コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 nonhuman primates (including chimpanzees) or wolves .
2 s (saber-toothed cats) and Canis dirus (dire wolves).
3 e cougar kills; insufficient sample size for wolves).
4 dogs have 2-3% higher genetic load than gray wolves.
5 nces from breed dogs, village dogs, and gray wolves.
6 arvest coincided with the breeding season of wolves.
7 using a 26-year dataset of 387 radiocollared wolves.
8 African and Eurasian golden jackals and gray wolves.
9 overnment relaxed protections for endangered wolves.
10 ing at least 15,000 y ago from Eurasian gray wolves.
11 n 1,375 dogs (representing 35 breeds) and 19 wolves.
12 n the presence of larger carnivores, such as wolves.
13 heory and data from the study of Yellowstone wolves.
14 ell as diet and feeding behavior, of ancient wolves.
15 l samples) declined with the ratio of elk to wolves.
16 monophyletic clade sharing no sequences with wolves.
17 that most were far smaller than Pleistocene wolves.
18 usic), from songbirds, to whales, to howling wolves.
19 opulation growth and hunting-particularly of wolves.
20 omestication process or admixture from local wolves.
21 for widespread colour variation in dogs and wolves.
22 ve traits and limited the introgression from wolves.
23 or above, hypercarnivores, such as lions and wolves.
24 g, presumably through increased detection of wolves.
25 ely), outweighing the suppressive effects of wolves.
26 were more diverse than those of Pleistocene wolves.
27 ential role in cognitive behavior in Iberian wolves.
28 of this many affective facial expressions in wolves.
29 es and her clade is basal to all living gray wolves.
30 ich are genetically more similar to Eurasian wolves.
31 mbiguous position relative to North American wolves.
32 ely, is uniformly present in dogs but not in wolves.
33 of the Ivolgin mandibles were identified as wolves.
34 mandibles be reliably identified as dogs or wolves?
36 human-wolf conflict from ostensibly fearless wolves(1)(,)(5)(,)(6) to human food subsidies better exp
37 ssess intermediate features between dogs and wolves.(6)(7) However, whether this morphological classi
38 sal is considered the principal way in which wolves adjust their numbers to prey supply or compensate
39 eroprevalence of all infections increased as wolves aged, and denser wolf populations had a greater r
41 he form of LCDs can serve as attractants for wolves and alter wolf diet, activity, and ranging behavi
43 ored that of group-hunting predators such as wolves and chimpanzees (n = 1,382 cases), hostile takeov
44 pearances reflects that poachers killed more wolves and concealed more evidence when the government r
45 yr lineage was distinct from modern Siberian wolves and constituted a sister lineage of modern Eurasi
47 ct hierarchical population units within gray wolves and coyotes that correspond with geographic and e
49 originated from a substantial number of gray wolves and dog breeds define distinct genetic units that
50 me to recalibrate the molecular timescale of wolves and dogs and find that the mutation rate is subst
53 rged from the common ancestor of present-day wolves and dogs very close in time to the appearance of
54 d is followed by the divergence of Old World wolves and dogs, confirming that the dog was domesticate
60 stituted a sister lineage of modern Eurasian wolves and domestic dogs, with an ambiguous position rel
61 cally distinct clades: Eurasian and American wolves and domestic dogs.(1) Genetic studies have sugges
62 re is no evidence for gene flow between dire wolves and either North American grey wolves or coyotes.
63 ts of wolf hunting on livestock predation by wolves and government removal of wolves in the same year
64 elated to ancient Beringian and Russian gray wolves and her clade is basal to all living gray wolves.
65 ation in the frequency of encounters between wolves and individual elk, the risk of predation was not
66 hic cascade involving increased predation by wolves and other large carnivores on elk, a reduced and
67 g is by far the highest mortality hazard for wolves and reinforces the need for protections and polic
68 5)(,)(6)(,)(10)(,)(25) yet fear of humans in wolves and resulting community impacts remain experiment
70 lation genetic data from North American gray wolves and show it performs favorably in comparison to E
71 f these patterns is shared with Arctic white wolves and that its hair cycle-specific module probably
72 lf (Canis lupus), by simultaneously tracking wolves and the behaviour, body fat, and pregnancy of elk
73 erimentally verify that fear of humans traps wolves and their prey in the dark,(1)(,)(29)(,)(30) thus
74 was nonlinear as litter size peaked at eight wolves and then declined, and litter survival increased
76 ent heterozygosity is higher in dogs than in wolves and, on average, dogs have 2-3% higher genetic lo
77 alyses of mitochondrial sequences from dogs, wolves, and a geographically diverse collection of CTVT
78 cluding previously underrepresented Siberian wolves, and assessed their evolutionary relationships wi
79 o), saber-toothed cats, American lions, dire wolves, and coyotes competed for prey resources at Ranch
80 sabertooth cats, cougars, dire wolves, gray wolves, and coyotes), including clarifying the causes an
81 hips between Pleistocene canids, present-day wolves, and dogs, we resequenced the genomes of four Ple
82 1611 dogs (321 breeds), 309 village dogs, 63 wolves, and four coyotes, we identify genomic variation
83 e coyote, Canis latrans, and in Italian gray wolves, and hence our results demonstrate how traits sel
84 isons were made between similar studies with wolves, and inferences were drawn about the relationship
85 ses, resulting in fewer losses of livestock, wolves, and leopards, as these two carnivore species are
86 D and ROH, relative to both village dogs and wolves, and we use these patterns to show that breed dog
92 ion capabilities of coyotes into areas where wolves are sporadically distributed or at low densities.
93 er, particularly in the area where bears and wolves are sympatric, where altitude is generally higher
95 trol region sequences were analyzed from 162 wolves at 27 localities worldwide and from 140 domestic
96 availability or high removal rates maintain wolves at lower densities, limited inter-pack interactio
97 (20)(,)(21)(,)(22)(,)(23)(,)(24) Humans kill wolves at particularly high rates,(1)(,)(3)(,)(5)(,)(6)(
99 ates, that while support for the recovery of wolves, bears and lynx remains strong, most respondents
102 nid body size nearly vanished in Pleistocene wolves, before its recent resurgence resulting from huma
103 ape of some dog breeds with that of juvenile wolves begs the question if and how ontogenetic changes
105 igation strategies for foxes, dogs, coyotes, wolves, bobcats, mountain lions, bears, and birds (buzza
106 election during and after domestication from wolves but important gaps remain in understanding how th
107 detected gene flow from Pleistocene Siberian wolves, but not modern American wolves, to present-day s
110 ors with contrasting hunting modes-cursorial wolves Canis lupus and vertical-ambushing, stalking snow
113 erm radiotelemetry and census data from grey wolves Canis lupus in the Upper Peninsula of Michigan, U
114 iation in prey composition and kill rate for wolves Canis lupus living on the Northern Range (NR) of
115 atal habitat helps understand why some adult wolves Canis lupus may approach human settlements more t
117 size and group size/composition in Ethiopian wolves Canis simensis in the Bale Mountains, Ethiopia, u
122 ellowstone elk (Cervus elaphus) responded to wolves (Canis lupus) and cougars (Puma concolor), and fo
123 easured postcranial skeletal morphologies of wolves (Canis lupus) and coyotes (C. latrans) from Pleis
124 e-range establishment and kill rates of gray wolves (Canis lupus) are affected by the coexistence wit
126 (Cervus elaphus) to the risk of predation by wolves (Canis lupus) during winter in northern Yellowsto
127 context between dogs (Canis familiaris) and wolves (Canis lupus) has led some researchers to conclud
128 the National Parks Service translocated gray wolves (Canis lupus) in 2018-2019 and we expected the re
129 y, recruitment and population growth of grey wolves (Canis lupus) in Denali National Park and Preserv
130 ctuation of unique alleles in groups of gray wolves (Canis lupus) in Idaho, USA, during 2008-2020.
131 e 14 years of data from a long-term study of wolves (Canis lupus) in Yellowstone National Park, USA,
132 at use for 732 moose (Alces alces) killed by wolves (Canis lupus) over a 50-year period in Isle Royal
133 odel results with field data for a system of wolves (Canis lupus) that prey on wild boar (Sus scrofa)
136 We explored multiple linkages among grey wolves (Canis lupus), elk (Cervus elaphus), berry-produc
140 golden jackals aligned more closely to gray wolves (Canis lupus), which is surprising given the abse
145 mates with above average heterozygosity and wolves chose mates randomly with respect to genetic rela
146 om 390 wolf scats and telemetry data from 13 wolves confirmed island fidelity constituting one of the
147 creating a "landscape of fear." It suggests wolves control economic damages from overabundant deer i
149 of dire wolves, while the ancestors of grey wolves, coyotes and dholes evolved in Eurasia and coloni
151 anation for changing incidence among n = 513 wolves' deaths or disappearances during 12 replicated ch
152 elanistic K locus mutation in North American wolves derives from past hybridization with domestic dog
154 , and rather support the idea that dogs' and wolves' different social ecologies played a role in affe
156 ly more often and with higher intensity than wolves do, with highest-intensity movements produced exc
159 olution, and mortality of breeding adults or wolves during reproduction and pup-rearing can decrease
160 through interactions between people and gray wolves during the Late Pleistocene and have been ubiquit
161 ional area estimated to be most suitable for wolves during winter (threshold = maximum sensitivity/sp
162 table isotopes from archaic Falkland Islands wolves (Dusicyon australis) indicate a high trophic, mar
163 ctic.(4)(,)(5)(,)(6)(,)(7) By contrast, most wolves elsewhere are highly territorial and thought to b
165 in genotyping noninvasive samples from grey wolves, European wildcats and brown bears, and we compar
166 that resemble those of consistently younger wolves, even in dog breeds that do not exhibit a 'juveni
167 ate of introgression (<2% accounting for all wolves ever detected over 1998-2017) parallels those fro
168 ic and con-generic populations was common in wolves' evolutionary history, and could have facilitated
170 humans are present is invoked as indicating wolves fear humans,(27)(,)(28)(,)(29) but alternative in
171 )(30) thus corroborating the universality of wolves' fear of humans,(28) and thereby help re-focus th
174 rn human hunter-gatherers, who competed with wolves for limited prey but also domesticated them, lead
175 ce of genetic diversity for dogs rather than wolves from east Asia, as suggested by mitochondrial DNA
177 ad, clustered study areas were more similar: wolves from the Great Lakes region had lower odds of exp
178 ion of multi-locus haplotypes unique to grey wolves from the Middle East, indicating that they are a
179 merican lion, sabertooth cats, cougars, dire wolves, gray wolves, and coyotes), including clarifying
181 a to test whether the presence or absence of wolves has caused a continent-wide shift in coyote and r
185 y coyotes outnumber red foxes in areas where wolves have been extirpated by humans, whereas red foxes
186 years later and across territory where gray wolves have been historically absent and remnant red wol
188 Since their introduction in 1995 and 1996, wolves have had effects on Yellowstone that ripple acros
190 hunt other large mammals (hunting) affected wolves' hazard of cause-specific mortality and disappear
191 hich is surprising given the absence of gray wolves in Africa and the phenotypic divergence between t
192 e three largest European populations of grey wolves in comparison with other populations worldwide, a
193 e mothers who lost juveniles to recolonizing wolves in North America's Yellowstone region developed h
196 osity) remained high in a population of gray wolves in the Rocky Mountains of the U.S. > 20 years aft
197 redation by wolves and government removal of wolves in the same year and with a 1-year time lag while
198 e, and the ability of human groups to manage wolves in their communities during early stages of domes
199 nalyzed monitoring data from adult, collared wolves in Wisconsin, USA using a competing-risk approach
203 term risk from snow leopards, and argali for wolves, in a nearly symmetrical manner that was predicta
205 nome-wide phylogeographic patterns in modern wolves, including previously underrepresented Siberian w
206 and grizzly bears whereby, in the absence of wolves, increases in elk numbers would increase browsing
207 alistic, predation pressure from cougars and wolves independently, predators may decrease CWD outbrea
213 The divergence between New and Old World wolves is the earliest branching event and is followed b
214 k to carnivore species (e.g., lions, tigers, wolves) is a well-documented occurrence and the focus of
215 Although we know that dogs evolved from wolves, it remains unclear how domestication affected do
218 y large elk population increased the odds of wolves killing calves relative to cows, whereas low SWE
220 selection between resident and non-resident wolves may be due to similarity in environmental conditi
222 roup of breeds that is genetically closer to wolves may show different behavioral characteristics whe
226 ffects of domestication, we compared captive wolves (n = 12) and dogs (n = 14) living in packs under
227 est explained seasonal selection patterns of wolves near seismic lines, and whether the density of an
230 mplified by the recently re-established grey wolves of the Pacific Northwest states of Washington and
231 aptive introgression from domestic dogs into wolves, offering new insights into wild canids' adaptati
236 ulling task with conspecifics and found that wolves outperformed dogs, despite comparable levels of i
238 logy of the extinct sabertooth cats and dire wolves-overturning the idea that they heavily competed f
239 example, where prey were readily available, wolves preferentially killed animals far from motorized
240 ce climate has a strong influence on whether wolves prey on cows (who, depending on their age, are th
243 ve acquired a more tolerant temperament than wolves, promoting cooperative interactions with humans a
244 n is due to a behavioral response of deer to wolves rather than through a deer population decline fro
245 ulation related to modern southwest Eurasian wolves, reflecting either an independent domestication p
248 food subsidies better explaining why fearful wolves risk encounters with the human "super predator."(
251 enetic analysis revealed that the Washington wolves share ancestry with both wolf ecotypes, whereas t
254 Behavioral data, collected from dogs and wolves, show that dogs produce the eyebrow movement sign
257 sent-day wolves, with limited gene flow from wolves since domestication but substantial dog-to-wolf g
259 oser similarity of the Taimyr wolf to modern wolves than dogs, implying complex post-divergence relat
260 r surplus predation incident was greater for wolves than for leopards and that surplus predations by
262 hree well-studied populations of extant gray wolves that differed in prey:predator ratio and levels o
263 migratory coupling,(1) has been observed in wolves that track migratory caribou in the Arctic.(4)(,)
264 wolf habitat selection within home ranges of wolves that were either sympatric or allopatric with bea
265 ts predict nine distinct affective states in wolves; the first assessment of this many affective faci
266 Dogs have influenced the recent history of wolves through admixture and vice versa, potentially enh
267 We examined the evolution of coyotes and wolves through time from the late Pleistocene, during wh
268 anges in the average environment will affect wolves to a greater extent than changes in how variable
269 results suggest that a trophic cascade from wolves to elk to berry production to berry consumption b
270 ranges now overlap, allowing sea otters and wolves to interact for the first time in the scientific
275 a sample of 20 Pleistocene eastern-Beringian wolves was shared with any modern wolf, and instead they
276 Moreover, cattle distance to GPS-collared wolves was the factor most correlated with this differen
277 reconstruct the evolutionary history of dire wolves, we sequenced five genomes from sub-fossil remain
279 orphologically to the extant grey wolf, dire wolves were a highly divergent lineage that split from l
283 23,000 y ago, possibly while both people and wolves were isolated during the harsh climate of the Las
288 isotopic data suggest that eastern-Beringian wolves were specialized hunters and scavengers of extinc
290 ith the two previously sequenced Pleistocene wolves, which are genetically more similar to Eurasian w
292 so support an early New World origin of dire wolves, while the ancestors of grey wolves, coyotes and
296 a common ancestry distinct from present-day wolves, with limited gene flow from wolves since domesti
297 ave ancestry indistinguishable from Eurasian wolves, with no shared ancestry with domestic dogs of th
298 e found extensive admixture between dogs and wolves, with up to 25% of Eurasian wolf genomes showing