivores, are well-known ecosystem engineers(5-7) and may have substantial impact
14 s there is a need to assess their impacts on ecosystem engineers, also known as bioturbators, which h
16 ietary analyses demonstrate that mussels, as ecosystem engineers, amplify sediment contamination and
17 eads to no observable mortality, facilitates ecosystem engineering and reduces aggression-related ene
19 findings demonstrate that alligators act as ecosystem engineers and enhance food-web heterogeneity b
23 Here we illustrate the role of microbes as ecosystem engineers and propose a classification based o
24 importance of the non-engineering effects of ecosystem engineers and shed new light on the multiple p
25 the world's largest known example of marine ecosystem "engineering" and suggests that trade-offs bet
26 rowing body of evidence establishing ants as ecosystem engineers, and provide new insights into the r
27 agation techniques, efforts focused on these ecosystem engineers are not yet fully restoring the ecol
30 first, that there is no loss in bioturbation ecosystem engineering behaviors after the mass extinctio
31 ly published literature to analyze burrowing ecosystem engineering behaviors through the Permian-Tria
32 s may have limited deeper burrowing, complex ecosystem engineering behaviors were able to persist in
34 s study, we assessed the indirect effects of ecosystem engineering by a wood-boring beetle in a neotr
37 enerated treatments with reduced or elevated ecosystem engineering by removing or adding post-emergen
40 tudy shows that herbivorous prey that act as ecosystem engineers can directly reduce their own predat
41 eviously been given to analyzing patterns in ecosystem engineering complexity as a result of the exti
48 on, culminating in the advanced capacity for ecosystem engineering exhibited by Homo sapiens A crucia
50 one, promoting ventilation and generating an ecosystem engineering feedback loop between bioturbation
52 pillars which should be considered important ecosystem engineers from the point of view of tiger moth
54 g climate-influenced effects of parasites on ecosystem engineers given their pivotal role in communit
56 , however to our knowledge the role of these ecosystem engineers has not been considered in ecologica
57 tualism, altruism, and niche construction or ecosystem engineering have been explored by many theoret
60 al framework exists for studying the rise of ecosystem engineering in deep time, requiring us to cons
61 Analysis of the behaviors of the infaunal ecosystem engineers in each system revealed three very d
64 nquered habitat, this prolific calcifier and ecosystem engineer is exposed to environmental condition
66 ompetition between colonies of social-insect ecosystem engineers, leading to hexagonally overdisperse
67 ) lost megafauna need to have been effective ecosystem engineers, like proboscideans; and (ii) histor
68 ve, the interplay between predation risk and ecosystem engineering may be an important but unapprecia
72 y spheres, and which combines core tenets of ecosystem engineering, niche construction, and legacy ef
74 three-dimensional recruitment niches of two ecosystem engineers on Caribbean coral reefs, scleractin
75 el for belowground plant competition between ecosystem engineers, plants able to mine resources and m
77 rough the actions of organisms, is a crucial ecosystem engineering process that controls biogeochemic
83 test this hypothesis, we investigate how the ecosystem engineering role and importance of sociable we
84 tion emerges in stressful environments where ecosystem engineers' self-benefits from mining resources
86 semi-biological photocatalyst introduces an ecosystem engineering strategy in solar chemistry to dri
87 system depends on combining both the use of ecosystem engineering structures with individual behavio
88 rldwide have been attributed to subterranean ecosystem engineers such as termites, ants, and rodents.
91 dler crabs (Uca longisignalis) are important ecosystem engineers that influence biogeochemical cycles
92 emonstrates that Bifidobacterium strains are ecosystem engineers that lead to an acceleration of micr
96 ter Panulirus interruptus, foraging on a key ecosystem engineer, the purple sea urchin Strongylocentr
98 xt shapes pattern formation by social-insect ecosystem engineers, which offers one explanation for th