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1 of these babies dying as a direct result of preterm delivery.
2 ly associated with fetal mortality and early preterm delivery.
3 is in pregnant persons at increased risk for preterm delivery.
4 m in the index pregnancy or had a history of preterm delivery.
5 ty, was associated with an increased risk of preterm delivery.
6 but was inconclusive for women with a prior preterm delivery.
7 ith the recognition of brain injuries due to preterm delivery.
8 the expression of inflammatory mediators and preterm delivery.
9 l secretions has been used as a predictor of preterm delivery.
10 ity-related risks were highest for extremely preterm delivery.
11 ks of preterm delivery, especially extremely preterm delivery.
12 age was associated with an increased risk of preterm delivery.
13 preeclampsia, cesarean section delivery, and preterm delivery.
14 whether AS intake is indeed associated with preterm delivery.
15 ages is associated with an increased risk of preterm delivery.
16 complicated pregnancies requiring emergency preterm delivery.
17 n on perinatal mortality is mediated through preterm delivery.
18 sma parvum serovar 3 either 7 or 70 d before preterm delivery.
19 , this was not significantly associated with preterm delivery.
20 therapy for women presenting with threatened preterm delivery.
21 ty, as measured by apparent temperature, and preterm delivery.
22 ons responsible for impaired development and preterm delivery.
23 rm delivery has no net benefit in preventing preterm delivery.
24 n pregnancy are at high risk for spontaneous preterm delivery.
25 sions in medically indicated and spontaneous preterm delivery.
26 e presence of the organism may contribute to preterm delivery.
27 the maternal-placental interface in cases of preterm delivery.
28 contributes to increased risk of spontaneous preterm delivery.
29 ed small-for-gestational age (SGA) birth and preterm delivery.
30 vaginosis in pregnant women at high risk for preterm delivery.
31 in a mouse model of inflammation-associated preterm delivery.
32 how to classify disorders that lead to such preterm delivery.
33 vaginosis in pregnant women at low risk for preterm delivery.
34 echanism of pregnancy complications, such as preterm delivery.
35 cy are associated with an increased risk for preterm delivery.
36 ere used to test for effects of treatment on preterm delivery.
37 oint (95% CI 1.07 to 3.24) increased risk of preterm delivery.
38 nd biochemical abnormalities associated with preterm delivery.
39 n pregnant persons not at increased risk for preterm delivery.
40 int (95% CI -1.26 to 4.38) increased risk of preterm delivery.
41 ng a subset of patients at increased risk of preterm delivery.
42 and cervical shortening in women at risk of preterm delivery.
43 -A may be an effective strategy for delaying preterm delivery.
44 s) used during pregnancy on fetal growth and preterm delivery.
45 on during pregnancy may be a risk factor for preterm delivery.
46 The associations are similar for the risk of preterm delivery.
47 placental insufficiency against the risks of preterm delivery.
48 l pessary can reduce the risk of spontaneous preterm delivery.
49 nancy complications such as miscarriages and preterm delivery.
50 is a major factor that predisposes women to preterm delivery.
51 ; its failure is associated with abortion or preterm delivery.
52 cted pregnant women and were associated with preterm delivery.
53 nancy and to evaluate their association with preterm delivery.
54 activity was increased in human amnion from preterm deliveries.
55 o assess coverage for these interventions in preterm deliveries.
56 2%, 95% CI -8.28, -0.60, p = 0.024), overall preterm delivery (-11.72%, 95% CI -15.87, -7.35, p<0.001
57 n pregnancy (n = 669) had increased risks of preterm delivery (164/664; 25% versus 144/2200; 6.5%; ad
58 60), any major birth defect (1233 vs. 4932), preterm delivery (1792 vs. 7168), and birth of infants a
59 elivery (360 [35.4%]), preterm labor without preterm delivery (269 [26.4%]), and miscarriage (262 [25
63 (hazard ratio, 1.64; 95% CI, 1.42 to 1.88); preterm delivery, 53.3% vs. 17.8% (hazard ratio, 4.68; 9
64 nce odds ratio, 1.12; 95% CI, 0.69 to 1.82), preterm delivery (6.2% and 5.2%; prevalence odds ratio,
65 ata show a 3.8-fold reduction in the rate of preterm delivery, a decrease in periodontal pathogen loa
66 idemiologists can use recurrence patterns of preterm delivery across generations to assess the relati
67 as also associated with an increased risk of preterm delivery (adjusted OR: 1.25; 95% CI: 1.08, 1.45)
68 xtent that unmeasured pathologies triggering preterm delivery also directly harm the fetus, they will
72 ociated with the risk of low birth weight or preterm delivery among mothers who have had at least 2 l
78 een smoking and preeclampsia with respect to preterm delivery and birth weight; smokers who developed
80 ts during pregnancy protect newborns against preterm delivery and early neonatal death, but the impac
85 e suggests no difference in the incidence of preterm delivery and related outcomes from treatment for
86 at the Extremes (ICE), were associated with preterm delivery and related racial/ethnic disparities u
89 iated with adverse birth outcomes, including preterm delivery and small-for-gestational-age (SGA) bir
92 ery was associated with an increased risk of preterm delivery and uterine dehiscence at delivery.
93 eous abortion, intrauterine-fetal-death, and preterm delivery) and neonatal sequelae [small for gesta
95 GH vs no HDP, 1.62 (95% CI, 1.46-1.79) after preterm delivery, and 1.86 (95% CI, 1.15-3.02) after sti
96 14) for Q3, and 8.86 (5.66-13.86) for Q4 for preterm delivery, and 2.29 (95% CI 1.08-4.84) for Q2, 3.
97 o developed preeclampsia had a lower risk of preterm delivery, and a lower adjusted mean difference i
98 neighborhood with high firearm violence and preterm delivery, and assessed whether there was mediati
99 30 kg/m(2) or higher, obstetric hemorrhage, preterm delivery, and caesarean section (ARs, >/=637/100
101 ing outcomes were studied: cesarean section, preterm delivery, and early preterm delivery; small for
102 e birth outcomes (small for gestational age, preterm delivery, and low birth weight) were evaluated.
104 llitus, hypertensive disorders of pregnancy, preterm delivery, and size for gestational age with calc
107 In pregnancy it may cause fetal loss or a preterm delivery, and the neonate is prone to neonatal s
108 Firearm violence was associated with risk of preterm delivery, and this association was partially med
113 e found significant elevated risks of having preterm delivery as RR = 3.08, 95% confidence interval (
114 esity are associated with increased risks of preterm delivery, asphyxia-related neonatal complication
115 iteria, and race/ethnicity influence the HCA-preterm delivery association and that HCA contributes to
118 istic regression models, medically indicated preterm delivery at <35 weeks was significantly associat
121 7 days (2- and 7-day repeat exposure) before preterm delivery at 124 days gestation (term=150 days).
124 gher rates than zidovudine-based ART of very preterm delivery before 34 weeks (6.0% vs. 2.6%, P=0.04)
126 zidovudine alone (16.9% vs. 8.9%, P=0.004); preterm delivery before 37 weeks was more frequent with
127 gestation resulted in a reduced incidence of preterm delivery before 37 weeks, and reduced perinatal
128 grouped the multiple disorders that lead to preterm delivery before the 28th week of gestation in a
129 n models to identify factors associated with preterm delivery (before 37 weeks' gestation) and small
130 ssessed 112 women with at least one previous preterm delivery between 16 and 34 weeks' gestation.
131 ts indicate that fFN is not only a marker of preterm delivery but also plays a significant role in th
132 ated fatty acids may reduce the incidence of preterm delivery but may also prolong gestation beyond t
133 PI-based HAART was associated with increased preterm delivery but not increased infant hospitalizatio
134 ratures with adverse birth outcomes, such as preterm delivery, but other birth outcomes have not been
136 GSI treatment prevents PGN+poly(I:C)-induced preterm delivery by 55.5% and increased the number of li
138 ath/stillbirth, poor fetal growth, abortion, preterm delivery, C-section, obstetric bleeding, infecti
139 upture of membranes) and medically indicated preterm delivery (cesarean delivery before onset of labo
140 tes of antenatal corticosteroid use, induced preterm deliveries, cesarean deliveries, and surfactant
141 asone administered to women at risk for late preterm delivery decreases the risks of neonatal morbidi
143 o magnesium sulfate before anticipated early preterm delivery did not reduce the combined risk of mod
145 with adverse obstetrical outcomes including preterm delivery, early miscarriage, postpartum endometr
146 h the lowest quartile set as reference) with preterm delivery, early-term delivery, low birthweight,
147 ancy were associated with increased risks of preterm delivery, especially extremely preterm delivery.
148 y 31 operations associated with 1 additional preterm delivery, every 39 operations associated with 1
150 otency with mode of delivery, birth defects, preterm delivery, fetal death, and low Apgar score.
152 sure with orofacial cleft, low birth weight, preterm delivery, fetal death, low Apgar score, and mode
153 orticosteroid exposure with orofacial cleft, preterm delivery, fetal death, low Apgar score, and mode
154 reporting findings among women with a prior preterm delivery, findings were inconsistent; 3 showed a
155 The difference concerned mainly induced preterm delivery for maternal or fetal indications (5.6%
156 nt associations for apparent temperature and preterm delivery found in this study, more large-scale s
157 Using a mouse model of infection-induced preterm delivery, gestational tissues were collected 8 h
159 feine intake during pregnancy on the risk of preterm delivery has been studied for the past 3 decades
160 n pregnant persons not at increased risk for preterm delivery has no net benefit in preventing preter
166 are used to treat pregnant women at risk for preterm delivery; however, prenatal exposure to GCs may
167 h MS had an increased risk of infections and preterm delivery; however, their risks for other adverse
168 (May 2002-June 2005) of Iowa SGA births and preterm deliveries identified from birth records (n = 2,
170 ions between placental vascular findings and preterm delivery in 1,053 subcohort women (239 preterm,
171 cient (ADC) of the cervix is associated with preterm delivery in asymptomatic patients with a sonogra
172 -income + race/ethnicity was associated with preterm delivery in both early childhood (relative risk
175 prepregnancy lifestyle and CVD risk factors, preterm delivery in the first pregnancy was associated w
176 nancy factors were associated with recurrent preterm delivery, including alcohol, thyroid disease, an
178 Risks of extremely, very, and moderately preterm deliveries increased with BMI and the overweight
182 positive pregnant women an increased rate of preterm delivery is associated with highly active antire
186 differences in maternal anemia, stillbirths, preterm delivery, LBW, or all-cause mortality of infants
187 ternal DNA in cord blood was associated with preterm delivery, low birth weight, and maternal immunos
188 atory nicotine inhalation is associated with preterm delivery, low birth weight, fetal growth retarda
189 e, race or ethnic origin, pre-pregnancy BMI, preterm delivery, low birthweight, maternal antibiotic u
190 percentile, preterm delivery <37 weeks, and preterm delivery <34 weeks with minimal heterogeneity.
191 sits to determine the relationship to cases (preterm delivery <37 weeks' gestation) and controls (ter
192 , SGA <10th percentile, SGA <5th percentile, preterm delivery <37 weeks, and preterm delivery <34 wee
193 st partum; 0.86 [0.74-1.00], p=0.039), early preterm delivery (<34 weeks; 0.75 [0.61-0.93], p=0.039),
195 he risk of having adverse neonatal outcomes: preterm delivery (<37 weeks of gestation), low birth wei
196 wn neonatal death up to 7 days after birth), preterm delivery (<37 weeks' gestation), or neonatal uni
198 ight (in grams), low birth weight (<2500 g), preterm delivery (<37 weeks), small for gestational age
199 o estimate the pooled effect of treatment on preterm delivery (<37 weeks, <34 weeks, or <32 weeks) an
200 o estimate the pooled effect of treatment on preterm delivery (<37, <34, and <32 weeks); low birthwei
201 es, such as preeclampsia, cesarean delivery, preterm delivery, macrosomia, and congenital defects.
207 k ratios of the natural direct and indirect (preterm delivery-mediated) effects of abruption on morta
210 CKD stage shift; "general" combined outcome (preterm delivery, NICU, SGA); and "severe" combined outc
211 type of antiretroviral therapy were sought: preterm delivery occurred in 14.2% of the 211 deliveries
212 curred in 4%, neonatal death occurred in 1%, preterm delivery occurred in 9%, and SGA neonate occurre
214 ART was the most significant risk factor for preterm delivery [odds ratio = 2.03, 95% confidence inte
215 Mothers born preterm had a relative risk for preterm delivery of 1.54 (95% confidence interval (CI):
216 e of increasing indicated preterm births and preterm delivery of artificially conceived multiple preg
218 did not result in a lower incidence of early preterm delivery or a higher incidence of interventions
219 ated hypertension and diabetes, as well as a preterm delivery or a low birth weight delivery, to exce
220 association between maternal PHIV status and preterm delivery or infant BW outcomes is reassuring.
221 ngthened after excluding medically indicated preterm deliveries (OR = 4.9, 95% CI: 2.0, 11.8); and st
222 ntly decreased incidence odds ratio (OR) for preterm delivery (OR = 0.26; 95% confidence interval = 0
223 the lowest quartile had an increased risk of preterm delivery (OR: 1.72; 95% CI: 1.14, 2.60) and chil
224 ous abortion, low birth weight in an infant, preterm delivery, or congenital anomalies in an infant)
226 It is associated with an increased risk of preterm delivery, pelvic inflammatory disease, and an in
227 identified as an independent risk factor for preterm delivery, perinatal mortality, and other complic
228 ncy outcomes (infections, cesarean delivery, preterm delivery, poor fetal growth, preeclampsia, chori
230 aternal particulate matter (PM) exposure and preterm delivery (PTD) by folic acid (FA) supplementatio
233 plants and adverse birth outcomes including preterm delivery (PTD), very preterm delivery (VPTD), an
234 es treatment during pregnancy in relation to preterm delivery (PTD), we conducted a multicenter, memb
242 ies which factors explain the differences in preterm delivery rates and potentially the association o
245 n to pregnant women at imminent risk of very preterm delivery reduces the risk of cerebral palsy in e
247 of BV and to reduce serious sequelae such as preterm delivery, remains an acknowledged but unresolved
252 ), stillbirth (RR, 3.94; 95% CI, 2.60-5.96), preterm delivery (RR, 2.21; 95% CI, 1.47-3.31), and smal
253 ear dose-response relationships with risk of preterm delivery (S-shaped, p<0.0001) and low birthweigh
257 n of betamethasone to women at risk for late preterm delivery significantly reduced the rate of neona
258 rst born, maternal smoking during pregnancy, preterm delivery, small weight for gestational age, cesa
259 ed: maternal and fetal death; malformations; preterm delivery; small for gestational age (SGA) baby;
260 esarean section, preterm delivery, and early preterm delivery; small for gestational age (SGA); need
261 s between each preterm risk factor and prior preterm delivery status to explore whether risk factors
262 The main outcome measures investigated were preterm delivery, stillbirth, and neonatal unit admissio
263 utcome variable (i.e., term (referent) and 3 preterm delivery subtypes: spontaneous; premature ruptur
264 e sensitivity of this algorithm is lower for preterm deliveries, suggesting limited validity to asses
265 ministration of SP-A significantly inhibited preterm delivery, suppressed the expression of proinflam
266 result in a lower rate of spontaneous early preterm delivery than the rate with expectant management
267 black and Hispanic women had higher risk of preterm delivery than white women (RR = 1.32, 95% CI: 1.
268 ent (Camp(-/-)) mice are less susceptible to preterm delivery than wild type mice following intrauter
269 t for pregnant persons at increased risk for preterm delivery, the evidence is conflicting and insuff
270 infection is considered as a risk factor for preterm delivery, the localization of oral bacteria or t
271 h intake of AS beverages was associated with preterm delivery; the adjusted OR for those drinking >1
272 5% confidence interval (CI): 1.16, 1.27) and preterm delivery (Truven Health: aRR = 1.19 (95% CI: 1.0
273 different in women with versus without prior preterm delivery using medical records of the first and
274 comes including preterm delivery (PTD), very preterm delivery (VPTD), and term low birth weight (LBW)
275 In the LTx and RTx groups, the percentage of preterm deliveries was 48.8% (68.8% in the RTx and 43.2%
278 of increased mortality risk mediated through preterm delivery was 28.1%, with even higher proportions
279 e was 6%, large for gestational age was 14%, preterm delivery was 7%, substantial postpartum weight r
280 ease (95% confidence interval: 6.0, 11.3) in preterm delivery was associated with a 10 degrees F (5.6
286 variate analysis, risk for preterm and early-preterm delivery was linked to CKD stage (2-5 vs 1: rela
290 adverse birth outcomes: crude estimates for preterm delivery were 6.3% of vaccinated and 7.8% of unv
292 ted odds ratios (ORs [95% CIs]) of extremely preterm delivery were as follows: BMI 25 to less than 30
293 tions, whereas small for gestational age and preterm delivery were associated with higher blood press
294 sociations between each cytokine and SGA and preterm delivery were evaluated using log binomial regre
297 ypothesis that a woman is at greater risk of preterm delivery when she has had elevated exposure to a
298 ot recurrent (RR = 1.09, 95% CI: 0.71, 1.19) preterm delivery, whereas alcohol was associated with an