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 y, lung function, and airway responsiveness (school age).
2 s to promote early intervention beginning in school age.
3 sensitization increase the risk of asthma at school age.
4 h the development of allergic diseases up to school age.
5 n assessment of neurodevelopment at least to school age.
6 tein content reduces BMI and obesity risk at school age.
7 hology was examined in relation to asthma at school age.
8 children with family history of allergies at school age.
9 y inflammation, is associated with asthma at school age.
10 3 at age 5 years or less predicted asthma at school age.
11 (ADHD) and impairment between preschool and school age.
12 erent respiratory/allergic phenotypes before school age.
13 lung volume growth in children of elementary-school age.
14 ween those who did or did not have asthma at school age.
15 wheezers and its association with asthma at school age.
16 iated with those children who have asthma at school age.
17 F19 on the prevalence of allergic disease at school age.
18 eezing child will or will not have asthma at school age.
19 nd has limited value in predicting asthma at school age.
20 predictive of hippocampal volume measured at school age.
21 ne therapy is effective and safe into middle school age.
22 om 1.43 D in 1-year-olds to nearly 2.00 D by school age.
23 in children of supplemented mothers through school age.
24 airway inflammation in asthmatic children at school age.
25 een specific modes of delivery and asthma at school age.
26 in is rarely seen in youth before they reach school age.
27 total IgE level or allergen sensitization at school age.
28 epression symptoms underwent neuroimaging at school age.
29 One patient had seizures only at school age.
30 age with cognitive and physical outcomes at school age.
31 y long-term benefit for visual processing at school age.
32 terns of 60 candidate genes in boys at early school age.
33 dogenous DHA synthesis in infancy but not at school-age.
34 n first-party contexts does not emerge until school-age.
36 , 0.36-0.43) and of not completing secondary school (age 2 years: 0.74, 0.67-0.78; mid-childhood: 0.8
38 ods, surveys of children entering elementary school (age 5 years before Sept 1) allow assessment of s
39 Predictors of arteriopathy include early school age (5 to 9 years), recent upper respiratory infe
42 in childhood (aged 0-5 years) or elementary school (aged 6-12 years) O(3) exposure was associated wi
44 nly sparsely functionally connected at early school age (7-9 years old); over development, these regi
46 sociation between transient hypoglycemia and school-age achievement test proficiency based on perinat
47 or functional outcomes in their children at school age, although a mortality advantage cannot be exc
48 predicts the probability of having asthma at school age among preschool children with suggestive symp
50 measured using magnetic resonance imaging at school age and children's diagnosis of MDD any time afte
51 support on hippocampal volume growth across school age and early adolescence and suggest an early ch
55 early childhood impacts brain development at school age and to explore the mediators of this effect.
58 ze and cough at 2 time points (preschool and school age) and objective measurements of atopy, lung fu
60 y preschool children who will have asthma at school age, and (4) recommendations to improve asthma pr
62 titis was found in 50% of those diagnosed in school age, and persistent atopic dermatitis was signifi
63 roke, particularly those presenting in early school age, and those with a history of sickle cell dise
65 tors associated with respiratory symptoms at school age are early respiratory problems, family histor
67 greater negative mood/depression severity at school age, as did connectivity between the left hippoca
68 ercury exposure with poorer performance on a school-age assessment of IQ, a measure whose relevance f
70 uramic acid related to a lower prevalence of school-age asthma (adjusted odds ratio, 0.59 [95% confid
73 ds ratio [pOR], 1.34; 95% CI, 1.25-1.43) and school-age asthma (pOR, 1.40; 95% CI, 1.18-1.67) indepen
74 eight gain, we observed the highest risks of school-age asthma in children born preterm with high inf
76 omen, with or without routine vaccination of school-age boys, and for a 1-time catch-up vaccination o
77 to common inhalant and food allergens up to school age, but sensitization to certain allergens might
80 A from mattress dust and nasal samples of 86 school age children was analyzed by 454 pyrosequencing o
84 wth standards" and "WHO growth standards for school aged children and adolescents" for children up to
86 ication method ranged from 18.9% to 36.9% in school-age children (5-11 years) and from 16.6% to 35.8%
87 ncentrations among infants (6-23 mo of age), school-age children (6-8 y of age), and women (15-25 y o
88 39 preschool children (ages 3-6 yr), and 38 school-age children (7-16 yr) with CF before chest compu
92 or Affective Disorders and Schizophrenia for School-Age Children and functioning assessed by the Chil
93 esis when screening large numbers of healthy school-age children and its association with certain fam
94 l pathways to, chronic high inhibition among school-age children and the association of chronic high
99 at school closure reduced transmission among school-age children by more than 50% and that this was a
100 d on 3 bilateral basal ganglia structures in school-age children chronically exposed to Mn through dr
101 ic vaccination campaign targeting adults and school-age children could have mitigated or prevented th
104 for the obstructive sleep apnea syndrome in school-age children did not significantly improve attent
105 sylation was analysed in serum/plasma of 700 school-age children from different communities of Gabon,
106 extracted from mattress dust samples of 489 school-age children from rural and suburban regions in G
108 exposure on various respiratory outcomes in school-age children generally representative of the popu
111 a panel study in a representative sample of school-age children in the two major cities of Greece, A
113 he findings underline the critical role that school-age children play in facilitating the geographic
114 or Affective Disorders and Schizophrenia for School-Age Children Present and Lifetime version (K-SADS
115 d with children without a history of PO MDD, school-age children previously diagnosed as having PO MD
116 on or P. falciparum infection in infants and school-age children resulted in significantly lower ID p
117 This is a retrospective study of sixty-six school-age children who received overnight orthokeratolo
119 imed to examine patterns of dysconnection in school-age children with ASD and ADHD and typically deve
122 tion was significantly higher in infants and school-age children with either inflammation or P. falci
125 e purpose of the current study was to assess school-age children's multitasking abilities during degr
127 dren younger than 5 years, 22.2-25.9 million school-age children, and 16.5-21.1 million adolescents w
133 tive to recently circulated strains peaks in school-age children, reaches a minimum between ages 35-6
134 district from 10% to 75% coverage of at-risk school-age children, the cost-effectiveness in terms of
136 or Affective Disorders and Schizophrenia for School-Age Children-Present and Lifetime Version intervi
137 or Affective Disorders and Schizophrenia for School-Age Children-Present and Lifetime Version intervi
138 or Affective Disorders and Schizophrenia for School-Age Children-Present and Lifetime Version, the Ch
153 [0.5%] exposed to farm animals) and 276,298 school-aged children (22,629 [8.2%] exposed to dogs and
156 st effective compared with treatment of only school-aged children (ICER $167 per DALY averted) and WH
157 ssociated with a decreased risk of asthma in school-aged children (OR, 0.87; 95% CI, 0.81-0.93) and i
160 reatment costs were estimated at US$0.74 for school-aged children and $1.74 for preschool-aged childr
162 ion (95% CrI 121 million to 125 million) for school-aged children and 247 million (239 million to 256
163 sentially uncharted, and existing studies in school-aged children and adolescents are confounded grea
167 left hemispheric posterior brain regions for school-aged children and adults with a diagnosis of DD.
168 rs of reading skills have been identified in school-aged children and adults; many pertain to the pre
169 rrent diagnosis of asthma at age 6 years for school-aged children and as the hazard ratio (HR) for in
170 ic memory B cells at steady state in primary school-aged children and little association with MenC Ig
171 ciated with a reduced risk of asthma in both school-aged children and preschool-aged children (OR, 0.
172 h 75% coverage in only school-aged children; school-aged children and preschool-aged children; adults
173 life circumstances of a community sample of school-aged children and then followed these children fo
174 y rate relative to baseline were greatest in school-aged children and young adults, with no evidence
175 of Austria, Germany, and Switzerland, 79,888 school-aged children answered a recruiting questionnaire
176 is was highly cost-effective in treatment of school-aged children at a prevalence of 20% (95% UI 5.4-
177 is was highly cost-effective in treatment of school-aged children at a prevalence threshold of 5% (95
180 or socioeconomic status (Health Behaviour in School-aged Children Family Affluence Scale) and health
182 kworm, A lumbricoides, and T trichiura among school-aged children from 2000 onwards was 16.5%, 6.6%,
183 ross-sectional survey was carried out on 693 school-aged children from 5 schistosomiasis-endemic vill
184 cted from 4512 ethnically diverse, nonmyopic school-aged children from grades 1 through 8 (baseline g
185 research summer camp program for low-income, school-aged children from July 1, 1986, to August 15, 20
187 ysis sheds quantitative light on the role of school-aged children in measles cross-scale dynamics, as
188 l exposure samples (n = 249) of 62 asthmatic school-aged children in Montreal were collected over 10
194 and targeting 2 potential high-risk groups: school-aged children initiating stimulant medications to
195 transmitted helminthiasis when prevalence in school-aged children is at or above a threshold of 50% a
197 he basis of WHO guidelines (treatment of all school-aged children once per year where prevalence in t
199 tion of 2 doses of varicella vaccine for all school-aged children should be incorporated into the sta
201 nalysis of data from the Health Behaviour in School-aged Children study, in which cross-sectional sur
202 is associated with allergic sensitization in school-aged children suggesting systemic low-grade infla
203 rtance of regular screening of preschool and school-aged children to reduce the development and progr
206 cRCT in closely connected communities where school-aged children were vaccinated: 60% (95% confidenc
207 to improved adherence and asthma outcomes in school-aged children who presented to the emergency depa
212 tion concentrated on a small area, including school-aged children with low background incidence of ca
213 Suicide is a leading cause of death among school-aged children younger than 12 years but little is
215 est that food insecurity was associated with school-aged children's emotional problems but not with t
217 t included 17,696 children aged <5 y, 25,508 school-aged children, 28,328 adolescents, 89,164 adults,
218 udies were, however, performed in adults and school-aged children, and only a little is known about h
219 and individual levels in children <5 y old, school-aged children, and women of reproductive age.
220 ion of A(H1N1)pdm09 infections included more school-aged children, compared with seasonal influenza A
222 erd immunity' associated with immunizing all school-aged children, the suboptimal antigenic match bet
223 Although the highest infection risk was in school-aged children, there were important heterogeneiti
225 parasitic infections emphasise treatment of school-aged children, using separate treatment guideline
227 ers, counterintuitively, perform better than school-aged children, who in turn perform better than ad
252 on between gestational age and 4 outcomes in school-aged children: readiness to enter kindergarten, s
253 reatment programme with 75% coverage in only school-aged children; school-aged children and preschool
254 th adverse neurodevelopmental outcomes among school-aged children; yet, few studies have evaluated pr
255 (H1N1)pdm09 infection were more likely to be school-aged, compared with patients with seasonal influe
256 In countries with no pertussis booster until school age, continued monitoring of protection against p
257 rvivors available for follow-up, outcomes at school age (corrected age 6-11 years) were determined fo
260 iota of 327 throat and 68 nasal samples from school-age farm and nonfarm children were analyzed by 45
261 s isolated from a PEODDN lesion of a primary school-aged female patient with bands of hyperkeratotic-
262 from the 14 centers who participated in the school-age follow-up (n = 443 magnesium; n = 424 placebo
263 hood materially impacts brain development at school age further underscores the importance of attenti
264 antly increased risk of developing asthma by school age (>/=2 biomarkers vs none: OR, 6.6; 95% CI, 2.
265 n early childhood, although its effects into school age have not been reported from randomized trials
269 il thickening and plantar keratoderma before school age in more than three-quarters of affected child
270 ple and robust tool for predicting asthma at school age in preschool children with wheeze or cough.
271 mpus and amygdala and a number of regions at school age, including the superior frontal cortex, lingu
274 vel modeling of the effects of preschool and school-age maternal support on hippocampal volumes acros
276 uring pregnancy, cord blood, and children at school age (median age, 7.7 years; interquartile range,
278 0% reduced odds of ever allergic rhinitis at school age (odds ratios of 0.79 [95% CI, 0.67-0.92] and
279 set remitting, midchildhood-onset remitting, school age-onset persisting, late childhood-onset persis
281 tion in childhood protects against asthma at school age partially by means of higher intake of omega-
283 not a public health concern in this primary school-aged population; however, visually impaired child
284 ssess the development of sensitization until school age related to longitudinal exposure to air pollu
287 rrelates of attention and memory deficits in school-age survivors of neonatal extracorporeal membrane
288 was inversely associated with HT; c-BMI from school age to adulthood and c-height from birth to schoo
290 live at randomization, the mortality rate to school age was 14% (88/629) in the magnesium sulfate gro
291 leanliness and allergic health conditions at school age was collected in 399 participants of the urba
293 chool children who underwent neuroimaging at school age, we investigated whether early maternal suppo
295 age to adulthood and c-height from birth to school age were positively associated with hypertension.
296 children who participated in neuroimaging at school age were used to investigate the effects of pover
297 regnant mothers, cord blood, and children at school age were weak to moderate (r = -0.03 to 0.53).
298 n impact on functional brain connectivity at school age, which in turn mediates influences on child n
299 f one's number sense improves throughout the school-age years, peaking quite late at approximately 30
WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。