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 strate mesenchymal properties and coincident aggressive behavior.
2 duals with recurrent, problematic, impulsive aggressive behavior.
3 ing on female mate choice, pair-bonding, and aggressive behavior.
4 which ultimately could restart with similar aggressive behavior.
5 xia inducible factor-1alpha (HIF-1alpha) and aggressive behavior.
6 layed higher rates of proliferation and more aggressive behavior.
7 school performance, prosocial behavior, and aggressive behavior.
8 nsporter, during P22-41 also increases adult aggressive behavior.
9 ting that it could contribute to synoviocyte aggressive behavior.
10 get for the prevention of alcohol-heightened aggressive behavior.
11 CL2 or BCL6 translocations conferring a very aggressive behavior.
12 ep and arousal, reward, fear, and social and aggressive behavior.
13 tor in the pathophysiology of antisocial and aggressive behavior.
14 s specific host, and is characterized by its aggressive behavior.
15 to have the same deletion and presented with aggressive behavior.
16 an be used clinically to predict the risk of aggressive behavior.
17 on of sex steroid-dependent reproductive and aggressive behavior.
18 ent studies analyzing isolated indicators of aggressive behavior.
19 ium rosenbergii to study the neural basis of aggressive behavior.
20 rse stressors and prevention of uncontrolled aggressive behavior.
21 the hope that this approach will reduce the aggressive behavior.
22 underlying manifestation of and variation in aggressive behavior.
23 lzheimer's disease and psychosis or agitated/aggressive behavior.
24 octopamine plays a role in the modulation of aggressive behavior.
25 te an indolent behavior and others show more aggressive behavior.
26 r than most existing methods used to measure aggressive behavior.
27 in the limbic circuitry mediating escalated aggressive behavior.
28 ative for both EGFRvIII and YKL-40 show less aggressive behavior.
29 In adults, fluoxetine treatment inhibited aggressive behavior.
30 d social sniffing and allogrooming, and less aggressive behavior.
31 tral 5-HT may be especially prone to exhibit aggressive behavior.
32 reater efficacy than haloperidol in reducing aggressive behavior.
33 erized malignant neoplasms with particularly aggressive behavior.
34 ons by higher proliferative indices and more aggressive behavior.
35 l meningiomas (WHO grade II) with clinically aggressive behavior.
36 size >2 cm is independently associated with aggressive behavior.
37 trition may help reduce later antisocial and aggressive behavior.
38 ENs) and identify preoperative predictors of aggressive behavior.
39 e versus the consummatory (attack) phases of aggressive behavior.
40 dilation were independently associated with aggressive behavior.
41 61 asymptomatic cPanNENs <=2 cm displayed an aggressive behavior.
42 l differences in compulsive "addiction-like" aggressive behavior.
43 aggressive tension during the imagination of aggressive behavior.
44 Exogenous T on its own did not modulate aggressive behavior.
45 are vascular tumor which has an intermediate aggressive behavior.
46 the neural circuit that generates male-type aggressive behavior.
47 ilience to punishment-induced suppression of aggressive behavior.
48 sensory modality in the context of intermale aggressive behavior.
49 is associated with the acquisition of a more aggressive behavior.
50 ishment, but capital punishment is itself an aggressive behavior.
51 several biogenic amines and neuropeptides on aggressive behavior.
52 te their consequences for the development of aggressive behavior.
53 re crucially involved in the pathogenesis of aggressive behavior.
54 s consisting of autistic, hyperactive and/or aggressive behavior.
55 which probably accounts for their clinically aggressive behavior.
56 t alcohol's effects on mating, locomotor, or aggressive behaviors.
57 ns to appetitive and consummatory sexual and aggressive behaviors.
58 specifics as well as simultaneously decrease aggressive behaviors.
59 onkeys) displaying affiliative, neutral, and aggressive behaviors.
60 in the dorsal raphe nucleus (DRN) escalated aggressive behaviors.
61 food, and demonstrated fewer species-typical aggressive behaviors.
62 ty, which in turn, is proposed to disinhibit aggressive behaviors.
63 understanding of the genetic architecture of aggressive behaviors.
64 ing domains show a division of labor on male aggressive behaviors.
65 at LS lesions lead to a dramatic increase in aggressive behaviors.
66 ogeneity resulting from a selection for more aggressive behaviors.
67 features of this malignancy account for such aggressive behavior?
68 (0.75 times as high; 95% CI: 0.57, 0.99) and Aggressive Behavior (0.82 times as high; 95% CI: 0.70, 0
69 decreased reproductive output, courtship and aggressive behaviors, 11-ketotestosterone (11KT), and sp
70 t-intruder test they exhibited: 1) increased aggressive behavior; 2) potentiated corticosterone and t
72 adolescent expression of 5-HT1BRs influences aggressive behavior, a distinct set of 5-HT1B receptors
74 In contrast, GABA agonists did not escalate aggressive behaviors after microinjection into the media
75 uate the efficacy of divalproex for reducing aggressive behavior among children 6 to 13 years old wit
76 cinoma (CC) characteristics that have a more aggressive behavior and a poorer prognosis than classic
77 g adolescent development directly stimulates aggressive behavior and alters LAH 5HT and AVP developme
78 Administration During Adolescence Stimulates Aggressive Behavior and Alters Serotonin and Vasopressin
81 reeding stage, they display reproductive and aggressive behavior and have elevated circulating testos
82 ut the influence of religious affiliation on aggressive behavior and how moral objections can reduce
83 stories of recurrent, problematic, impulsive aggressive behavior and in nonaggressive comparator subj
86 r regulator of endocytosis, is predictive of aggressive behavior and metastatic ability in human brea
87 ssion was significantly associated with more aggressive behavior and more cancer deaths and supported
89 ent pattern and from passive to increasingly aggressive behavior and negative self-representation.
91 CC may provide a partial explanation for the aggressive behavior and poor prognosis of these tumors i
93 s important for the regulation of inter-male aggressive behavior and provide the first functional evi
94 xpression of SHH, breast cancer cells showed aggressive behavior and rapid xenograft growth character
95 serotonin activity in setting thresholds for aggressive behavior and support a direct association bet
96 phenotype of glioblastoma cells toward more aggressive behavior and therefore makes PGC-1alpha a pot
97 signaling may play a significant role in the aggressive behavior and treatment resistance of hypoxic
98 e suggesting shared genetic etiology between aggressive behavior and uncaring, and unemotional CU-tra
99 cea, Stomatopoda) are well studied for their aggressive behavior and unique visual system as well as
101 genome-wide association study of children's aggressive behavior and were used to calculate individua
103 irst evidence that phytoestrogens can affect aggressive behavior and, concurrently, alter hormonal st
104 y for adolescents experiencing problems with aggressive behavior and/or impulse control associated wi
105 weaned at young ages show more abnormal and aggressive behaviors and cognitive deficits compared to
107 sleep, school performance, and prosocial and aggressive behaviors and that these effects are mediated
108 , but not P2-21 or P182-201, increases adult aggressive behavior, and 5-HTT blockade from P22-P41 red
109 n therapy, greater genomic instability, more aggressive behavior, and a poor clinical prognosis.
112 ent video games, leading to desensitization, aggressive behavior, and gender inequity in opportunitie
114 rates of depressive symptoms, substance use, aggressive behavior, and internalizing problems but fast
116 age regression, hyperactivity, impulsive and aggressive behavior, and mental retardation developed in
117 t LINC01268 influences emotional regulation, aggressive behavior, and suicide by violent means; the u
118 gous null mice showed deficits in mating and aggressive behaviors, and the deficiencies in Sk3(-/-) m
122 ed functional impairment, alcohol misuse, or aggressive behavior as comorbid factors occurring with P
123 enes that have been previously implicated in aggressive behavior as well as many novel loci, includin
124 ant determinant of tumor differentiation and aggressive behavior, as well as a potential therapeutic
126 size >2 cm was independently associated with aggressive behavior both in the whole cohort and in the
127 group sizes that they preferred and in their aggressive behavior; both of these behaviors influenced
129 rs of the effects of stress on prosocial and aggressive behavior, but call for refinement in future r
131 T can rapidly (within 60 minutes) potentiate aggressive behavior, but only among men with dominant or
132 he alpha7 nAChR as an important regulator of aggressive behavior, but the underlying neurobiological
133 and cortisol have been proposed to influence aggressive behavior by altering the neural processing of
134 nt feedback loop, whereby it promotes a more aggressive behavior by human prostate cancer cells.
135 16B function promotes lengthened displays of aggressive behaviors by male mice during the resident in
138 siRNA in CSLCs resulted in the inhibition of aggressive behavior, consistent with the inhibition of E
139 baseline levels of testosterone (T) promote aggressive behavior, decades of research have produced f
142 CU traits, (b) explain the severe pattern of aggressive behavior displayed by children with elevated
143 dels, indicate that the distinctive types of aggressive behaviors displayed by these two murine model
144 s underlie the divergence of male and female aggressive behaviors, from their monomorphic appetitive/
154 edly that B cell depletion induced transient aggressive behavior in BDC2.5 diabetogenic T cells and r
155 t hypersensitivity and thus reduce anger and aggressive behavior in borderline personality disorder o
160 ent in the evolution of different degrees of aggressive behavior in honey bees involved changes in re
162 plays a key role in shaping competitive and aggressive behavior in humans, possibly by modulating th
170 the genetic architecture that predisposes to aggressive behavior in people is challenging because of
172 validated decision-making game that measures aggressive behavior in response to social provocation.
174 lopride showed dose-dependent suppression of aggressive behavior in the absence of changes in mobilit
179 l in its natural habitat and that we can use aggressive behavior in this species as an index of cross
184 PD, a region associated with both sexual and aggressive behaviors in rats, hamsters, and mice, showed
185 cute sleep deprivation profoundly suppresses aggressive behaviors in the fruit fly, while other socia
191 blast-like synoviocytes (FLS) display unique aggressive behavior, invading the articular cartilage an
195 ), although dsx is involved in ensuring that aggressive behavior is performed only toward males.
198 Our results support the view that TP-induced aggressive behavior is the result of a TP-mediated neuro
199 attack experience leading to an increase in aggressive behavior, known as aggression priming, activa
200 n effect of violent video game play on later aggressive behavior, little is known about the psycholog
201 a mirror, in which case, despite expressing aggressive behavior, males did not experience either a v
202 inant role of fru in specifying sex-specific aggressive behavior may underscore a genetic mechanism t
203 sets of patients have short attention spans, aggressive behaviors, mood disorders, or schizophrenia.
204 ent development to brain areas implicated in aggressive behavior, most notably the latero-anterior hy
205 aging implicate altered reward processing in aggressive behaviors, no previous studies have documente
208 ine/paracrine factor that contributes to the aggressive behavior of aRMS cells, perhaps through a pos
209 nase-2 (COX-2) expression contributes to the aggressive behavior of breast and other malignancies.
213 ed as promoting invasion and correlates with aggressive behavior of human cancers and thus agents tha
214 he molecular pathways that contribute to the aggressive behavior of human cancers is a critical resea
215 identify metabolic features that support the aggressive behavior of human neuroendocrine (NE) cancers
217 )-c-Src signaling module may account for the aggressive behavior of integrin alpha(v)beta(3)-expressi
222 lish that EGFR-MET signaling is critical for aggressive behavior of NSCLCs and rationalize its contin
223 e of the genetic and molecular bases for the aggressive behavior of pancreatic cancer have been uncov
224 ling the molecular mechanisms underlying the aggressive behavior of pancreatic cancer is a necessary
227 The mechanisms underlying the potential for aggressive behavior of prostate cancer (PCa) remain elus
228 ion is an important mechanism underlying the aggressive behavior of prostate cancer cells and their r
230 t that MUC1 dysregulation is associated with aggressive behavior of PTC and may serve as a prognostic
231 These results provide the evidence that aggressive behavior of radioresistant BC is caused by CD
233 ee of Aurora A expression may play a role in aggressive behavior of RTs and that targeting expression
235 stions on the neuromodulators that influence aggressive behavior of the fruit fly Drosophila melanoga
237 However, our understanding of the potential aggressive behavior of these cancers has been largely ba
241 ion of Prox1 was sufficient to induce a more aggressive behavior of tumors growing in syngenic mice,
244 eviously unanticipated role in mediating the aggressive behavior of vascular neoplasms such as KS.
245 ion paradox is solved to the extent that the aggressive behavior of which victims were accused was fr
246 increased alpha-tubulin acetylation and the aggressive behaviors of basal-like breast cancers, with
247 agulation, coagulation factor FVIIa enhances aggressive behaviors of breast cancer cells, but the und
249 iotropic effects of TNFalpha playing role in aggressive behaviors of TNBC subtype while its deficienc
250 umor progression, but the dependence of this aggressive behavior on tumor-stromal interaction is poor
251 g, we were able to experimentally evoke this aggressive behavior only when an auditory cue (advertise
252 easures were also separately associated with aggressive behavior (OR = 1.09, 95% CI: 1.04-1.14 and OR
254 d this up-regulation is associated with more aggressive behavior, radioresistance, and recurrence of
255 ent of developmentally limited impulsive and aggressive behaviors rather than psychotic symptoms.
256 hA5 receptor may be involved in mediation of aggressive behavior regulated, in part, by hypothalamic
260 measure was the proportion of children whose aggressive behavior remitted, defined by post-trial rati
262 spectrum (n = 82; 30.1%), and disruptive or aggressive behavior spectrum (n = 60; 22.1%) disorders.
263 lap during calling bouts consistently evoked aggressive behavior; stimuli lacking bimodal temporal ov
264 The most intense positivity correlated with aggressive behavior such as intraocular tissue invasion
266 terone selectively increases status-relevant aggressive behaviors, such as responses to provocation,
267 on of CD-1 mice demonstrate "addiction-like" aggressive behavior, suggesting an evolutionary origin f
268 ns important in the regulation of sexual and aggressive behavior suggests that local estrogen synthes
269 wer risk of depressive and anxiety symptoms, aggressive behavior symptoms, and attention-deficit/hype
270 5% confidence interval (CI): 1.13, 2.32] and Aggressive Behavior syndromes (1.29 times greater; 95% C
273 ough the PE group exhibited higher levels of aggressive behavior, there were no statistically signifi
274 ely, while injection of SCH-23390 suppressed aggressive behavior, these reductions were met with alte
275 displayed heightened avoidant, anxious, and aggressive behaviors, those with hippocampal lesions als
276 as not found to have a significant effect on aggressive behavior, though dominant females had elongat
277 ests that the cerebellar vermis may regulate aggressive behavior, though the cerebellar circuits and
278 ssion leads to a proliferative advantage and aggressive behavior through largely unknown mechanisms.
280 re a genetic mechanism that allows male-type aggressive behavior to evolve at least partially indepen
282 outbred lines of rats selected for tame and aggressive behavior toward humans for >64 generations.
283 these neuronal populations can also promote aggressive behavior toward male flies, this capacity req
284 dicate that the serotonergic system inhibits aggressive behavior toward same-sex conspecifics, while
285 Melanoma exhibits increased incidence and aggressive behavior under transplant-related immunosuppr
286 ne levels and the expression of intraspecies aggressive behavior was evaluated in two murine models.
288 dorants to females to increase resident male aggressive behavior, we find that female mice undergo re
290 lon should have a positive relationship with aggressive behavior, whereas AVT-ir neuronal features in
291 ltaNp63 expression characterized tumors with aggressive behavior, whereas tumors with high TAp63 expr
292 n understanding the etiology of disorders of aggressive behavior, whether genetic or environmental in
293 er attainment: They engaged in more dominant-aggressive behavior, which positively predicted attainin
294 uantify their importance as risk factors for aggressive behavior, which resulted in 40 top-ranked and
295 lzheimer's disease and psychosis or agitated/aggressive behavior who were randomly assigned to receiv
296 s cell carcinoma (HNSCC) is characterized by aggressive behavior with a propensity for metastasis and
297 e genome contributes to the manifestation of aggressive behavior with widespread epistatic interactio
299 ceptible to predators and will also modulate aggressive behavior within a territory of limited or dep
300 assessed the extent to which T's effects on aggressive behavior would depend on variability in trait