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1 d parental death or divorce during childhood/adolescence.
2 istent influence on brain development during adolescence.
3 enhanced memory formation from childhood to adolescence.
4 d developing chronic or relapsing disease by adolescence.
5 t fear-associated memories emerging later in adolescence.
6 ss pollen allergy during childhood and up to adolescence.
7 navigation of the social environment during adolescence.
8 in linking social stress with depression in adolescence.
9 in early childhood and peaks in onset during adolescence.
10 irments that manifest later in childhood and adolescence.
11 erienced better well-being in early and late adolescence.
12 tients develop clinically silent fibrosis by adolescence.
13 iagnostic criteria for the first time during adolescence.
14 isorder (ADHD) run a variable course through adolescence.
15 e and use of psychotropic medications during adolescence.
16 d the greatest conditioned fear responses in adolescence.
17 lnerable to altered brain development during adolescence.
18 tic plasticity and circuit refinement during adolescence.
19 ifferences in cognitive functioning in early adolescence.
20 ialization of the striatal DA system through adolescence.
21 diatric patients from the neonatal period to adolescence.
22 ures of emotion regulation and depression in adolescence.
23 1 y was related to metabolic health through adolescence.
24 Schizophrenia typically onsets after adolescence.
25 at immigration, and myopia occurrence during adolescence.
26 spite the high prevalence rates of co-use in adolescence.
27 ing interneurons by excitatory inputs during adolescence.
28 dministering a second dose of vaccine during adolescence.
29 operative behaviour improves markedly across adolescence.
30 lnerability for diagnosed psychopathology in adolescence.
31 ildhood neglect on externalizing problems in adolescence.
32 ng children in foster care were mitigated by adolescence.
33 me budgets of children from early infancy to adolescence.
34 elates of prosocial development during early adolescence.
35 ties during the transition from childhood to adolescence.
36 d with an escalating Meth regime during late adolescence.
37 and a "depression/mood" type, with onset in adolescence.
38 hat protected, until risk increases again in adolescence.
39 opt anti-school roles, particularly in later adolescence.
40 me course, which is completed only by end of adolescence.
41 the risk of asthma and allergic disease into adolescence.
42 ntially methylated in relation to smoking in adolescence.
43 eural processing of sounds in late childhood/adolescence.
44 al impact of cigarette smoking behaviours in adolescence.
45 sample, 14 107 (25%) first gave birth during adolescence.
46 utive function, and behavioral function into adolescence.
47 itude ratio that progresses from juvenile-to-adolescence.
48 e predicted higher externalizing problems in adolescence.
49 unctional reorganization of the brain during adolescence.
50 an overactive but desynchronized PFC before adolescence.
51 underlying mechanisms are already mature by adolescence.
52 r puberty with self-report sleep duration in adolescence.
53 ormance on the memory task was better during adolescence.
54 pus functional connectivity before and after adolescence.
55 risk factors and asthma-related outcomes in adolescence.
56 th severe asthma outgrow their asthma during adolescence.
57 Latino; 54% female) were followed into early adolescence.
58 between ages 13 and 24, peaking during late adolescence.
59 icted axial eye elongation and myopia during adolescence.
60 biological locus of memory improvements into adolescence.
61 ficant developmental changes from birth into adolescence.
62 arkers of sex-specific asthma acquisition in adolescence.
63 The majority of children with NPC die in adolescence.
64 asthma-related outcomes and lung function in adolescence.
65 s can be debilitating for self-management in adolescence.
66 then in mid-childhood (7-9 years) and early adolescence (10-12 years) using Wechsler Intelligence Sc
67 dies in healthy developmental samples (i.e., adolescence [10-18 years of age] and emerging adulthood
69 he basis of age at first birth: 10-19 years (adolescence), 20-24 years (young adulthood), and 25 year
70 ong those with asymptomatic sensitization in adolescence, 53%-78% developed allergic rhinitis in adul
71 ce suggests this is particularly true during adolescence, a developmental period involving substantia
72 PFC undergoes significant maturation during adolescence, a period when cannabis use in humans has be
73 outh during the transition from childhood to adolescence, a period when self-regulatory capacities ra
74 has focused mainly on early life rather than adolescence, a potentially important developmental life
75 striatum dopamine (DA) system through human adolescence, a time of increased sensation seeking and v
76 These processes continue to develop during adolescence, a time of significant social change, and ar
77 -related disorders peak in prevalence during adolescence, a window of rapid behavioral development an
80 escents from whom data were collected during adolescence (ages 11-18 years) and adulthood (ages 24-32
81 d that ADHD symptoms may emerge later during adolescence and adult life in some individuals although
82 tigated the impact of stress exposure during adolescence and adulthood on the activity of putative py
83 ter animals complete their maturation during adolescence and are absent if the NMDAR is deleted durin
84 ognized predictor of early heart failure, in adolescence and being diagnosed with cardiomyopathy in a
86 whether miR-218 regulates Dcc expression in adolescence and could serve as an early predictor of lif
87 This study highlights the transition between adolescence and early adulthood as a critical period and
89 during the critical developmental period of adolescence and early adulthood is a major challenge.
90 ory airflow in these individuals during late adolescence and early adulthood with that of control ind
94 s among survivors of cancer diagnosed during adolescence and early young adulthood have not been char
96 tly downregulate PV levels in the PFC during adolescence and examined its impact on prefrontal GABAer
98 al activity initiation increasing throughout adolescence and higher immunogenicity for younger vaccin
99 the development of flexible cognition during adolescence and how these neural systems are affected in
100 ng axons toward the prefrontal cortex during adolescence and in the maturational organization and adu
101 population and that often has its genesis in adolescence and in vulnerable individuals associated wit
102 s and sexual minorities are present early in adolescence and increase throughout the school years, pe
104 y of basal ganglia iron concentration during adolescence and its association with cognition are less
105 e development of brain iron concentration in adolescence and its relationship to cognition are less w
106 gain of GABAergic function in the PFC during adolescence and its susceptibility to the impact of tran
108 oncentration across the basal ganglia during adolescence and provide evidence that diminished iron co
109 nlinear patterns of threat responding during adolescence and the continued development of the underly
112 why schizophrenia typically manifests after adolescence and which neurobiological mechanisms are und
113 suicidal ideation and hazardous drinking in adolescence and young adulthood as well as opioid use in
114 nd DMN function may be tightly linked during adolescence and young adulthood, and reduced DMN connect
122 substantial development across childhood and adolescence, and aberrations in these trajectories are r
124 hat were weak at 14 y became stronger during adolescence, and connections that were strong at 14 y be
125 ny mental health disorders first manifest in adolescence, and early treatment may affect the course o
126 ed morphologic and functional changes during adolescence, and it is believed that these changes serve
127 tation accumulation rates are established in adolescence, and later menarche in women is associated w
128 and hippocampal volume across school age and adolescence, and measures of emotion regulation and depr
129 ldren from preschool (ages 3 to 5 y) to late adolescence, and which includes prospective assessments
130 never-institutionalized children widened by adolescence; and (iii) early difficulties in visual-spat
133 odevelopmental adaptations that occur during adolescence are hypothesized to underlie age-related imp
134 cational experiences that span childhood and adolescence are independently related to level of cognit
137 maturation linked to pubertal development in adolescence are thought to affect multiple aspects of br
139 es-mediated input mapping in mice to uncover adolescence as a developmental stage when frontal top-do
141 sts in late adolescence or for SFSS in early adolescence as a robust correlate of well-being or predi
143 cidence of psychotic experiences during late adolescence as well as an unmet need for care in young p
146 ooperative behaviour remains constant across adolescence, but adjustment requiring cooperative behavi
147 ethylation is also observed in childhood and adolescence, but not adulthood. Birthweight-related CpGs
148 top-down neuron activity selectively during adolescence, but not later periods, produces long-lastin
150 human brain organization is disrupted during adolescence by remodeling of FC between association cort
154 amygdala undergoes extensive growth through adolescence, coinciding with the acquisition of complex
155 es of secondhand smoke exposure in childhood/adolescence consisted of parental self-reports of smokin
156 aturation of the somatosensory system during adolescence contributes to the improved motor control.
158 By contrast, protein restriction during adolescence decreased nucleus accumbens dopamine release
159 the behavioral level, MK-801 exposure during adolescence did not disrupt the acquisition of trace fea
160 requiring liver transplantation (LT) during adolescence, disparity on the waiting list and post-LT o
163 a standardised, classroom-based life skills Adolescence Education Program (AEP), compared to AEP alo
164 ults indicate NMDA receptor signaling during adolescence enables the gain of prefrontal GABAergic fun
165 uggests that psychoactive cannabinoid use in adolescence enhances the behavioral effects of cocaine.
166 standing the health effects of childhood and adolescence exposure to multiple industrial carcinogens
167 of prefrontal GABAergic transmission during adolescence for maintaining proper levels of excitatory-
168 ampus and highlight the utility of EE during adolescence for restoring normal hippocampal function.
169 identifying morphological sex differences in adolescence from those of the National Consortium on Alc
170 ividuals in the lower quartiles of intake at adolescence generally continuing to have low intake in y
171 ors for surgery included CD diagnosis during adolescence, growth impairment, NOD2/CARD15 polymorphism
172 eased mostly from puppyhood (0.5-1 years) to adolescence (> 1-2 years), then continued to decrease in
173 ally disadvantaged area during childhood and adolescence has a long-lasting negative association with
179 slowly, reaching maturity only at the end of adolescence; however, the mechanisms controlling the tim
180 institutionalized children persisted through adolescence; (ii) the gap in spatial working memory betw
183 during a critical period equivalent to early adolescence in humans to optimize the ability of organis
185 in a reversal-learning task improves during adolescence in male and female Long-Evans rats and demon
186 e assessed whether exposure to MK-801 during adolescence in male rats triggers a state of excitatory-
187 osure with neurodevelopment in childhood and adolescence in the Center for the Health Assessment of M
188 lood pressures increased more quickly during adolescence in the EP group than in the control group.Co
189 ich gray and white matter develop throughout adolescence in typically developing youth as well as in
190 occurs alongside behaviors that characterize adolescence, including deepening cognitive sophisticatio
191 and hypersensitivity to social rejection in adolescence increase the likelihood of both risky and pr
192 on dopamine release but the same diet during adolescence induced a frequency-dependent increase in st
193 ulants, and sedatives or tranquilisers) from adolescence into adulthood, assess the extent to which d
205 er exposure to parental smoking in childhood/adolescence is associated with midlife cognitive functio
208 of prefrontal cortex (PFC) maturation during adolescence is crucial to reveal which neural processes
209 man studies suggest that cannabis use during adolescence is linked to long-term negative psychologica
210 e PV upregulation observed in the PFC during adolescence is necessary for refinement of prefrontal GA
211 we hypothesized that PV upregulation during adolescence is necessary to sustain the increase in GABA
212 ses a nuclear envelopathy whose prognosis in adolescence is relatively good in comparison to that of
213 of the developing brain during childhood and adolescence is shaped by complex brain-environment inter
215 cannabis legalization and consumption during adolescence, it is essential to expand knowledge on the
216 lls are immature (DCX+PSA-NCAM+), and during adolescence many transition into mature (TBR1+VGLUT2+) n
217 Our findings indicate that stress during adolescence may accelerate the development of BLA-PFC pl
218 , obesity, and the combination of the two in adolescence may be related to risk for disability in adu
220 onic occupancy of CB1Rs by Delta9-THC during adolescence may competitively decrease the functional ex
221 Rationale: Growth and development during adolescence may modify the respiratory and vascular diff
224 erience of chronic peer victimization during adolescence might induce psychopathology-relevant deviat
226 onsortium on Alcohol and Neurodevelopment in Adolescence (NCANDA), and determining the bone age from
227 term (EP) individuals in childhood and early adolescence.Objectives: To assess the trajectory of resp
229 ed, consanguineous families with a childhood/adolescence onset of a myopathy associated with homozygo
231 impact of protein restriction either during adolescence or adulthood on the function of the mesolimb
233 n severe cases, kidney failure occurs during adolescence or early adulthood, so most research has foc
235 matory biomarkers or cognitive tests in late adolescence or for SFSS in early adolescence as a robust
236 no studies have extended these findings into adolescence or identified periods of heightened suscepti
239 ether parents being overweight in childhood, adolescence, or adulthood is associated with asthma in t
247 tion of footshock/restraint stress in either adolescence (postnatal day 31-40) or adulthood (postnata
248 slices revealed that MK-801 exposure during adolescence preferentially reduces the presynaptic funct
250 ial direct current stimulation (tDCS) during adolescence, prior to schizophrenia-relevant behavioral
252 ed, downregulation of miR-218 in the mPFC in adolescence promotes resilience to stress in adulthood.
253 articipants who restored normal total FMI in adolescence (PWV 5.8 m/s [5.7-5.9] for metabolically hea
254 eport that reversal-learning trajectories in adolescence reliably predicted reversal performance in a
256 and that 15 days of access to THC-gelatin in adolescence resulted in the down-regulation of cannabino
258 ice that had received Delta9-THC only during adolescence showed a significant (1) decrease in the ext
259 ed with poorer cognitive ability during late adolescence.SIGNIFICANCE STATEMENT Brain tissue iron is
260 ties during the transition from childhood to adolescence.SIGNIFICANCE STATEMENT Few imaging studies o
261 erizing the ways in which they change across adolescence.SIGNIFICANCE STATEMENT Working memory is a f
263 ontinue to develop across childhood and into adolescence, studying episodic memory maturation can pro
264 y continues to develop through childhood and adolescence, suggesting that the neural mechanisms that
265 olonged development, often lasting well into adolescence, suggests that children, teens, and adults m
266 l, and social changes across the duration of adolescence that are known or thought to be related to a
267 nt knowledge regarding the unique aspects of adolescence that may serve as risk factors for schizophr
268 identify circuit-specific treatments during adolescence that prevent the onset of the adult deficits
269 ps to support memory in middle childhood and adolescence, the extent to which ongoing maturation with
270 of postnatal brain development occurs during adolescence, the period between childhood and adulthood.
272 we show behaviorally that over the course of adolescence there is a within-person increase in model-b
273 expression in the mPFC increases from early adolescence to adulthood and correlates negatively with
274 le changes in GFR during the transition from adolescence to adulthood and overestimation of GFR in yo
275 These results highlight the transition from adolescence to adulthood as a period of dynamic maturati
276 I sensitization increased significantly from adolescence to adulthood mostly due to increased sensiti
277 ture and function changed significantly from adolescence to early adulthood in participants with yout
278 ry cortical response strength decreases from adolescence to early adulthood Somatosensory cortical re
279 was characterized by a slower increase from adolescence to middle adulthood, and by a lack of substa
280 ng samples (N = 2423), spanning childhood or adolescence to middle age, with prospective or family-ba
283 n interact with postnatal development during adolescence, triggering pathophysiological mechanisms re
284 of blunted threat extinction learning during adolescence, underpinned by brain structures such as the
287 advantaged neighborhood during childhood and adolescence was associated with a higher level of depres
288 ed that asthma acquisition from pre- to post-adolescence was associated with changes in DNAm during t
289 r pattern: recent depression severity during adolescence was associated with more focal hyporeactivit
290 arly poverty and self-reported depression in adolescence was explained by serial mediation through te
291 NAm changes and sex on asthma acquisition in adolescence were found at 13 of the 535 CpGs in IOWBC (P
292 these 10 CpGs, opposite DNAm changes across adolescence were observed between sexes in both cohorts.
293 s, and may explain why symptoms appear after adolescence when the expression of many sex-specific gen
294 inal study design spanning from childhood to adolescence, where participants underwent polysomnograph
296 Many with asymptomatic sensitization in adolescence will develop allergic rhinitis in adult life
300 ntinues to substantially increase throughout adolescence, yet the significance of this increase remai