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1 ir study offers opportunities for addressing behavioral change.
2 erial response, is also the elicitor of this behavioral change.
3  specific neural sites, producing a specific behavioral change.
4 cale-up of early ART, even in the context of behavioral change.
5 the marketplace for nutrition monitoring and behavioral change.
6 licies using monetary incentives to motivate behavioral change.
7 ild SHSe and to engage more families to make behavioral change.
8 p links a specific synaptic dysfunction to a behavioral change.
9 of neuronal plasticity and experience-driven behavioral change.
10 t insulae correlated with the extent of this behavioral change.
11 als can generate both transient and enduring behavioral change.
12 s underlie specific aspects of a coordinated behavioral change.
13 anisms that are consistent with the observed behavioral change.
14 ' characteristics and their attitude towards behavioral change.
15 resentations would be translated into actual behavioral change.
16 cular/neuronal levels can be correlated with behavioral change.
17 ring for the design of incentive systems and behavioral change.
18 auma and measured biochemical, anatomic, and behavioral changes.
19 h-old) mice on biochemical, morphologic, and behavioral changes.
20 induce oscillations in activity, can produce behavioral changes.
21 followed by or results directly in favorable behavioral changes.
22 -induced appetite suppression and associated behavioral changes.
23 ensorimotor integration to generate specific behavioral changes.
24 tivity whose time course matched that of the behavioral changes.
25 lia, respectively, as well as the absence of behavioral changes.
26 e facilitated by regular coaching to support behavioral changes.
27 ponse and associated cognitive and affective behavioral changes.
28 elate these to later development of discrete behavioral changes.
29  mitochondria-associated mechanisms of these behavioral changes.
30 icult to link synaptic modification to overt behavioral changes.
31 lly drive cellular, circuit, and ultimately, behavioral changes.
32  of the GM, as well as host neurological and behavioral changes.
33 dividual afferents, but also to pain-related behavioral changes.
34 e of pups in affecting offsprings' long-term behavioral changes.
35 trong physiological responses but infrequent behavioral changes.
36 f a single cell type can orchestrate complex behavioral changes.
37 onding mutations produce robust synaptic and behavioral changes.
38 ges in the brain and the brain shapes future behavioral changes.
39 natal life can evoke persistent mood-related behavioral changes.
40 advice, is insufficient to achieve sustained behavioral changes.
41 ein kinase C (PKC) would contribute to these behavioral changes.
42 hat plays a prominent role in stress-induced behavioral changes.
43 ruption of dynorphin function reverses these behavioral changes.
44  in gene expression and ultimately long-term behavioral changes.
45 ed negative affect-related physiological and behavioral changes.
46 ecrease the occurrence or intensity of these behavioral changes.
47 ROS and causing hMSCs to undergo cancer-like behavioral changes.
48 g-and-memory machinery to produce persistent behavioral changes.
49 ted chromatin and myelin, but did not induce behavioral changes.
50 DO has an important role in cytokine-induced behavioral changes.
51 racterized by numerous hormonal, neural, and behavioral changes.
52 ng physical maturation, cognitive and social behavioral changes.
53 he RISP cKO had a sudden death, with minimal behavioral changes.
54 g pain and looked for co-adaptive neural and behavioral changes.
55  (DA) modulation in the OB might explain the behavioral changes.
56 enced GDD with language delay/regression and behavioral changes.
57 opulations, and rescued venlafaxine-mediated behavioral changes.
58 ns (PVI), and long-lasting physiological and behavioral changes.
59 alamus of adult rats and results in discrete behavioral changes.
60 However, memory may be expressed by multiple behavioral changes.
61 me (volatility), anxiety constrains adaptive behavioral changes.
62 ue associated with statistically significant behavioral changes.
63  associated with AD-related pathological and behavioral changes.
64 defense signaling, and chemically controlled behavioral changes.
65  neurobiological mechanisms underlying these behavioral changes.
66 ed genes specifically associated with latent behavioral changes.
67  somatostatin neurons, further contribute to behavioral changes.
68 ed with neither signs of desensitization nor behavioral changes.
69 ) and whether exposure to it would result in behavioral changes.
70 us-response processing chain facilitate this behavioral change?
71 How do local synaptic changes produce global behavioral changes?
72 mplaints were diminished vision (96.45%) and behavioral changes (87.24%).
73 ifested through rapid waves, or cascades, of behavioral change (a ubiquitous behavior among taxa) in
74                                  Significant behavioral change accompanied this expansion, and archae
75                                              Behavioral changes accompany and may even precede host r
76  neurons within a brain region contribute to behavioral changes across the course of acute and chroni
77 interpretations of brain function underlying behavioral changes across the lifespan.
78 n the transmission dynamics of the bacteria, behavioral changes, adequate sanitation, population scre
79 d practice to ultimately facilitate positive behavioral changes aimed at preventing HIV.
80 observable with fMRI during periods of rapid behavioral change and (2) what types of representations
81                     The potential to explore behavioral change and clinical outcomes was limited.
82 l presentation of PLOSL: they presented with behavioral change and subsequent cognitive impairment an
83 the effect of gene deficiency on PCP-induced behavioral changes and counteracted PCP-induced social w
84 ses control tactile hypersensitivity and the behavioral changes and impaired neurogenesis that are as
85 erapies for insomnia may cause cognitive and behavioral changes and may be associated with infrequent
86 ilities due to EAE and provide evidence that behavioral changes and primary organ dysfunction contrib
87              Afferent light signaling drives behavioral changes and raises new mechanistic implicatio
88 may be relevant both to normal cognitive and behavioral changes and the high incidence of schizophren
89 dge about soil-transmitted helminths, induce behavioral change, and reduce the rate of infection.
90 ion, hyperphosphorylated and aggregated tau, behavioral changes, and age-dependent hippocampal neuron
91 incentives for individuals to lead or follow behavioral changes, and on the relative speed of environ
92 he connection between neurophysiological and behavioral changes, and the commonality of habitats betw
93 urons in learning and memory; however, other behavioral changes appear inconsistent with this functio
94                                        These behavioral changes are accompanied by abnormal dendritic
95  Per2::luc reporter mice, we show that these behavioral changes are achieved without altering the end
96                                              Behavioral changes are associated with differential trea
97 gnal detection theory and found that these 2 behavioral changes are associated with distinct neuronal
98                               These profound behavioral changes are hypothesized to involve a shift i
99 studied, the internal factors triggering the behavioral changes are largely unknown.
100                                        These behavioral changes are paralleled by the selective loss
101 plinary approach with dietary counseling and behavioral changes are required for long-term results.
102                      Although hunger-induced behavioral changes are well documented, the molecular an
103 e present a framework featuring seven animal behavioral changes as a result of the calming effect of
104 tudinal mechanistic studies that may capture behavioral changes as complex as clinical remission and
105 by three brief reminders can cause long-term behavioral changes as shown by anxiety-like, nociception
106 ional feelings seriously, as opposed to just behavioral changes, as targets for development of new tr
107 dy S. pneumoniae cell-cell communication and behavioral changes, as well as attenuate S. pneumoniae i
108 es and microglia, regulate physiological and behavioral changes associated with addiction.
109  signaling in immune cells can contribute to behavioral changes associated with brain infection, offe
110 r brains and smaller teeth coevolved because behavioral changes associated with increased brain size
111 nk microglia to the molecular, cellular, and behavioral changes associated with the development of al
112 rate that we can predict complex cascades of behavioral change at their moment of initiation, before
113 rgent group effect that does not require any behavioral changes at the individual level.
114  high dose of ethanol leads to stereotypical behavioral changes beginning with increased activity, fo
115 essed locomotor, anxiety-like, and cognitive behavioral changes between young (2 months of age, n = 9
116                           In addition to the behavioral changes brought on by the RpoS-off state, acq
117 te transitions of a lake, policy making, and behavioral change by lake polluters to study the time la
118                     Our results suggest that behavioral changes can offer protection particularly in
119                                        These behavioral changes cannot be explained by reduced appeti
120 cting the OFC and BLA did not affect general behavioral changes caused by reduced motivation, but ins
121 pha-syn's insoluble fraction, accompanied by behavioral changes characteristic for neurodegenerative
122 tress (PRS) develop enduring biochemical and behavioral changes characteristic of an anxious/depressi
123 ASD), how genetic mutations translate to the behavioral changes characteristic of ASD remains largely
124 not replicate the full range of cellular and behavioral changes characteristic of the human disease.
125 and polyneuropathy, variably associated with behavioral changes, cognitive impairment, psychosis, sei
126                           The onset of these behavioral changes coincided with irruption of noradrene
127 fection triggers a spectrum of metabolic and behavioral changes, collectively termed sickness behavio
128 AI-treated male and female marmosets exhibit behavioral changes consistent with these CNS symptoms, a
129                                        These behavioral changes corresponded to increased heat sensit
130 r engagement, content, potential of inducing behavioral change, credibility/accountability, and priva
131 ysiological recordings from the CT supported behavioral changes, demonstrating reduced responses to s
132                                          The behavioral changes due to shRNA-mediated knockdown of AC
133  flux and excitation in sensory neurons, and behavioral changes due to TLR4 active metabolite, morphi
134  of neural TGF-? signaling, which results in behavioral change during infection.
135 l consequences, we investigated cellular and behavioral changes during and after reversing a mouse mo
136 , Uganda, the authors evaluated their sexual behavioral changes during approximately 3 years' follow-
137           The clinical utility of monitoring behavioral changes during intraoperative testing of subc
138 mine the main factors driving self-initiated behavioral changes during the seasonal flu.
139 10-CXCR3 axis as target for the treatment of behavioral changes during virus infection and type I IFN
140 rgy, low-glycemic load, high-fiber diet with behavioral change education.
141 rventions were associated with self-reported behavioral change (eg, increased condom use) that reduce
142 ell-targeted programs to generate meaningful behavioral change, even with a problem as complex as you
143 heir followers cannot account for all of the behavioral changes expressed after learning, indicating
144 ains to be established whether postscreening behavioral changes extend over time for PWID and whether
145  man presented with cognitive impairment and behavioral changes followed by rapidly progressive motor
146  results describe a new mechanism underlying behavioral changes following errors.
147 eroin-induced antinociception and locomotive behavioral changes following repeated subcutaneous and i
148 erforation and the animals were observed for behavioral changes for 24 hrs following cecal ligation a
149 ss resulted in repeated episodes of dramatic behavioral changes from hyperactivity to "depression-lik
150 efine lung injury, pathology, and associated behavioral changes from primary repeated blast lung inju
151                            Technological and behavioral changes happened simultaneously to a major cl
152  Translating neuronal activity to measurable behavioral changes has been a long-standing goal of syst
153 ronal mechanisms underlying such maladaptive behavioral changes, however, are poorly understood.
154                                        These behavioral changes, however, did not coincide with plast
155     Using these tools, we demonstrated large behavioral changes (i.e., up to several fold increases i
156 identify the genetic mechanisms that mediate behavioral change in a natural context.
157                      We determined that this behavioral change in feeding posture is not due to chang
158 erform monetary savings information to drive behavioral change in the home.
159 del much larger wounds, we uncover a dynamic behavioral change in the responding immune cells in vivo
160 o more accurately predict the propagation of behavioral change in these groups during leadership even
161 pportunity for high throughput screenings of behavioral changes in 3D over a long term in Drosophila.
162  report here G72/G30 expression profiles and behavioral changes in a G72/G30 transgenic mouse model.
163 e that temporally overlaps with the onset of behavioral changes in a mouse model of MPS IIIA.
164                    Our results indicate deep behavioral changes in absence of mTOR in Drd1-expressing
165                                              Behavioral changes in adulthood were also assessed.
166 pport the hypothesis that dietary NAM causes behavioral changes in aphids, including altered feeding,
167 strated that single fights induced important behavioral changes in both combatants and resulted in th
168 l units affected by inflammation rather than behavioral changes in conventional animal tests of depre
169 to determine anxiety- and depression-related behavioral changes in Dagla(-/-) mice.
170                                              Behavioral changes in dietary intake and physical activi
171 ered safe for human consumption, it produces behavioral changes in experimental animals.
172         Studies suggest that IL-17a promotes behavioral changes in experimental models of autism and
173  socioadaptive factors, such as cultural and behavioral changes in hospital units, are important in p
174 his circuit was altered, resulting in social behavioral changes in human and mice.
175  modulates normal brain activity and induces behavioral changes in humans.
176 ducible promoter and examined functional and behavioral changes in mice upon reversible expression of
177           We also found that lithium-induced behavioral changes in mice were phenocopied by modulatio
178 do not yet affect implementation of adaptive behavioral changes in middle-aged participants.
179 iduals use simple, robust measures to assess behavioral changes in neighbors, and that the resulting
180 rk suggests that any resultant cognitive and behavioral changes in normal or disordered states or the
181 e maternal and fetal compartments and causes behavioral changes in offspring.
182                   This method was applied to behavioral changes in Parkinson disease (PD) induced by
183 tivity involving the left insula may predict behavioral changes in patients with frontotemporal demen
184 tions of BWCs' ability to induce large-scale behavioral changes in policing, particularly in contexts
185 o identify molecular, histopathological, and behavioral changes in rats 2 weeks after explosive-drive
186 d it unveils a domain of gender differences: behavioral changes in response to a new risk.
187                                              Behavioral changes in response to stressful stimuli can
188     We show that these macronutrient-induced behavioral changes in social decision making are causall
189  transcranial optical stimulation and elicit behavioral changes in SOUL knock-in mice.
190 tionally defined resilience as molecular and behavioral changes in stress responsive circuits followi
191 se protein-level changes conspire to produce behavioral changes in the cells: cells that had been rel
192 ggers a wide repertoire of physiological and behavioral changes in the mother to enable her to feed a
193 ered maternal nutrition to induce persistent behavioral changes in the offspring.
194 single-neuron studies of attention conflates behavioral changes in the subject's criterion and sensit
195 ction, and activating engrafted cells drives behavioral changes in transplanted mice.
196 experience to trigger lasting functional and behavioral change, in a wide variety of species, includi
197 ers have reported seizures and unpredictable behavioral changes including dogs' eyes "glazing over,"
198 harmacotherapies had risks for cognitive and behavioral changes, including driving impairment, and ot
199 scence, offspring also exhibited significant behavioral changes, increased consumption of nicotine an
200 rations associated with suicide and possibly behavioral changes increasing suicide risk.
201 o the effects of injury and reflect specific behavioral changes, indicating their potential as releva
202                     Recent studies show that behavioral changes induced by chronic alcohol are revers
203                                          The behavioral changes induced by Dagla deletion include a r
204 voted to the data-driven characterization of behavioral changes induced by infectious diseases.
205                                          The behavioral changes induced by masking noise were accompa
206 ly, this neural effect was related to future behavioral changes: information encoding in MPFC was cha
207                   We employed a multifaceted behavioral-change intervention to improve communication
208                                              Behavioral change interventions have demonstrated short-
209 nergy conservation through technological and behavioral change is estimated to have a savings potenti
210 and negative (reward omission) outcomes when behavioral change is prompted by switches in reinforceme
211           Whether such information motivates behavioral change is unknown.
212 alter later waking behavior and whether such behavioral changes last for minutes, hours, or days rema
213 fe on earth, and (2) environmentally induced behavioral changes lead the way in species change.
214                         The disease leads to behavioral changes, lesions, loss of turgor, limb autoto
215 brafish mimicking both neuropathological and behavioral changes manifested in SCA-affected patients w
216                                              Behavioral change may occur through evolutionary process
217                             Dogs with severe behavioral changes may be euthanized as they can represe
218 Persons who are interested and ready to make behavioral changes may be most likely to benefit from be
219 ave focused on the immediate aftermath, when behavioral changes may be the direct result of elevated
220  Bacterial reductions correlated with select behavioral changes measured in the EPM.
221 evolution of herbivory likely involves major behavioral changes mediated by remodeling of canonical c
222 cific groups of people who share patterns of behavioral change might increase the impact of behaviora
223  However, the signal in dACC that instigates behavioral change need not itself be a conflict or diffi
224 n retainment, incidence of filed lawsuits or behavioral change needs to be prospectively tested in fu
225                                      Neither behavioral changes nor selective medial prefrontal corte
226 rchases are due to reformulation or consumer behavioral change, nor can we parse out the effects of t
227 for motor control and show that tACS-induced behavioral changes not only result from activity modulat
228 inducing olfactory cues and evaluate whether behavioral changes occur in absence of expression variat
229 s due to their temporal correlation with the behavioral changes of IJs towards the infected hosts.
230                                Understanding behavioral changes of prey and predators based on lunar
231 and magnitude of repeated cascading waves of behavioral change often observed in fish schools and bir
232     We predicted the effect of treatment and behavioral changes on HCV incidence among HIV-positive G
233 cial interactions may give rise to long term behavioral change, or simply reflect the activity of neu
234 any peripheral soluble receptor) induce such behavioral changes, or that they localize in relevant br
235     Thirty-four trials (n = 21 417) reported behavioral change outcomes.
236  Demonstrations of longer-term effects, with behavioral changes persisting once increases in stress h
237  regular professional contact and supportive behavioral change programs.
238 ysiological studies in monkeys have isolated behavioral changes related to attention along the 2 indi
239 t shows a scalable regulation on feeding and behavioral changes related to emotion.
240 iological, molecular, neuropathological, and behavioral changes related to SZ.
241 f vHPC GABA neurons in adult mice results in behavioral changes relevant to schizophrenia.
242                                Some of these behavioral changes resemble those observed in animals la
243                                        Adult behavioral changes resulting from early fluoxetine (Proz
244  differ greatly between strains, in terms of behavioral changes, sex differences, and the intracrania
245 -out of Pten in mice can cause macrocephaly, behavioral changes similar to ASD, and seizures.
246                     Het CKO mice also showed behavioral changes, similar to our patients.
247 ting reports as to the exact nature of those behavioral changes: some studies suggest that OT effects
248 brain that explain (1) acute ethanol-related behavioral changes, such as stimulant followed by depres
249         This phenomenon may be linked to the behavioral changes-such as psychomotor sensitization and
250 .g., sleep hygiene education, incentives for behavioral change), suggesting that if sleep loss is cor
251                                        These behavioral changes support the idea that the shaking sig
252 ning processes, dietary changes, or consumer behavioral changes that act on multiple exposures simult
253 es of neurophysiological, psychological, and behavioral changes that allow women to better adapt to t
254 echanisms may offer new avenues to avert the behavioral changes that are characteristic of many menta
255 ed to chronic social stress, animals display behavioral changes that are relevant to depressive-like
256            Our method identified DBS-induced behavioral changes that depended significantly on DBS si
257 effect of ketamine against neurochemical and behavioral changes that follow inescapable, uncontrollab
258 ades later, it is unknown whether neural and behavioral changes that may precipitate illness are evid
259 uncovered a circuit that partly explains the behavioral changes that occur in response to unexpected
260 t with the psychological, physiological, and behavioral changes that occur when individuals are expos
261   Though effective, IFN-alpha induces marked behavioral changes that, when severe, can appear indisti
262 short time spans to induce physiological and behavioral changes, the mechanisms by which these change
263 thylation and demethylation, drive long-term behavioral change through active regulation of gene tran
264 he very same brain circuits that may mediate behavioral change through interventions.
265 lia-derived chemokine ligand CXCL10 mediated behavioral changes through impairment of synaptic plasti
266 f the genome; yet the ability to attribute a behavioral change to a specific, naturally occurring gen
267 ghout the brain, making it difficult to link behavioral changes to circuit specific receptor expressi
268 rgeons reported that they were contemplating behavioral changes to improve personal well-being.
269 in the striatum as well as neurochemical and behavioral changes to methamphetamine administration.
270 ded (n = 121) weight loss program supporting behavioral changes to promote a 5% weight loss.
271 nisms achieve stability via physiological or behavioral changes to protect against internal and exter
272                             These neural and behavioral changes under psychological stress were tied
273          A quantitative understanding of the behavioral changes upon metabolic challenges is key to a
274                                To facilitate behavioral change, various barriers need to be addressed
275 ly demanding and difficult processes such as behavioral change via interactions with prefrontal corte
276 t experience with illnesses, and the type of behavioral changes voluntarily implemented by each parti
277                                         This behavioral change was found to be dependent on the highe
278 the possible biochemical correlates of these behavioral changes, we screened for arousal-related and
279                                        These behavioral changes were abolished with topical applicati
280                                        These behavioral changes were accompanied by synaptic alterati
281                         Body composition and behavioral changes were also greater in the intervention
282  physical activity and leisure-time sitting, behavioral changes were assessed across eight weeks in 6
283                                        These behavioral changes were associated with an overall incre
284                                        These behavioral changes were associated with terminal deoxynu
285                                        These behavioral changes were correlated with adaptations in m
286                                          The behavioral changes were encoded by the striatal LFP sign
287                                        These behavioral changes were mediated by an enhanced cortical
288                     Moreover, stress-induced behavioral changes were modulated by individual WM capac
289                                        These behavioral changes were not observed in adults consuming
290 onally, a similar pattern of biochemical and behavioral changes were observed in mice born to mothers
291                                Additionally, behavioral changes were only observed in the IN + FUS tr
292                                              Behavioral changes were predominantly associated with a
293                                              Behavioral changes were rescued by acute selective serot
294                                        These behavioral changes were strongly predicted by pronounced
295 S) rats develop long-lasting biochemical and behavioral changes, which are the expression of an anxio
296                                        These behavioral changes, which precede severe neuropathology,
297 lescence is a time of significant neural and behavioral change with remarkable development in social,
298 evelop fully leading to reduced function and behavioral changes with dysregulation of TOR activity.
299 e H3K14 hypoacetylation and a broad range of behavioral changes with translational relevance to schiz
300 ual-level, governmental databases to measure behavioral change without relying on surveys or aggregat

 
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