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1 most widely used demographic tools by animal ecologists.
2 ulations remains a significant challenge for ecologists.
3 dscapes is therefore of utmost importance to ecologists.
4 coloration have been relatively neglected by ecologists.
5 methods can be readily implemented by animal ecologists.
6 ered the most fascination among plant-insect ecologists.
7 hanging climate is a pending challenge among ecologists.
8 virologists, mycologists and other microbial ecologists.
9 changes constitutes an immense challenge for ecologists.
10 ins a challenge to empirical and theoretical ecologists.
11 nd biogeography is a hot topic for microbial ecologists.
12 s been a considerable challenge for chemical ecologists.
13 de has been an intensely debated topic among ecologists.
14 ed importance and of fundamental interest to ecologists.
15 s, long considered a "black box," has eluded ecologists.
16 g organisms, warranting greater attention by ecologists.
17 inuous-time models remain unfamiliar to many ecologists.
18 ive ranges of NIS are of immense interest to ecologists.
19 atterns of flora and fauna observed by urban ecologists.
20 h HMMs as a fundamental inferential tool for ecologists.
21 ommunities that have long been recognised by ecologists.
22 rotists) has been a formidable challenge for ecologists.
23 olors that have long fascinated evolutionary ecologists.
24 the importance of tissue stable isotopes to ecologists.
25 d by environmental modelers and quantitative ecologists.
26 of a wide range of questions of interest to ecologists.
27 attention from behavioural and evolutionary ecologists.
28 been a long-standing theoretical puzzle for ecologists.
29 y are familiar to agriculturalists and field ecologists alike as one of the principal groups of natur
30 develop a predictive tool for stable isotope ecologists, allowing for estimation of incorporation rat
33 ar in the budgets are not well understood by ecologists and biogeochemists outside of that community.
35 Collaboration among molecular geneticists, ecologists and bioinformaticians promises to enhance our
36 ions for enhancing the collaboration between ecologists and computer scientists and highlight areas f
39 These climate connectivity analyses allow ecologists and conservation practitioners to determine t
44 tudy general ecological questions, microbial ecologists and environmental engineers need to investiga
45 work encapsulates many of the models used by ecologists and epidemiologists and should facilitate the
48 Acknowledgements 686 References 686 SUMMARY: Ecologists and evolutionary biologists are concerned wit
53 al remediation, but without involvement from ecologists and evolutionary biologists the impact of env
54 of natural environments is changing the way ecologists and evolutionary biologists view the importan
55 Geographic range size has long fascinated ecologists and evolutionary biologists, yet our understa
56 Three statistical approaches developed by ecologists and evolutionary biologists--parametric estim
58 o this interplay between BMRs and T(b), many ecologists and evolutionary physiologists posit that the
59 -evolutionary dynamics--is invigorating both ecologists and evolutionists and blurring the distinctio
61 Our approach provides a new tool for network ecologists and for directing the management and restorat
62 relationships identified a separation of bat ecologists and infectious disease researchers with few c
63 erved in nature has been poorly addressed by ecologists and largely excluded from network theory.
65 of unprecedented ecological change in which ecologists and natural resource managers are increasingl
75 o plant scientists, evolutionary biologists, ecologists, and stakeholders assessing the environmental
76 , however, how useful such techniques are to ecologists, and whether they are suited to animal social
77 teraction type (e.g., feeding, pollination), ecologists are beginning to consider networks which comb
81 influence population dynamics and evolution, ecologists are increasingly using parameterized mathemat
83 al, comparative, and theoretical approaches, ecologists are starting to gain a detailed understanding
87 sity of the phytoplankton has long perplexed ecologists because these organisms coexist in an isotrop
88 reat interest to evolutionary biologists and ecologists because they represent historical examples of
89 gradients have received much attention from ecologists but there is little consensus on underlying c
90 tantially from dialog between geologists and ecologists, but current research must now integrate full
91 ould no longer be overlooked by evolutionary ecologists, but should become standard components of the
92 ions has recently become a central focus for ecologists, but species' functional responses to environ
93 erbivores and predators have long fascinated ecologists, but the causal reasons for a shift to omnivo
95 o fundamental plant life-history trade-offs, ecologists can begin to predict plant community structur
99 and heterospecifics with environmental data, ecologists can now simultaneously quantify intraspecific
103 that exploit such patches are of interest to ecologists, conservation biologists, modelers, and mathe
104 his study has important implications for how ecologists consider nutrient limitation of primary consu
108 Interdisciplinary collaborations (including ecologists, engineers, climatologists, meteorologists, s
109 entrance to game theory that will help plant ecologists enrich their research with its worldview and
113 y, there are few resources available to help ecologists face the challenges they are likely to encoun
115 ents and coarse resolutions, while community ecologists focus on small extents and fine resolutions.
116 fluencing it have attracted the attention of ecologists for a long time, the influence of biodiversit
125 ly distributed in an environment, behavioral ecologists frequently turn to ideal free distribution (I
126 ast amounts of diverse data now available to ecologists, from genetic sequences to remotely sensed an
127 However, recent attention by pollination ecologists has focused on the broad spectra of pollinate
129 ommunity assembly is central to ecology, yet ecologists have amassed little quantitative information
132 declines in the abundance of common species, ecologists have become interested in quantifying how cha
134 ends largely on seed dispersal, evolutionary ecologists have been unable to link co-occurring traits
139 n length was variable among natural systems, ecologists have considered many explanatory hypotheses,
153 ogy has a long history of investigation, but ecologists have largely restricted their attention to th
177 ing could be simple, strong, and direct, yet ecologists have persistently failed to perceive generali
181 necessary suffering, applied and theoretical ecologists have recently focused on virus-vectored immun
183 terns makes them experimentally intractable, ecologists have relied on theoretical modelling - typica
185 l economy billions of dollars each year, but ecologists have struggled to predict the risk of an intr
187 consistent and one-dimensional approach that ecologists have taken to both disturbances and stability
190 e of polyploidy, however, remains uncertain; ecologists have traditionally relied on observational me
191 detailed, long-term measurements until now, ecologists, health researchers, and policy makers genera
193 This poses a major challenge to microbial ecologists: how can one compare the microbial diversity
198 ncept of in-use product stock for industrial ecologists is similar to the concept of net manufactured
200 ten been studied by population and community ecologists, it will be important to incorporate a variet
201 terminants of plant community structure, but ecologists lack a synthetic theory for how they affect c
202 ur theoretical understanding of coexistence, ecologists lack clear expectations for how these interac
203 ble ecosystem characteristics that preoccupy ecologists, like ecosystem stability and the responsiven
208 Physical-chemists, (micro)biologists, and ecologists need to conduct meaningful experiments to stu
210 ve and cultural predator-prey ecology offers ecologists new lenses through which to understand specie
216 daptive evolution, potentially resolving why ecologists often observe neutral distribution patterns a
221 lustered into three communities: one used by ecologists, one used by veterinarians, and a third diver
222 by organic chemists and research by chemical ecologists, our understanding of phytochemically mediate
223 change on populations is a key challenge for ecologists, particularly as the pace of change increases
224 unity of evolutionary biologists, population ecologists, pest biologists and genome researchers, the
226 erally acknowledged amongst marine microbial ecologists, primarily because they provide the means to
228 terdisciplinary collaborations between local ecologists, remote sensing specialists, and experts in c
229 more coordinated research among terrestrial ecologists, resource managers, and coupled climate model
232 Evolutionists, conservation biologists, and ecologists should be doing more research to determine ac
233 here is increasing evidence that restoration ecologists should be most concerned with restoring speci
237 ette et al. (Global Change Biol, 2019), that ecologists 'should do better' when defining drought in e
238 ette et al. (Global Change Biol, 2019), that ecologists 'should do better' when defining drought in e
239 cult "how" questions that concern industrial ecologists since the cost, and indeed the wider implicat
244 ny mechanisms that have long been studied by ecologists (such as niches) have little involvement in s
248 series are often used to assess impacts, but ecologists tend to compare average values from before to
250 he widely adopted BIOM format, for microbial ecologists that implements information-theoretic subset
251 as recently attracted growing interest among ecologists, the investigation of its evolutionary conseq
252 ation and community persistence; restoration ecologists, therefore, advocate for the establishment of
253 of CNNs, demonstrate how they can be used by ecologists through distinct examples of their applicatio
254 e grand-scale natural experiment that allows ecologists to address a range of critical questions conc
258 s a correlated random walk, has been used by ecologists to describe movement, and forms the basis for
259 s a foundation for future analyses, allowing ecologists to develop new and creative approaches to con
260 sts to characterize population structure, by ecologists to estimate migration rates, by animal breede
261 is increasing pressure from policymakers for ecologists to generate more detailed 'attribution' analy
263 vector molecular biologists and evolutionary ecologists to move closer to the natural setting under t
264 ifferent trophic levels could therefore lead ecologists to overlook important evolutionary processes
265 Nonetheless, methods adapted by spatial ecologists to quantify animal home ranges can be modifie
267 t is fundamentally important for many animal ecologists to quantify the costs of animal activities, a
272 other online resources, we encourage animal ecologists to tackle global ecological and evolutionary
275 are moving at an unprecedented rate, we urge ecologists to thoughtfully combine these new tools with
277 f human and wildlife diseases has challenged ecologists to understand how large-scale agents of envir
278 he daunting complexity of ecosystems has led ecologists to use mathematical modelling to gain underst
279 for natural resource managers and microbial ecologists to work together to create an integrated unde
280 sions of stability provide a way forward for ecologists trying to conserve ecosystems and manage thei
281 and make them accessible to a wider range of ecologists, ultimately helping expand the usefulness of
282 rom different communities, including aquatic ecologists, urban water system engineers and managers, a
283 of physical variability, whereas population ecologists use dynamical models that incorporate physica
285 than previously thought, challenging the way ecologists view and investigate forest regeneration.
286 diversity and ecosystem stability, with some ecologists warning of instability due to loss of species
288 ther virologists, immunologists, and disease ecologists, we discussed the intrinsic and extrinsic fac
289 y 3, 2015, Nalini Nadkarni, a world-renowned ecologist who had been studying the biologic processes o
290 the idea of a balance of nature by academic ecologists, who focus rather on a dynamic, often chaotic
291 o non-uniform sampling protocols among shrub ecologists, who will favor either root collars or stems
292 orate enemy-risk effects, and that community ecologists will find many opportunities to study enemy-r
293 pate in the training of the 1990s industrial ecologists will give universities insight to the develop
295 tes that have no present-day analog, leaving ecologists with no observational basis to predict the li
296 Biocontrol systems also provide community ecologists with some of the richest examples of behaviou
297 e tools for comparative metagenomics provide ecologists with the ability to investigate and explore b
298 miniaturized biologging devices has provided ecologists with unprecedented opportunities to record an