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1 constructing the species' potentially unique ecological niche.
2 d on adaptive strategies within a particular ecological niche.
3 an allow an animal to occupy an entirely new ecological niche.
4 ding its complexity and resilience within an ecological niche.
5 on with modern humans, who occupied the same ecological niche.
6 lleles is associated with socially inherited ecological niche.
7 hat species morphologies will adapt to their ecological niche.
8 raphical distribution while keeping the same ecological niche.
9 ent hybrid species with a potentially unique ecological niche.
10 AR(+)] appearance correlate with the yeast's ecological niche.
11 h an arsenal of secreted molecules for their ecological niche.
12  phylum with members inhabiting nearly every ecological niche.
13  but also their plasmids, are defined by the ecological niche.
14 thesis seems to correlate with lifestyle and ecological niche.
15 ction within the necrotrophic plant pathogen ecological niche.
16 ographic limits and the limits of a species' ecological niche.
17 frequently occupy environments outside their ecological niche.
18 ging evolutionary adaptations based on their ecological niche.
19 y adapts to efficiently exploit the animal's ecological niche.
20 es not necessarily result in the shift of an ecological niche.
21 ll raker numbers (GRNs) to utilize a broader ecological niche.
22 ly to have done so in isolates from the same ecological niche.
23 gene exchange between MGE occupying the same ecological niche.
24 nnovations allow populations to colonize new ecological niches.
25 pmental trajectories and limits on available ecological niches.
26 tope analyses as tools in the exploration of ecological niches.
27 n populations have access to many unoccupied ecological niches.
28 ggest that virophage genera occupy different ecological niches.
29 esponses, evolve new behaviours, and exploit ecological niches.
30 en the two fungi, related to their different ecological niches.
31 ctive isolation and allowing access to novel ecological niches.
32 ics that improve fitness in their particular ecological niches.
33 while encountering diverse and often hostile ecological niches.
34 alist species differ in the breadth of their ecological niches.
35 f evolutionary progress and constantly shape ecological niches.
36  biological diversification by unlocking new ecological niches.
37 the ability to inhabit otherwise prohibitive ecological niches.
38 with small ranges or increase the variety of ecological niches.
39 es, enabling these animals to occupy diverse ecological niches.
40 on it comprises a dramatically wide range of ecological niches.
41 m-negative bacteria inhabit a broad range of ecological niches.
42 eria and beta-cyanobacteria occupy different ecological niches.
43  key geographic regions, which opened up new ecological niches.
44 f major groups, as lineages invade disparate ecological niches.
45  and the fitness of V. cholerae in different ecological niches.
46 arily structured according to their members' ecological niches.
47 in most lineages, which rarely exploited new ecological niches.
48 happened in a C4 background and opened novel ecological niches.
49 actions of individuals situated in different ecological niches.
50  among hosts, facilitating adaptation to new ecological niches.
51 t for their differential survival in various ecological niches.
52 e shapes of facial whiskers reflect distinct ecological niches.
53 garner adaptive fitness for their respective ecological niches.
54 chococcus, or 'ecotypes' adapted to distinct ecological niches.
55 ution as well as its adaptation in different ecological niches.
56  in ways that enable microbes to exploit new ecological niches.
57 eir successful coexistence in their specific ecological niches.
58 theories of how species occupy and then fill ecological niches.
59 aptations of various species to their unique ecological niches.
60 f the core TCSTs for adaptation to different ecological niches.
61 ce of the NE cat, both felid taxa shared the ecological niches.
62 ltivated bacteria isolated from hot and arid ecological niches.
63 ffect on terrestrial biota by creating novel ecological niches.
64 onary forces triggered by dissimilarities of ecological niches.
65 iversity of eyes that are adapted to various ecological niches.
66 perties and their competitiveness in several ecological niches.
67 time that have diversified into a variety of ecological niches.
68 d evidence suggests that they filled similar ecological niches.
69 daptations enabled our colonisation of novel ecological niches.
70 isphere are attributed to adaptations to new ecological niches.
71  new traits and exploitation of inaccessible ecological niches [1, 2], driving evolutionary innovatio
72 nuclear loci (RAG-1, 1,054 bp; BDNF 529 bp), ecological niches (11 bioclimatic variables; 285 unique
73 al tetrapods and the establishment of modern ecological niches(12,13).
74 ly among gradients, indicating divergence in ecological niche across the species' range.
75 nome evolution of Symbiodiniaceae in diverse ecological niches across the broad spectrum of symbiotic
76  transduction, providing insights into their ecological niche adaptations.
77 nstrained to persistent and clearly distinct ecological niches: advanced members of Pliosauridae (ran
78  delivering degradative enzymes to defend an ecological niche against competing bacterial species, an
79                                  A microbe's ecological niche and biotechnological utility are determ
80 r functions, which are enriched in the rumen ecological niche and could confer advantages to their ho
81 gus-growing ants occupy a highly specialized ecological niche and face the constant existential threa
82 ges of conditions, gradually expanding their ecological niche and geographic range?
83 istent with reports that it occupies a wider ecological niche and has higher genetic diversity.
84 athogenic fungi and bacteria that share this ecological niche and have established microbial interact
85 discoveries about C. gattii genetics and its ecological niche and highlight areas ripe for future exp
86                       We discuss its natural ecological niche and interactions with other organisms,
87 represents a likely adaptation to a specific ecological niche and may have been promoted by intensive
88 ns of individual microbial players within an ecological niche and the extent and directionality of in
89               These lungworms share both the ecological niche and the species of snail (Helix aspersa
90 olic differences during growth in the tested ecological niches and an overall reprogramming following
91 the needs of organisms that occupy different ecological niches and face different environmental chall
92 tarhizium robertsii occupies a wide array of ecological niches and has diverse lifestyle options (sap
93 e resistance may further spread into various ecological niches and into clinical high-risk pathogens.
94 on, allowing adaptation to a wide variety of ecological niches and lifestyles.
95 associated with the exploitation of multiple ecological niches and likely played a key role in the di
96 ned host and endosymbiont can exploit vacant ecological niches and occupy novel environments [1, 2];
97 gy have led to a better understanding of the ecological niches and pathogenesis of the condition.
98 process and likely reflects the diversity of ecological niches and roles mammals can play.
99 erences of the interactions between species' ecological niches and spatial distribution have been his
100 ons and replacements on the shift into novel ecological niches and subsequent lineage diversification
101  determining metabolic performance, fitness, ecological niches, and responses of many aquatic organis
102 urished and diversified as they filled empty ecological niches, and some of them presaged later dinos
103 nswered question originated with the idea of ecological niches, and yet bears relevance today for und
104 are being rapidly elucidated, the effects on ecological niche are still largely unknown.
105 l lineages with different life histories and ecological niches are largely unexplored.
106 ations that enable organisms to colonize new ecological niches are rare compared to gradual evolution
107 sympatry are more likely to coexist if their ecological niches are segregated either in time, space o
108  opportunistic pathogens that share the same ecological niches as amoebae.
109 ly related alpha-proteobacteria with similar ecological niches as S. meliloti, suggesting that the Ct
110 sses are likewise advantageous for switching ecological niches, as in microbial pathogen host switch
111       Early chaetognaths apparently occupied ecological niches associated with predatory euarthropods
112 onment, exemplifying the emergence of stable ecological niche behavior in a model system.
113 he buccal mucosa appeared as an intermediate ecological niche between the plaque and the tongue.
114   Growth of S. meliloti is modelled in three ecological niches (bulk soil, rhizosphere and nodule) wi
115 plants, C4 photosynthesis does not shift the ecological niche, but broadens it, allowing dispersal in
116    Animals adapt their behaviors to specific ecological niches, but the genetic and cellular basis of
117                                          The ecological niche can be thought of as a volume in multid
118  to understand how species occupying similar ecological niches can co-exist because, with limited res
119 ternative strategies and exploit alternative ecological niches, colour polymorphism can be expected t
120  from a more arboreal ancestor occupying the ecological niche common to all living apes.
121 election that integrates the behavioural and ecological niche concepts.
122  distribution models (SDMs) based on current ecological niche constraints are used to project future
123 y and other processes that more tightly pack ecological niches contribute more to ecosystem structure
124 re not targeted by the vaccine occupying the ecological niche created by the elimination of these typ
125  Critical thermal maxima were estimated, and ecological niches delineated using bioclimatic modeling.
126        Despite strong postzygotic isolation, ecological niche differentiation has long been thought t
127 to recent analyses, our results confirm that ecological niche differentiation is an important compone
128  phylogenetic and genomic diversity suggests ecological niche differentiation, but the selective forc
129          Light quantity and quality promotes ecological-niche differentiation of photosynthetic organ
130 infectious disease pathogen can be driven by ecological niche dissimilarities arising from different
131 s weakly influenced by richness-standardised ecological niche diversity, questioning the significance
132 nd (4) ecological, reflecting differences in ecological niche diversity.
133 ent clades were successful at spreading into ecological niches due to high behavioral plasticity and
134 arios in which expanding species track their ecological niche during climate change while adapting to
135 , in which a greater diversity of social and ecological niches elicits a broader range of multivariat
136 of giant mammals was diversification to fill ecological niches, environmental temperature and land ar
137 ence records, we examine the relationship of ecological niche evolution to diversification in the lar
138 ygen concentration constrain the fundamental ecological niches (FENs) of marine invertebrates and fis
139                        Parasitism is a major ecological niche for a variety of nematodes.
140                   Medical devices provide an ecological niche for microbes to flourish as a biofilm c
141 he formation of root nodules that provide an ecological niche for nitrogen-fixing bacteria.
142 glucosamine metabolism suggests an important ecological niche for oral chloroflexi in scavenging mate
143 s about the role of microplastics as a novel ecological niche for potentially pathogenic microorganis
144 n observations, we characterize the realized ecological niches for 87 North Atlantic diatom and dinof
145  establishment, for example by providing new ecological niches for hybrids, it will have limited effe
146 de demographic data needed to directly infer ecological niches for multiple species.
147 cquire it from organisms inhabiting a shared ecological niche-for example, ammonia-oxidizing archaea.
148 the adaptation of Agaricus to the humic-rich ecological niche formed during biomass degradation.
149 nisms governing adaptation to the humic-rich ecological niche formed during plant degradation, furthe
150 e conclude that the direct quantification of ecological niches from demographic responses to environm
151          It highlights that the inference of ecological niches from geographical distributions is mos
152                           Here we argue that ecological niches function at levels above species, nota
153 straints for two important dimensions of the ecological niche--growth rates and distribution along cl
154                          Colonization of new ecological niches has triggered large adaptive radiation
155             The evolutionary trajectories of ecological niches have profound impacts on community, po
156  64 strains of S. aureus spanning a range of ecological niches, host types, and antibiotic resistance
157 shared optima, defined by a multidimensional ecological niche hypothesis.
158 f the atmosphere, and led to the creation of ecological niches important for early life.
159 how to elucidate evolution in the context of ecological niches in any lineage of microbial eukaryotes
160       The sand flies have adapted to various ecological niches in distinct ecosystems.
161  the role of shared evolutionary history and ecological niches in driving variation in plant phytoche
162 rapods have repeatedly colonised a series of ecological niches in marine ecosystems, producing textbo
163 r flexible capacity to take advantage of new ecological niches, including adapting to humans as prima
164 cterial species distributed across different ecological niches, including human, animals, plants, and
165 ssociated with aphid lineages colonizing new ecological niches, including novel plant species and cli
166        Fungi inhabit extraordinarily diverse ecological niches, including the human body.
167         The quest to discover the variety of ecological niches inhabited by Saccharomyces cerevisiae
168 window into the molecular traits that define ecological niches, insight that we use to uncover source
169      The relationship between bacteria whose ecological niche is the eukaryote, and the eukaryote, is
170 ghly prevalent human pathogens whose primary ecological niche is the superficial epithelial layers of
171 ly diversification of angiosperms in diverse ecological niches is poorly understood.
172  the enigmatic role of the rhodopsins in dry ecological niches is still poorly understood.
173 ely related organisms usually occupy similar ecological niches, leading to intense competition and ev
174 ural selection drives adaptation to distinct ecological niches, leading ultimately to reproductive is
175  trypanosomatids, with their life cycles and ecological niches likely influencing these differences.
176  dispersal capacities and inhabiting a large ecological niche, local selection and gene flow are expe
177  indicative of adaptation to a rather strict ecological niche (mammalian skin).
178                         In exploiting unique ecological niches many prokaryotes have evolved the mean
179                       As mammals entered new ecological niches, many changes in tooth number occurred
180                     We created a present-day ecological niche model (ENM) for C. picta and hindcast t
181 heir time-frequency resemblances and (ii) an ecological niche model that helps identify plague suitab
182                                              Ecological niche modeling (ENM) has been used to address
183                                              Ecological niche modeling (ENM) is widely employed in ec
184       We used two methodological approaches (ecological niche modeling [ENM] and geometric morphometr
185                                              Ecological niche modeling corroborates winter temperatur
186 tential areas of distribution of species via ecological niche modeling has become a very active field
187 e complementarity of population genetics and ecological niche modeling in understanding gene flow his
188                                              Ecological niche modeling indicated that changing climat
189                     Here, we demonstrate how ecological niche modeling may be used to investigate the
190                                              Ecological niche modeling suggested that a gradual range
191                          Molecular clock and ecological niche modeling suggested that the history of
192 orary and future climate conditions, we used ecological niche modeling techniques in conjunction with
193                         Additionally, we use ecological niche modeling to infer current and past (Las
194                                        Using ecological niche modeling we investigated environmental
195   In this paper, we present phylogeographic, Ecological Niche Modeling, and morphometric analyses to
196 ith those of their diploid progenitors using ecological niche modeling, niche analyses, and multivari
197 f these geographic disjunctions, we combined ecological niche modeling, paleoclimate models, and the
198                                        Using ecological niche modeling, thermal tolerance experiments
199 ips has underappreciated potential to inform ecological niche modeling.
200                             We encourage the ecological niche modelling community, as well as journal
201 nvadable areas based on an ensemble of three ecological niche modelling methods, and evaluated the pe
202 ion by intergrating population genetics with ecological niche modelling of Litsea auriculata (Laurace
203              Here, we address this issue for ecological niche modelling or species distribution model
204  found within native House Crow lineages and ecological niche modelling predicts suitable climatic ar
205  least the minimum information necessary for ecological niche modelling reproducibility, offering a s
206                                              Ecological niche modelling shows a Campanian-to-Maastric
207                                   We coupled ecological niche modelling with simulations of potential
208                                        Using ecological niche modelling, we found that the Pacific No
209 distribution analyses, neutrality tests, and ecological niche models (ENM) and suggested the existenc
210 carbon dates of bat fossils with time-scaled ecological niche models (ENM) to study bat extinctions i
211              We examined the hypothesis that ecological niche models (ENMs) more accurately predict s
212              Here we use multilocus data and ecological niche models (ENMs) to test alternative GM mo
213                                  We combined ecological niche models (ENMs) with population genetic s
214 niche space, we created genetically informed ecological niche models (gENMs) using Populus fremontii
215            Historical range changes based on ecological niche models also failed to explain the obser
216  it has yet to be introduced, we trained 900 ecological niche models and constructed an Ensemble Mode
217     Over-the-edge transplant experiments and ecological niche models are commonly used to address thi
218 erformance of demographic models vs. simpler ecological niche models are still lacking owing to diffi
219                                              Ecological niche models calibrated with both native and
220                                   Therefore, ecological niche models can provide a reasonable first a
221 icting range changes at the grid-cell level, ecological niche models do as well, or better, than more
222 endations that should promote more realistic ecological niche models for transfer across space and ti
223 use and dynamic climate variables in simpler ecological niche models improve forecasts of observed ra
224 upled ecological-niche-population models and ecological niche models in predicting documented shifts
225                                              Ecological niche models supported inference of drastic c
226 ul information for developing predictive and ecological niche models to guide management methods.
227                   Using frogs as indicators, ecological niche models under paleoclimates, and simulta
228                                Here we build ecological niche models using MAXENT and test whether se
229 savannization." We combined projections from ecological niche models, habitat filter masks and disper
230 s and on future projections of climate-based ecological niche models.
231                                        Broad ecological niches occupied by South Island giant moa (Di
232 da CRPs are considered in the context of the ecological niches occupied by these bacteria.
233 ago proposed that one could characterize the ecological niche of a species as an abstract mapping of
234                                          The ecological niche of a species describes the variation in
235 tter ant distribution, thereby expanding the ecological niche of an obligate host-microbe symbiosis.
236 ntal conditions, restricting or altering the ecological niche of asexual lineages.
237                   According to one view, the ecological niche of diazotrophs is primarily controlled
238 d fitness via better adaptation to the local ecological niche of each species.
239 CAM in Eulophiinae orchids; characterize the ecological niche of extant taxa; infer divergence times;
240 -based systems, an understanding of the true ecological niche of organisms and the dynamic state of t
241 d forest fragmentation, may have altered the ecological niche of Pteropus species acting as natural H
242 ed from Earth observation data subsuming the ecological niche of the target species.
243 onate-hosted methanotrophy extends the known ecological niche of these important methane consumers an
244            The spatial model showed that the ecological niche of these two flying fox species, the hu
245  Deep shotgun metagenomics unveiled distinct ecological niches of microbes and antibiotic resistance
246  experimental approaches to characterize the ecological niches of species and directly assess the imp
247       The higher specialisation and narrower ecological niches of these plant-fungal interactions in
248 in nutrient-poor environments that are known ecological niches of V. cholerae, including pond water a
249 survival is enhanced by occupying exclusive 'ecological' niches of the body.
250  originating and still occupying the coldest ecological niche on Earth, the Antarctic.
251 ing nematodes, which are found in almost any ecological niche on Earth.
252 , comparing nine species that occupy diverse ecological niches on Santa Cruz island.
253 g emm types either may not be constrained by ecological niches or population immunity to the M protei
254 g a new host species, species invading a new ecological niche, or cancer cells invading a new tissue
255 perate within the constraint of conservative ecological niches, or if niche shifts occur at all commo
256 ties have been shaped, in large part, by the ecological niches our evolutionary ancestors occupied an
257 cement of gymnosperms by angiosperms in many ecological niches over time and the huge disparity in sp
258 ponses to global change incorporate shifting ecological niches, population dynamics, species interact
259           We found that more complex coupled ecological-niche-population models (that account for dis
260 the first comparison of the skill of coupled ecological-niche-population models and ecological niche
261 life stage (with concomitant shifts into new ecological niches) primarily by re-working genetic pathw
262 an therefore lead to the exploitation of new ecological niches, prompting an adaptive radiation of ba
263  mixed layer to tropical coral reefs, and in ecological niches ranging from free-living plankton to s
264  cancer cells from primary tumors to distant ecological niches, rather than the primary tumors, is th
265                                              Ecological niches reflect not only adaptation to local c
266 its, but how such traits directly affect the ecological niche remains poorly understood.
267 monstrated that microbes inhabiting the same ecological niche share common preferences for synonymous
268 cted spatial range shift and accelerates the ecological niche shift.
269 extinction because of both spatial range and ecological niche shifts.
270  We found that N. obtusa is exploiting novel ecological niche space in its introduced range, which ma
271 k into ever more densely occupied regions of ecological niche space.
272 s) available in the database revealed strong ecological niche specialization within habitats.
273 ther assessed by shape, food, metabolism, or ecological niche-surely rivals (if not exceeds) that of
274                 Mucus is a densely populated ecological niche that coats all non-keratinized epitheli
275  of which are important for existence in the ecological niche that the organism occupies.
276  stresses resulting from the wide variety of ecological niches that bacteria inhabit.
277                                          New ecological niches that may arise due to climate change c
278 g coarse-graining of microbiomes in terms of ecological niches that may be filled.
279  greater the quantitative difference between ecological niches, the greater the importance of reticul
280 range of other bacteria thriving in the same ecological niches, the soil and plant rhizosphere.
281                                              Ecological niche theory holds that species distributions
282 ing species range shifts in the framework of ecological niche theory may help to direct future resear
283 bits a unique ability to invade and adapt to ecological niches throughout tropical and subtropical re
284 astric mucosa, the bacterium survives in its ecological niche, thus favoring diseases ranging from ch
285 e traits that allow them to exploit distinct ecological niches, thus enabling multiple species to coe
286 l stages of the same animal occupy different ecological niches to avoid competing for food or other e
287    These results suggest a universal way for ecological niches to be populated by abundant microorgan
288 gated versus high-bodied shape, differential ecological niche use and genetic differentiation.
289              Additionally, we compared their ecological niches using eight ecological variables.
290 eathered dinosaurs and Mesozoic birds to new ecological niches was potentiated by rapid diversificati
291                                        These ecological niches were modeled using boosted regression
292 were active predators that occupied discrete ecological niches while living in the shadow of Tyrannos
293 ynanthropic nonhuman primates (NHP) share an ecological niche with humans, cross-species transmission
294 to data mine and model-predict LP AI and its ecological niche with machine learning and open access d
295 erent CRD1 and EnvB ESTUs occupying distinct ecological niches with regard to iron availability and t
296 tiple spatial scales, functional classes and ecological niches with transfer further enriched among b
297 l microbial population that occupies a broad ecological niche, with selection driving frequencies of
298 g how microbes have evolved to fill specific ecological niches within a host.
299 erial pathogen capable of colonizing diverse ecological niches within its human host.
300 present in samples collected from a range of ecological niches worldwide, including invertebrates and

 
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