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1 nonhuman primates (including chimpanzees) or wolves .
2 s (saber-toothed cats) and Canis dirus (dire wolves).
3 Breeds share a common ancestor, the gray wolf.
4 in dogs and their wild progenitor, the grey wolf.
5 rmed aCGH in a panel of 17 breeds and a gray wolf.
6 n 1,375 dogs (representing 35 breeds) and 19 wolves.
7 n the presence of larger carnivores, such as wolves.
8 heory and data from the study of Yellowstone wolves.
9 of the Ivolgin mandibles were identified as wolves.
10 ell as diet and feeding behavior, of ancient wolves.
11 l samples) declined with the ratio of elk to wolves.
12 monophyletic clade sharing no sequences with wolves.
13 dogs have 2-3% higher genetic load than gray wolves.
14 nces from breed dogs, village dogs, and gray wolves.
15 arvest coincided with the breeding season of wolves.
16 using a 26-year dataset of 387 radiocollared wolves.
17 African and Eurasian golden jackals and gray wolves.
18 ing at least 15,000 y ago from Eurasian gray wolves.
19 mandibles be reliably identified as dogs or wolves?
20 We then tested how extrinsic (climate, elk/wolf abundance) and intrinsic (age) factors affected the
22 isolates: Ad1 ATCC, Ad1 Kmetz, Ad2 ATCC, Ad2 Wolf, Ad5 ATCC, Ad5 McEwen, Ad6 ATCC, Ad 19 ATCC, and Ad
23 sal is considered the principal way in which wolves adjust their numbers to prey supply or compensate
24 Bonduriansky's sexual antagonism theory; and Wolf and Hager's maternal-offspring coadaptation theory.
25 eories about the ancestry of the Great Lakes wolf and red wolf using an analysis of haplotype blocks
26 estication of small dog breeds from the gray wolf and there is evidence that transposable elements we
27 ored that of group-hunting predators such as wolves and chimpanzees (n = 1,382 cases), hostile takeov
28 ct hierarchical population units within gray wolves and coyotes that correspond with geographic and e
30 originated from a substantial number of gray wolves and dog breeds define distinct genetic units that
31 me to recalibrate the molecular timescale of wolves and dogs and find that the mutation rate is subst
33 rged from the common ancestor of present-day wolves and dogs very close in time to the appearance of
34 d is followed by the divergence of Old World wolves and dogs, confirming that the dog was domesticate
38 ation in the frequency of encounters between wolves and individual elk, the risk of predation was not
39 hic cascade involving increased predation by wolves and other large carnivores on elk, a reduced and
40 lf (Canis lupus), by simultaneously tracking wolves and the behaviour, body fat, and pregnancy of elk
41 was nonlinear as litter size peaked at eight wolves and then declined, and litter survival increased
42 ent heterozygosity is higher in dogs than in wolves and, on average, dogs have 2-3% higher genetic lo
44 dding for Ad1 ATCC, Ad1 Kmetz, Ad2 ATCC, Ad2 Wolf, and Ad6 ATCC did not differ statistically from Ad5
45 -Beringian wolves was shared with any modern wolf, and instead they appear most closely related to La
46 alyses of mitochondrial sequences from dogs, wolves, and a geographically diverse collection of CTVT
47 o), saber-toothed cats, American lions, dire wolves, and coyotes competed for prey resources at Ranch
48 e coyote, Canis latrans, and in Italian gray wolves, and hence our results demonstrate how traits sel
49 isons were made between similar studies with wolves, and inferences were drawn about the relationship
54 ion capabilities of coyotes into areas where wolves are sporadically distributed or at low densities.
55 tively hunting large carnivores, such as the wolf, are more likely transmitted by consumptive effects
56 trol region sequences were analyzed from 162 wolves at 27 localities worldwide and from 140 domestic
57 availability or high removal rates maintain wolves at lower densities, limited inter-pack interactio
60 ape of some dog breeds with that of juvenile wolves begs the question if and how ontogenetic changes
61 ts this comes from domestication rather than wolf behaviour, perhaps involving something as simple as
63 f VP2 gene sequences from puma, coyote, gray wolf, bobcat, raccoon, and striped skunk revealed two ma
64 igation strategies for foxes, dogs, coyotes, wolves, bobcats, mountain lions, bears, and birds (buzza
66 iation in prey composition and kill rate for wolves Canis lupus living on the Northern Range (NR) of
67 size and group size/composition in Ethiopian wolves Canis simensis in the Bale Mountains, Ethiopia, u
71 fects (NCEs) of an active predator, the grey wolf (Canis lupus), by simultaneously tracking wolves an
73 easured postcranial skeletal morphologies of wolves (Canis lupus) and coyotes (C. latrans) from Pleis
74 context between dogs (Canis familiaris) and wolves (Canis lupus) has led some researchers to conclud
75 y, recruitment and population growth of grey wolves (Canis lupus) in Denali National Park and Preserv
76 e 14 years of data from a long-term study of wolves (Canis lupus) in Yellowstone National Park, USA,
77 at use for 732 moose (Alces alces) killed by wolves (Canis lupus) over a 50-year period in Isle Royal
78 We explored multiple linkages among grey wolves (Canis lupus), elk (Cervus elaphus), berry-produc
80 golden jackals aligned more closely to gray wolves (Canis lupus), which is surprising given the abse
85 vering wolf" display, in which one item (the wolf) chased continuously, but its goal (i.e., the sheep
88 ic study using ontogenetic series of dog and wolf crania, and samples of dogs with relatively ancestr
91 one National Park, we assessed the effect of wolf density, prey abundance and population structure, a
92 elanistic K locus mutation in North American wolves derives from past hybridization with domestic dog
93 , and rather support the idea that dogs' and wolves' different social ecologies played a role in affe
95 Human subjects were exposed to a "wavering wolf" display, in which one item (the wolf) chased conti
96 or a distance of up to 200 km on the edge of wolf distribution, there is a transition zone where the
97 , uniquely adapted, and genetically distinct wolf ecomorph suffered extinction in the Late Pleistocen
101 in genotyping noninvasive samples from grey wolves, European wildcats and brown bears, and we compar
102 that resemble those of consistently younger wolves, even in dog breeds that do not exhibit a 'juveni
103 rn human hunter-gatherers, who competed with wolves for limited prey but also domesticated them, lead
104 draft genome sequence from a 35,000-year-old wolf from the Taimyr Peninsula in northern Siberia.
105 ce of genetic diversity for dogs rather than wolves from east Asia, as suggested by mitochondrial DNA
106 ion of multi-locus haplotypes unique to grey wolves from the Middle East, indicating that they are a
109 a to test whether the presence or absence of wolves has caused a continent-wide shift in coyote and r
112 y coyotes outnumber red foxes in areas where wolves have been extirpated by humans, whereas red foxes
113 years later and across territory where gray wolves have been historically absent and remnant red wol
115 Since their introduction in 1995 and 1996, wolves have had effects on Yellowstone that ripple acros
125 amily members can lead to Sotos syndrome and Wolf-Hirschhorn syndrome as well as cancers such as acut
126 ed the role of the histone methyltransferase Wolf-Hirschhorn syndrome candidate 1 (WHSC1) (NSD2/MMSET
127 n of the multiple myeloma set domain (MMSET) Wolf-Hirschhorn syndrome candidate 1 gene, which contain
128 studies have shown the involvement of MMSET/Wolf-Hirschhorn syndrome candidate 1 in development, its
129 (14) and multiple myeloma SET domain protein/Wolf-Hirschhorn syndrome candidate gene 1 from der(4).
130 oss of Letm1 contributes to the pathology of Wolf-Hirschhorn syndrome in humans and may contribute to
133 in responding to replication stress, linking Wolf-Hirschhorn syndrome to the DNA damage response (DDR
134 otein 1 (Letm1), one of the genes deleted in Wolf-Hirschhorn syndrome, encodes a putative mitochondri
135 ase gene, but also for genes associated with Wolf-Hirschhorn syndrome, polycystic kidney disease and
142 hich is surprising given the absence of gray wolves in Africa and the phenotypic divergence between t
143 e three largest European populations of grey wolves in comparison with other populations worldwide, a
144 e mothers who lost juveniles to recolonizing wolves in North America's Yellowstone region developed h
147 and grizzly bears whereby, in the absence of wolves, increases in elk numbers would increase browsing
150 The divergence between New and Old World wolves is the earliest branching event and is followed b
151 lled prey and the age and sex composition of wolf-killed elk Cervus elaphus (the primary prey for NR
153 nsation effectively eliminated a competitive Wolf-Kishner reduction to fluorotoluenes, which was obse
156 nce of introgression from the archaic Taimyr wolf lineage into present-day dog breeds from northeast
157 Associations of dog haplotypes with other wolf lineages indicated episodes of admixture between wo
158 ds in the local group dwarf irregular galaxy Wolf-Lundmark-Melotte (WLM), which has a metallicity tha
160 roup of breeds that is genetically closer to wolves may show different behavioral characteristics whe
162 s; 95% CI, 0.57 to 5.18) and the time on the Wolf Motor Function Test (difference, -8.10 seconds; 95%
164 ed upper limb function, as measured with the Wolf motor function test (WMFT) and the motor activity l
165 mance measured by total time to complete the Wolf Motor Function Test (WMFT) at the end of the 2 week
168 tcome was 12-month change in log-transformed Wolf Motor Function Test time score (WMFT, consisting of
169 Upper Extremity and Lower Extremity scales, Wolf Motor Function Test, Action Research Arm Test, Ten-
170 ffects of domestication, we compared captive wolves (n = 12) and dogs (n = 14) living in packs under
171 Our results suggest a continuous decline in wolf numbers in Europe since the Late Pleistocene, and l
173 cate that CTVT most likely originated from a wolf or an East Asian breed of dog between 200 and 2500
175 ulling task with conspecifics and found that wolves outperformed dogs, despite comparable levels of i
181 ix successive patients, none of whom had the Wolf-Parkinson-White syndrome, recurrent episodes of par
182 fied as the number of ungulates acquired per wolf per day, and least during summer when kill rate was
185 ted with territory size, while prey density, wolf population density and intruder pressure are not as
187 size and survival decreased with increasing wolf population size and canine distemper outbreaks.
190 ons for understanding how the restoration of wolf populations across North America could potentially
193 diversity, although interbreeding with local wolf populations clearly occurred elsewhere in the early
194 Repeated genetic exchange between dog and wolf populations may have been an important source of va
196 to date have primarily focused on exploited wolf populations, in which density-dependent mechanisms
201 ival probability), individuals did not avoid wolf predation risk to the extent that would minimize mo
203 y involving woodland caribou subject to grey wolf predation, DeCesare et al. (2014) show that while p
206 ve acquired a more tolerant temperament than wolves, promoting cooperative interactions with humans a
207 such as TargetP, LOCtree, PA-SUB, MultiLoc, WoLF PSORT, Plant-PLoc, and our newly created All-Plant
210 gest that the progenitor was a carbon-oxygen Wolf-Rayet star embedded within a helium-rich circumstel
211 mposed of an LBV that erupted in 2004, and a Wolf-Rayet star exploding as SN 2006jc, could explain th
213 greater than 25 to 30 solar masses end up as Wolf-Rayet stars, which are deficient in hydrogen in the
215 bility and consumption by grizzly bears post-wolf reintroduction are flawed and tenuous at best.
216 grizzly bear scats to elk densities prior to wolf reintroduction during a time of increasing elk dens
217 fruit in grizzly bear scats was higher after wolf reintroduction in July (0.3% vs. 5.9%) and August (
219 ems accessible to ungulates originated since wolf reintroduction, while protected serviceberry growin
224 We used noninvasive genetic sampling at wolf rendezvous sites to construct pedigrees and estimat
225 nfluence of these different-level factors on wolf reproductive success followed individual > group >
226 ree other control displays, we find that the wolf's changing intentions gave rise to strong selective
235 ucumber beetle (Diabrotica undecimpunctata), wolf spider (Tigrosa helluo), and nursery web spider (Pi
236 I and II, were identified from venom of the wolf spider Lycosa carolinensis (Araneae: Lycosidae) by
237 trials during which subadult females of the wolf spider Schizocosa uetzi were allowed to interact wi
239 strate that the mating preferences of female wolf spiders can be acquired through exposure as subadul
240 , beetle feeding increased with temperature, wolf spiders were always effective predators, nursery we
242 ecific aggression is a major driver of adult wolf survival in northern Yellowstone, suggesting intrin
243 ation in the right pSTS, compared with (1) a wolf that chases with a single unchanging intention, (2)
244 ul example of this strategy in the Ethiopian wolf, the world's rarest canid, which persists in small
245 Dogs have influenced the recent history of wolves through admixture and vice versa, potentially enh
246 We examined the evolution of coyotes and wolves through time from the late Pleistocene, during wh
247 anges in the average environment will affect wolves to a greater extent than changes in how variable
248 results suggest that a trophic cascade from wolves to elk to berry production to berry consumption b
249 the ancestry of the Great Lakes wolf and red wolf using an analysis of haplotype blocks across all 38
251 a sample of 20 Pleistocene eastern-Beringian wolves was shared with any modern wolf, and instead they
255 isotopic data suggest that eastern-Beringian wolves were specialized hunters and scavengers of extinc
258 tant blood-seeking predators, Stable fly and Wolf, while evoking avoidance responses in the prey spec
260 e found extensive admixture between dogs and wolves, with up to 25% of Eurasian wolf genomes showing
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