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1                                        While biogeographical algorithms using next-generation sequenc
2 e-calibrated mtDNA phylogeny, for subsequent biogeographical analyses in BioGeoBEARS of over 100 orig
3 congruent with the geological literature and biogeographical analyses of other taxa from South and So
4                                              Biogeographical analyses suggest that Evacanthinae origi
5                                              Biogeographical analyses suggest that local mainstem ele
6 y generated, we employed molecular clock and biogeographical analyses to infer the evolutionary histo
7                                          The biogeographical analysis localised proto-Druze to the mo
8                            We performed a 3D biogeographical analysis of the microbiota of mouse ceca
9 c structure, and are a valuable new tool for biogeographical analysis.
10                                              Biogeographical and diversification analyses show the Mi
11                            Understanding the biogeographical and diversification processes explaining
12 sting diversity pattern, we investigated the biogeographical and ecological origin of this subfamily,
13  great importance; however, knowledge of the biogeographical and ecological relationships between phy
14                                              Biogeographical and ecological theory suggests that spec
15         This study reveals new insights into biogeographical and ethnic effects upon the pregnancy an
16                  Here, we uncover the global biogeographical and evolutionary patterns of Asteraceae
17  expansion persists, providing insights into biogeographical and evolutionary processes underlying gl
18  of biochemical, immunological, behavioural, biogeographical and fossil evidence relating to the evol
19 ant biochemical, immunological, behavioural, biogeographical and fossil evidence to elucidate the evo
20 evolution with animal pollination over large biogeographical and macroevolutionary scales.
21 rk of the Orchidaceae that paves the way for biogeographical and macroevolutionary studies.
22 rs, principally precipitation regimes, shape biogeographical and phenological patterns in tropical re
23                               Insight on the biogeographical and phenotypic variations of Cacospongia
24                             Integrating both biogeographical and phylogenetic perspectives, our study
25    We find a clear need for more ecological, biogeographical, and evolutionary studies on the impact
26 age based on paleobotanical, climatological, biogeographical, and geological data, and a tentative es
27  encrypted antibiotic peptides from the same biogeographical area display synergistic antimicrobial a
28 ies, which are ecotones between two distinct biogeographical areas, interactions are better predicted
29 d variant calling, including group size, the biogeographical backgrounds of the individuals who have
30 y served as a stepping-stone to overcome the biogeographical barrier represented by the Amazon-Orinoc
31 these results suggest a strong and long-term biogeographical barrier to gene flow.
32  of the Anthropocene epoch is the erosion of biogeographical barriers by human-mediated dispersal of
33  Saharo-Arabian Desert is one of the largest biogeographical barriers on Earth, impeding dispersals b
34 ating biodiversity or potentially delimiting biogeographical boundaries at regional scales in the aby
35 olonization was not inhibited by traditional biogeographical boundaries such as Wallace's Line.
36 pots and the other on species from permeable biogeographical boundaries.
37  connections to the leaf economics spectrum, biogeographical characteristics, evolutionary biology an
38 eal and Boreal-Tundra species, (ii) assessed biogeographical, climatic and local borealisation driver
39 amily, such as Ceratopetalum, have indicated biogeographical connections between South America and Au
40 nclear, as are the rate of evolution and the biogeographical consequences of giant seeds.
41                            To illustrate the biogeographical consequences of such drastic migratory s
42 se two sets of data or to consider them in a biogeographical context.
43 bial interactions in both spatiotemporal and biogeographical contexts while also considering person-,
44  feedbacks for an invasive tree across broad biogeographical contexts.
45 butions ('climatic equilibrium'), when other biogeographical controls are often reliably established.
46 ships to both pathogen spillover and general biogeographical correlations between diversity and disea
47 ronmental coverage data provides informative biogeographical data for poorly known tropical landscape
48  synthetic analysis of molecular, fossil and biogeographical data gives a remarkably consistent scena
49 y provide significant palaeoevolutionary and biogeographical data regarding the evolution of life on
50  To resolve the ratite phylogeny and provide biogeographical data to examine these issues, we have he
51  research combining genetic, ecological, and biogeographical data to fully understand Rhodniini speci
52  aphorism is largely challenged by microbial biogeographical data, even weak versions of the claim le
53 getic constraints; phylogenetic constraints; biogeographical determinants; habitat structure; and com
54 between allele frequencies and behavioral or biogeographical differences between species, casting dou
55 about the mechanisms underlying the observed biogeographical differences in cell size composition of
56                                     Although biogeographical differences in community assembly mechan
57                              We suggest that biogeographical differences in the relative importance o
58  EICA-like trade-offs, we do not know if the biogeographical differences we found were caused by trad
59 acks, large red deer tracks and steppe bison biogeographical distribution in Iberia.
60 ula: see text](50) and HSM(50) influence the biogeographical distribution of Amazon tree species.
61 ucture explains significant variation in the biogeographical distribution of bacteria at continental
62              In this review, we focus on the biogeographical distribution of genetic variation and ad
63 ities exhibit similar colonization dynamics, biogeographical distribution, and responses to dietary p
64 ulator of colonic microbiota composition and biogeographical distribution, is a critical orchestrator
65 into species groups associated with distinct biogeographical distributions and diversification histor
66 dicate that small soil animals have distinct biogeographical distributions and provide unique evidenc
67  a powerful way to conceptualize and analyze biogeographical distributions in relation to spatial env
68                                              Biogeographical distributions were employed to generate
69  recent hypothesis claims that microbes lack biogeographical divergence because their population size
70           The present study investigates the biogeographical diversification of the New World buthid
71   Here we present genetic, morphological and biogeographical evidence suggesting that these riverine
72 mer hypothesis gains additional support from biogeographical evidence, but both scenarios are current
73 l issues of developmental, morphological and biogeographical evolution.
74  functional diversity was triggered by their biogeographical expansion beyond Africa.
75  or are an oversimplification of the complex biogeographical forces that determine species spatial ab
76 lobal change on ecosystem functioning across biogeographical gradients can benefit from enhanced capa
77 elated plant physiological stoichiometry and biogeographical gradients in soil substrate age and then
78   Model simulations provide insight into the biogeographical heterogeneity among lumen, mucus, and fe
79 nents, despite highly divergent land use and biogeographical histories in these regions.
80 ee species to infer the divergence dates and biogeographical histories of these species and the effec
81 netic signature associated with the species' biogeographical history across the Mediterranean region.
82 phylogeny using 12 genes, to investigate the biogeographical history and diversification dynamics in
83  address this knowledge gap by inferring the biogeographical history and diversification dynamics of
84 North America, indicating a more complicated biogeographical history for this important Gondwanan fam
85           Here, we provide insights into the biogeographical history of Antarctic freshwater diatoms,
86                          Here, we reveal the biogeographical history of hyperdiverse and flightless T
87 ps, hybridization and introgression, and the biogeographical history of primate groups.
88 ocesses and complicates understanding of the biogeographical history of species.
89         We aim to infer the evolutionary and biogeographical history of the honey bee from mitochondr
90                                          The biogeographical history of the north-south divergence ev
91 se scorpions, providing a timeline for their biogeographical history that can be summarized into four
92 lifornian golden cup oaks with an intriguing biogeographical history.
93 onary units and infer their evolutionary and biogeographical history.
94 rrence in the Northern Hemisphere challenges biogeographical hypotheses of a Gondwanan origin of crow
95 lationships and associated morphological and biogeographical hypotheses.
96  biota and can be used to evaluate competing biogeographical hypotheses.
97 not supported by molecular data, the general biogeographical hypothesis is supported.
98 ral shared derived features; this supports a biogeographical hypothesis that Madagascar and South Ame
99           Understanding these historical and biogeographical influences is essential for the effectiv
100 ty(14) that conceal important ecological and biogeographical insights.
101 Mya in Gondwana, well before the thermal and biogeographical isolation of Antarctica.
102 barrier height, type and density, as well as biogeographical location.
103 es and might help resolve the ecological and biogeographical mechanisms structuring biodiversity.
104 not been previously investigated with modern biogeographical methods.
105 of mitochondrial haplogroups corroborated by biogeographical modelling suggested that Southwest China
106              Time-calibrated phylogenies and biogeographical models suggest that these frogs colonize
107 ut each accesses this resource in a distinct biogeographical niche.
108                                    Classical biogeographical observations suggest that ecosystems are
109  a community-level perspective rather than a biogeographical one, focusing on terrestrial systems, an
110 tion structure were strongly associated with biogeographical origin.
111 iurnal fluctuations due to compositional and biogeographical oscillations in the microbiota.
112      Remote sensing of specific climatic and biogeographical parameters is an effective means of eval
113 on communities displayed a temporally stable biogeographical pattern among lakes, which was driven by
114 cal functions, yet little is known about its biogeographical patterns and community assembly processe
115 ntifying the mechanisms that shape microbial biogeographical patterns and how these patterns vary und
116 So far, relatively little is known about the biogeographical patterns and mechanisms structuring the
117 tly and build trait-based predictions of the biogeographical patterns exhibited by microbes.
118 o address this obstacle, we investigated (a) biogeographical patterns in attached and waterborne micr
119                                              Biogeographical patterns in diversity and species intera
120 ndamental ecological processes and microbial biogeographical patterns in paddy soils.
121 s of interacting plant species largely shape biogeographical patterns in plant-plant and plant-soil i
122  and evolution of species and shaping larger biogeographical patterns in space and time akin to eleva
123 hese findings improve our ability to predict biogeographical patterns of Antarctic terrestrial biodiv
124 t sequencing of the 16S rRNA gene to explore biogeographical patterns of bacteria across > 80 surface
125 siological phenomenon can affect large-scale biogeographical patterns of insects is largely unknown.
126                          Here, we summarised biogeographical patterns of New World vertebrates and co
127                               In contrast to biogeographical patterns of planktonic marine microbial
128                     Results revealed similar biogeographical patterns of rare and abundant bacteria a
129 nderstanding of the evolutionary history and biogeographical patterns of Tetraopes.
130 c marker to investigate the biodiversity and biogeographical patterns of this important pest, in nati
131 zing relict prairie soils and found that the biogeographical patterns were largely driven by changes
132 tion as an overlooked driver of global plant biogeographical patterns with implications for contempor
133                            Understanding the biogeographical patterns, and evolutionary and environme
134  our understanding of how protist diversity, biogeographical patterns, and members of the rare biosph
135 ing and substrate lability predominantly set biogeographical patterns, and we identified deep-ocean "
136 history limit plant distributions and affect biogeographical patterns, but how their relative importa
137 elucidation of global macro-evolutionary and biogeographical patterns, improving our ability to predi
138 s of tick-host and -habitat associations and biogeographical patterns, in the context of the newly de
139 ial lateral advection and preserves regional biogeographical patterns, indicating deposition by a sim
140 enic pressure and land use alter these plant biogeographical patterns.
141 ns are an excellent system for understanding biogeographical patterns.
142  in the tropical soil is possibly related to biogeographical patterns.
143 n of maritime connectivity has ranged from a biogeographical perspective that considers the sea as a
144 cies for studying invasion hypotheses from a biogeographical perspective.
145                          Plant invasions are biogeographical phenomena that may involve shifts in bel
146                                              Biogeographical, physiological, and paleoecological evid
147 nnate immunity and the stool microbiome in a biogeographical population-specific way.
148 t heat tolerances vary mainly as a result of biogeographical processes and drift.
149 sularity and are thought to be shaped by the biogeographical processes and evolutionary histories of
150 s study underlines that both environment and biogeographical processes are responsible for driving ar
151 ogy has paradoxically led to neglecting real biogeographical processes in the study of macroevolution
152                  We explored demographic and biogeographical processes that shaped the genetic divers
153 ith climate gradients reflecting large-scale biogeographical processes.
154 ey predictors of zoonotic reservoirs include biogeographical properties, such as range size, as well
155        We propose to redefine the Lusitanian biogeographical province, in which we include four ecore
156 ties on the kelp Ecklonia radiata from three biogeographical provinces spanning 10 degrees of latitud
157 iomass, with differing contributions in five biogeographical provinces spanning tropical to subpolar
158 t the scale of the whole earth and its major biogeographical provinces, those steady states respond l
159 three freshwater wetlands that span multiple biogeographical provinces.
160 pores, a crucial factor governing dispersal, biogeographical range, ecological function, and infectio
161 cords from 15 sites on 13 islands within the biogeographical realm of Oceania.
162 of frugivores on Annonaceae diversity across biogeographical realms suggest that biogeography modulat
163 across measures of phylogenetic relatedness, biogeographical realms, and highly invaded countries, ev
164                       Israel's Mediterranean biogeographical region is characterized by high habitat
165  using a complete phylogeny (5,949 species), biogeographical regionalization and null-model compariso
166                                              Biogeographical regions (geographically distinct assembl
167 n patterns of Tetraopes species across major biogeographical regions and their colonization of the Am
168 ociation became obscured by variation across biogeographical regions at the scale of Amazonia, resemb
169 istic networks from five communities in four biogeographical regions of South America.
170 entify a general spatial organization within biogeographical regions of terrestrial and marine verteb
171      We detect seven types of areas in these biogeographical regions that reflect unique combinations
172 uted experiments in different ecosystems and biogeographical regions to assess the extent to which va
173 he genomes of 110 RNB from diverse hosts and biogeographical regions, and undertook a global explorat
174                      Across crops, years and biogeographical regions, crop-visiting wild bee communit
175 from the core to the transition zones of the biogeographical regions, reflecting gradients in the bio
176          When compared to various world-wide biogeographical regions, the Arabian Peninsula exhibits
177          Springtails were collected from two biogeographical regions, the maritime and the continenta
178 er is central to understanding the nature of biogeographical regions.
179 Life on Earth is a mosaic distributed across biogeographical regions.
180  and extremely low divergence observed among biogeographical regions.
181 perience rapid climate-driven changes across biogeographical regions.
182 entification and delimitation of the world's biogeographical regions.
183 eving a larger number of commonly recognized biogeographical regions.
184                           EICA predicts that biogeographical release from natural enemies initiates a
185 or phylogenetic groups, suggesting a general biogeographical rule for range size variation.
186 n these groups and were compared at multiple biogeographical scales to ascertain whether invasive thi
187 ee selection shapes MHC diversity in complex biogeographical scenarios where other evolutionary proce
188  processes govern MHC diversity in different biogeographical scenarios: positive selection occurs bro
189 hness among lineages of trees from all major biogeographical settings of the lowland wet tropics.
190                                              Biogeographical shifts are a ubiquitous global response
191                                        These biogeographical shifts are in agreement with recent chan
192                   We demonstrate that strong biogeographical shifts in all copepod assemblages have o
193 onally complex because detecting concomitant biogeographical shifts in competitive ability and consum
194                                  Large-scale biogeographical shifts in vegetation are predicted in re
195 models forecasting species vulnerability and biogeographical shifts under future climate change.
196                                     Mexico's biogeographical situation places it at risk from invasiv
197 nts for variation in Rdark across this large biogeographical space.
198     Species relationships were resolved, and biogeographical stochastic mapping identified intra-isla
199 hips differed between forest types and among biogeographical strata.
200 positively associated to carbon stock in all biogeographical strata.
201                    Here we reconstructed the biogeographical structure and evolutionary history of th
202 genomes from 3 locations, we demonstrate the biogeographical structure of the pan-genome of this spec
203 , we assessed the sampling quality of recent biogeographical studies.
204  at a scale unprecedented to date for fungal biogeographical studies.
205 distributional data are seldom available for biogeographical study or setting conservation priorities
206 socio-ecological importance, a comprehensive biogeographical synthesis of drylands is lacking.
207                                           In biogeographical terms, the realized niche has come to ex
208 que challenges and opportunities for testing biogeographical theories and macroecological laws.
209                                     However, biogeographical theory and global vegetation models poor
210 radients (LTG and ETG) play central roles in biogeographical theory, underpinning predictions of larg
211      According to broad-scale application of biogeographical theory, widespread retractions of specie
212 species richness, range size, endemicity and biogeographical transitions).
213 scaling relationships can explain the global biogeographical trend for smaller leaves in drier areas,
214 lecular markers have failed to reveal subtle biogeographical trends in Espeletia diversification, and
215 raphy-mass spectrometry for revealing subtle biogeographical trends in Espeletia diversification.
216 that viruses in modern microbialites display biogeographical variability and suggest that they may be
217  demonstrate the importance of incorporating biogeographical variability into predictive models for a
218 pecies' relation of survival to a key island-biogeographical variable.
219 uence of different climatic, topographic and biogeographical variables on alpha diversity also varies
220 ition of island biotas in relation to island biogeographical variables remains largely unknown.
221 f this exchange reveal very large functional biogeographical variation of climate-relevant ecosystem

 
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