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1 on of placental infection and associated low birthweight.
2 risk of non-communicable diseases after low birthweight.
3 .6 million infants were born at term and low birthweight.
4 duce overall rates of pre-term birth and low birthweight.
5 w concentrations of ambient air pollution on birthweight.
6 and impaired nutrient transport causing low birthweight.
7 erapy reduces rates of preterm birth and low birthweight.
8 al loss (abortions and stillbirths), and low birthweight.
9 ltiple pregnancies than in infants of normal birthweight.
10 for Q3, and 3.56 (1.79-7.10) for Q4 for low birthweight.
11 increase the rate of babies born with a low birthweight.
12 d with increased risk of prematurity and low birthweight.
13 isk factors for under-5 mortality, including birthweight.
14 ren who had been full-term infants of normal birthweight.
15 The primary outcome was birthweight.
16 5% CI 0.90-2.21, I(2)=0.0%, p=0.543) for low birthweight.
17 are associated with maternal anemia and low birthweight.
18 s contribute to racial/ethnic differences in birthweight.
19 eted weeks of gestation or 1000 g or heavier birthweight.
20 llbirth, miscarriage, preterm birth, and low birthweight.
21 rence [RD] -0.05, 95% CI -0.12 to 0.02), low birthweight (0.00, -0.07 to 0.07), and placental malaria
22 Lower birth length (1.9 [1.1-3.2]), lower birthweight (0.5 [0.3-0.9]), and higher birthweight (0.6
23 ower birthweight (0.5 [0.3-0.9]), and higher birthweight (0.6 [0.4-1.0]) were predictive of sensitiza
24 (relative risk 1.50, 95% CI 1.24-1.82), low birthweight (1.62, 1.41-1.86), small for gestational age
25 -2.35, 156/1402 [11%] vs 120/1739 [7%]), low birthweight (1.82, 1.09-3.06, 77/996 [8%] vs 49/1192 [4%
27 r in male than female babies in the group of birthweight 1000-1499 g (61.0 [53.8-68..2] vs 49.5 [42.8
30 y than all other hospital births to have low birthweight (19.1%; SE, 0.5%; vs 7.0%; SE, 0.2%), have r
31 .7 per DALY averted for moderate risk of low birthweight, $19.4 per DALY averted for low risk, and $4
32 s also suggest an increased risk of term low birthweight (2.62, 1.15-5.93) and preterm low birthweigh
33 quantel did not have a significant effect on birthweight (2.85 kg in both groups, beta=-0.002 [95% CI
35 1%] vs 53 [24.0%], p=0.015) and a lower mean birthweight (3163 [SD 642] vs 3341 [606] g, p=0.013) in
36 Prospectively enrolled preterm infants with birthweights 500-1,250 g underwent echocardiogram evalua
37 he 12,355,251 live births were classified by birthweight: 500-1,499 g (very LBW [VLBW], n = 139,608),
38 ient supplements during pregnancy had a mean birthweight 77 g greater than children born to mothers t
39 ong infants less than the 5th percentile for birthweight (a proxy for preterm birth) across the clust
41 ween maternal anaemia and placental size and birthweight across the normal range for these measures.
43 that the Mstn KO rabbits exhibited increased birthweight and a significantly increase in the weight r
44 In view of the apparent association between birthweight and adult weight, obesity prevention efforts
51 e in reducing maternal anaemia and improving birthweight and infant survival in hookworm-endemic regi
53 untries of low and middle income to increase birthweight and linear growth during the first 2 years o
54 n pregnancy (IPTp or ITNs) at preventing low birthweight and neonatal mortality under routine program
55 ery, small size for gestational age, and low birthweight and no effect on maternal quality of life, g
58 nt supplementation decreases the risk of low birthweight and potentially improves other infant health
59 7 weeks, <34 weeks, or <32 weeks) and on low birthweight and preterm, premature rupture of membranes.
60 ther potential in utero determinants of both birthweight and risk for type 2 diabetes may yield new m
63 risk factors might explain the link between birthweight and risk of IHD in both the individual and t
66 aims of a strong inverse association between birthweight and subsequent blood pressure may chiefly re
67 r, a consistent negative association between birthweight and systolic blood pressure was noted from a
68 t since the former is highly correlated with birthweight and the latter with deprivation, we believe
69 ight gain during pregnancy seems to increase birthweight and the offspring's risk of obesity later in
70 ls, we assessed how these outcomes relate to birthweight and to statistically independent measures re
73 rths (2520 [5%] less than 5th percentile for birthweight) and 50 control clusters with 50,743 livebir
75 ween malaria prevention in pregnancy and low birthweight, and a Poisson model for the outcome of neon
77 fixed ratios) with similar gestational ages, birthweight, and birth dates were selected from the popu
78 w, moderate, and high background risk of low birthweight, and did a separate analysis for HIV-negativ
81 anthelmintic treatment and maternal anaemia, birthweight, and infant mortality in a study of prenatal
82 aternal obesity is associated with increased birthweight, and obesity and premature mortality in adul
85 ing childhood or adolescence on live births, birthweight, and the frequency of congenital malformatio
87 term delivery (<37, <34, and <32 weeks); low birthweight; and preterm, premature rupture of membranes
88 Complications of pregnancy linked to low birthweight are associated with an increased risk of sub
89 pregnancy complications associated with low birthweight are related to risk of subsequent IHD in the
91 was associated with an increased risk of low birthweight at term (adjusted odds ratio [OR] 1.18, 95%
93 A substantial proportion of cases of low birthweight at term could be prevented in Europe if urba
99 x and neurological subtype in infants with a birthweight below 1000 g and 1000-1499 g in the period 1
102 ssociation between pregnancy weight gain and birthweight (beta 7.35, 95% CI 7.10-7.59, p<0.0001).
105 ely each of the perinatal factors, including birthweight, birth length, parental age at delivery, ges
107 men showed increased length of gestation and birthweight, but did not have a higher risk of macrosomi
108 ternal immunisation reduced the rates of low birthweight by 15% (95% CI 3-25) in both cohorts combine
112 r-gestational-age infants (</=5th customised birthweight centile; 6% vs 5%) did not differ between gr
114 abnormal fetal growth and development: (low birthweight, congenital malformations, reduced head circ
116 perinatal outcome (lower gestational age and birthweight, containing all cases of perinatal mortality
117 es born preterm and SGA rather than with low birthweight could guide prevention and management strate
118 obtained life expectancy, mortality, and low birthweight data from the WHO Statistical Information Sy
122 7-like variants delivered infants with lower birthweight (difference: -267.99 g; 95% Confidence Inter
124 g countries, the risk of prematurity and low birthweight doubles when conception occurs within 6 mont
127 Babies of 32-42 weeks' gestation with a birthweight for gestational age below the 10th percentil
128 ess and death is increased in infants of low birthweight for gestational age, but the underlying phys
129 way function is diminished in infants of low birthweight for gestational age, independent of exposure
130 6, 0.73-1.01, p=0.060) decreased risk of low birthweight for those in the MMN group, with a 33% (RR 0
131 0 g weight increase; p=0.001) independent of birthweight, gestation, neonatal morbidity, and demograp
132 ociations between maternal age and offspring birthweight, gestational age at birth, height-for-age an
133 2011, and for whom information about infant birthweight, gestational age, and sex was available.
134 ca, and Latin America that recorded data for birthweight, gestational age, and vital statistics throu
135 ars) maternal age were associated with lower birthweight, gestational age, child nutritional status,
136 TN (e.g., pre-eclampsia) and infant factors (birthweight, gestational age, erythropoietin use, and zo
137 ed odds ratio 2.4, 95% CI 1.2-4.9), neonatal birthweight greater than 4.0 kg (2.3, 1.3-3.8), and occi
141 neonates of 32 weeks' gestation or more (or birthweight >/=1500 g) with livebirth denominator data,
142 and three primary outcomes (LGA [defined as birthweight >90th percentile for gestational age], high
144 ancy leads to adverse outcomes including low birthweight; however, contemporary estimates of the pote
145 (ITNs) significantly reduce the risk of low birthweight in regions of stable malaria transmission.
146 Pooled RRs for babies who were SGA (with birthweight in the lowest tenth percentile of the refere
147 small-for-gestational-age (SGA; babies with birthweight in the lowest third percentile and between t
149 clinical gestational age is associated with birthweight independent of gestational age, sex, and anc
151 in two meridians was performed on 222 normal-birthweight infant subjects at 3 and 9 months of age.
152 ry preterm (1.53, 1.22-1.92), or to have low-birthweight infants (1.30, 1.04-1.62) than were those wh
153 ke it an important intervention for very low birthweight infants admitted to hospital in developing c
154 because of the improved survival of very low birthweight infants and their need for invasive monitori
155 ased use of antenatal corticosteroids in low-birthweight infants in the intervention groups, neonatal
157 ear to be at risk for early delivery and low birthweight infants, and women with ulcerative colitis m
162 ority trial with healthy, full-term (>2.5 kg birthweight) infants aged 8 weeks (+/- 7 days) at six we
170 seems to be more common in term babies whose birthweight is low for their gestational age at delivery
172 It had been estimated that a 1 kg higher birthweight is typically associated with a 2-4 mm Hg low
173 reterm delivery (S-shaped, p<0.0001) and low birthweight (J-shaped, p=0.0001); the adjusted odds rati
179 nfection during pregnancy on the risk of low birthweight (LBW; <2,500 g) may depend upon maternal nut
180 ve GWG showed increased length of gestation, birthweight, length, and head circumference, and were mo
182 born with cerebral palsy; 414 (26%) were of birthweight less than 1000 g and 317 (20%) were from mul
183 prevalence of cerebral palsy in children of birthweight less than 1500 g has fallen, which has impor
185 eeks or 41 weeks or more; maternal diabetes; birthweight less than 500 g or more than 7000 g; and mis
186 sociations between income inequality and low birthweight, life expectancy, self-rated health, and age
187 cting as an early life stressor, we examined birthweight, litter size, maternal cannibalism, and epig
188 ted with increased risk of RA include higher birthweight, living in the northeastern United States co
189 more likely to be small for gestational age (birthweight < 10 percentile for gestational age; 18.2% v
190 performed in 37 consecutive FGR (defined as birthweight <10th centile) and 37 normally grown fetuses
191 eclampsia, small-for-gestational-age infant (birthweight <10th percentile), pregnancy loss, or venous
192 a, and our main secondary endpoints were low birthweight (<2.5 kg) and small size for gestational age
193 red rates of livebirth, multiple births, low birthweight (<2.5 kg), preterm birth (<37 weeks), and se
194 : -466.43 g,-69.55 g) and higher odds of low birthweight (<2500 g) (Odds Ratio [OR] 5.41; 95% CI:0.99
196 0-180 days postpartum, the incidence of low birthweight (<2500 g), and the incidence of laboratory-c
197 GA and preterm-SGA), and the relation to low birthweight (<2500 g), in 138 countries of low and middl
198 sometimes has adverse outcomes including low birthweight (<2500 g), pre-term birth (<37 weeks), growt
199 gnificant associations of amblyopia with low birthweight (<2500 g), preterm birth (<37 weeks), matern
200 .72, 100/704 [14%] vs 1494/27 674 [5%]), low birthweight (<2500 g; 2.53, 1.19-5.36, 32/261 [12%] vs 9
201 (composite of small for gestational age, low birthweight [<2,500 g], or preterm birth [<37 wk]) in pa
202 tal health and risk for preterm birth or low birthweight, making periodontitis a potentially modifiab
204 in, pre-pregnancy BMI, preterm delivery, low birthweight, maternal antibiotic use, and infection duri
205 ncy at birth, infant mortality, low and high birthweight, maternal mortality, nutritional status, edu
208 th, very small for gestational age, very low birthweight, miscarriage, or neonatal death, although fe
209 he risks of MiP and malaria-attributable low birthweight (mLBW) in unprotected pregnancies (i.e., tho
210 analyses included cesarean-section delivery, birthweight, multiple birth, and infant survival status.
212 In 2002-2004, we randomized 4345 normal birthweight neonates to NVAS (50 000 IU retinyl palmitat
215 s with younger maternal age remained for low birthweight (odds ratio [OR] 1.18 (95% CI 1.02-1.36)], p
217 gned to FNP was 3217.4 g (SD 618.0), whereas birthweight of 768 babies assigned to usual care was 319
218 ticipants were healthy newborn babies with a birthweight of at least 2.5 kg, for whom informed consen
219 ore pregnancies for each woman predicted the birthweight of her offspring, using a within-subject des
223 tobacco use by the mother at late pregnancy, birthweight of the baby, the proportion of women with a
224 The median gestational age at birth and birthweight of the infants were 27 weeks and 909 g, resp
225 if any, on pregnancy loss, live births, and birthweight of treatment for cancer diagnosed during chi
231 etal death in the third trimester (>/=1000 g birthweight or >/=28 completed weeks of gestation).
234 -like illness, influenza in infants, and low birthweight over the entire course of the study, indicat
235 nfant characteristics (sex, gestational age, birthweight, parity and breast feeding), maternal charac
236 ficantly associated with reduced odds of low birthweight (PE 21%, 14-27; IRR 0.792, 0.732-0.857), as
238 estational age, parity, and sex-standardised birthweight percentile of liveborn babies delivered at 2
241 of gestation, induced programming of altered birthweight, postnatal growth rate, hypertension and org
243 gestational age, small for gestational age, birthweight, pregnancy loss or miscarriage, or pre-eclam
245 offspring of these women are at risk for low birthweight, premature (< 36 weeks gestation) birth, and
247 birthweight, very low birthweight, term low birthweight, preterm low birthweight, small for gestatio
248 ociated with delivering a baby in the lowest birthweight quintile for gestational age (adjusted hazar
249 atal mortality rate) (cubic spline), log(low birthweight rate) (cubic spline), log(gross national inc
250 th uncomplicated pregnancies (individualized birthweight ratio [IBR] >20th percentile and delivery >3
251 sk of breast cancer was noted with increased birthweight (relative risk [RR] 1.15 [95% CI 1.09-1.21])
253 ements resulted in greater reductions in low birthweight (RR 0.81, 95% CI 0.74-0.89; p value for inte
255 sability-adjusted life-years (DALYs) for low birthweight, severe to moderate anaemia, and clinical ma
256 stic regression models, adjusted for child's birthweight, sex, age, ethnic origin, parental education
257 ined after adjustment for centre, gestation, birthweight, sex, plurality, and use of antenatal steroi
258 6% (14% [4-24]), and 12 (23%) of 52 had low birthweight singleton offspring compared with a normal r
259 herapy is associated with preterm birth, low birthweight, small for gestational age, and stillbirth,
261 rthweight, term low birthweight, preterm low birthweight, small for gestational age, very small for g
262 er, date of birth, gestational age at birth, birthweight, stage of ROP at presentation, initial treat
263 including gender, gestational age at birth, birthweight, stage of ROP at presentation, prior treatme
264 iorespiratory disease is associated with low birthweight suggesting the importance of the development
265 ery preterm birth, low birthweight, very low birthweight, term low birthweight, preterm low birthweig
267 babies with normal physical examinations and birthweights that were appropriate for gestational age.
268 acental infection and associated risk of low birthweight to estimate the number of women who would ha
269 n pregnancies, we related placental size and birthweight to maternal iron status, socioeconomic statu
270 ial reductions in neonatal mortality and low birthweight under routine malaria control programme cond
271 association between maternal weight gain and birthweight using state-based birth registry data that a
273 omes: preterm birth, very preterm birth, low birthweight, very low birthweight, term low birthweight,
274 and early childhood caries (ECC) in very low birthweight (VLBW) and normal birthweight (NBW) infants
275 ern Europe, is higher in infants of very low birthweight (VLBW)--those born weighing less than 1500 g
282 t associated with dysglycaemia, but a higher birthweight was associated with decreased risk of the di
288 s for multiple birth, preterm birth, and low birthweight were all smaller in older than in younger wo
290 ks' gestation and below the 10th centile for birthweight were randomised within 72 h of birth to rece
294 atally to maternal smoking who, according to birthweight, were either small (SGA; n = 38) or appropri
295 s of pregnancy was associated with increased birthweight when compared with a standard iron and folic
296 on at delivery and health outcomes including birthweight, which is also determined by a wide range of
297 ; maternal mortality in ten populations; low birthweight with the rate difference greater than 2% in
298 e greater than 2% in three populations; high birthweight with the rate difference greater than 2% in
300 n coefficients of systolic blood pressure on birthweight (with 48 further studies that reported only
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