ライフサイエンスコーパス: pregnancy rate

1 a dairy bull with extreme subfertility (10% pregnancy rate).

2 , CSF2 blocked the negative effect of FBS on pregnancy rate.

3 of the different surgical approaches on the pregnancy rate.

4 The outcome studied was clinical pregnancy rate.

5 ng the two groups, we found no difference in pregnancy rate.

6 s with lymphoma and did not influence future pregnancy rate.

7 tions, which improved oocyte development and pregnancy rate.

8 ut a statistically significant difference in pregnancy rate.

9 ficant differences were observed in terms of pregnancy rates.

10 as associated with a reduction in multifetal pregnancy rates.

11 , rectal shaving, disc excision) in terms of pregnancy rates.

12 -acting reversible contraceptives (LARCs) on pregnancy rates.

13 ection, and used survival analysis to assess pregnancy rates.

14 appendicitis were associated with increased pregnancy rates.

15 ificantly enhance semen quality and increase pregnancy rates.

16 g, and is thus unlikely to reduce unintended pregnancy rates.

17 limited extent and at the expense of overall pregnancy rates.

18 wer two-pronuclear zygotes and had a reduced pregnancy rate (19.2% pregnant with >15% SPTRX3-positive

19 There were no differences in biochemical pregnancy rates 52 (3.57%) versus 38 (2.50%) (p = 0.089)

20 95% CI, 0.83 to 1.14]; P = .48) and clinical pregnancy rate (68.8% vs 72.8%, respectively; difference

21 ed secondary outcomes, including biochemical pregnancy rate (77.2% vs 79.5%, respectively; difference

22 As with overall pregnancy rates, abortion rates among these sexually exp

23 ociated with graded reductions in unintended pregnancy rates across the 12-month trial (usual care: 2

24 Pregnancy rates across the Northern Hemisphere were best

25 The pregnancy rate after embolization was 23.52%.

26 ryos becoming blastocysts in culture and the pregnancy rate after embryo transfer are affected by typ

27 ferred frozen embryo transfer might increase pregnancy rate after eSET.

28 st spontaneous pregnancy and showed a higher pregnancy rate after laparoscopic IPAA (log-rank, P = 0.

29 ngly advocated, but concerns about the lower pregnancy rate after reducing the number of embryos tran

30 Purpose To determine pregnancy rates after conventional and partial uterine f

31 Although pregnancy rates among all teenaged girls 15 to 19 years

32 Pregnancy rates among infertile women have been reported

33 of sexual experience increased even faster, pregnancy rates among sexually experienced teens aged 15

34 ehavioural, and clinical factors, to compare pregnancy rates among women receiving different contrace

35 1alpha-KO mice showed a substantially higher pregnancy rate and litter size compared with WT mice at

36 ificant decreases in embryonic implantation, pregnancy rate and litter size were observed in matings

37 birth rate; secondary outcomes were clinical pregnancy rate and miscarriage rate.

38 arious strategies to decrease the adolescent pregnancy rate and the effectiveness of these strategies

39 ception and infertility treatment to improve pregnancy rates and birth outcomes, although confirmator

40 Previous studies have shown decreased pregnancy rates and early menopause in female cancer sur

41 We calculated pregnancy rates and identified factors associated with p

42 Ablation of NLRP3 improved the survival and pregnancy rates and increased anti-Mullerian hormone lev

43 ly = 11 mm in diameter resulted in decreased pregnancy rates and increased late embryonic mortality.

44 ologically immature has a negative impact on pregnancy rates and late embryonic/fetal survival.

45 nces, transfer methods, embryo formation and pregnancy rates and maintenance following SCNT.

46 ecoming increasingly important for improving pregnancy rates and reducing the risks associated with m

47 focuses on the recent decline in adolescent pregnancy rates and the recent slight decline in the num

48 Primary end points were pregnancy rate, and disease-free survival (DFS) between

49 d longer, irregular estrus cycles, decreased pregnancy rates, and reduced litter sizes.

50 Pregnancy rates appear to be less than reported in men w

51 Pregnancy rates are increasing in women with disabilitie

52 Pregnancy rates are significantly higher after laparosco

53 Higher pregnancy rates associated with transfer of DKK1-treated

54 ad at least 1 pregnancy after breast cancer (pregnancy rate at 10 years, 19%; 95% CI, 17% to 22%).

55 Pregnancy rate at day 30 was determined for 1426 Nelore

56 ects on development to the blastocyst stage, pregnancy rate at day 30, calving rate and pregnancy los

57 Spontaneous pregnancy rates at 1 year and 2 years after UFE were 29.

58 was no statistical significance in clinical pregnancy rate between the two groups (38.63% vs 32.46%,

59 This study compared the pregnancy rates between the two groups.

60 included live birth rate (LBR), biochemical pregnancy rate (BPR), miscarriage, pregnancy of unknown

61 The pregnancy rate can be reduced by provision of counsellin

62 nd the rate of resulting twin births so that pregnancy rates can be improved and multiple gestations

63 y in women with breast cancer and results in pregnancy rates comparable to those expected in a noncan

64 for endometriosis is associated with a lower pregnancy rate compared with other type of surgery, such

65 rectal resection was associated with a lower pregnancy rate compared with the other techniques (N = 2

66 learning models for predicting the clinical pregnancy rate (CPR) of infertility treatment.

67 The primary outcome was clinical pregnancy rate (CPR), secondary outcomes included live b

68 tes, first-trimester pregnancy loss, ectopic pregnancy rate, cumulative number of pregnancies, time t

69 of 2006 to 2011 and 2016 to 2021, multifetal pregnancy rates decreased from 12.9% to 9.1% with OI/IUI

70 sh, embryo quality, and subsequent recipient pregnancy rates did not differ by fertility classificati

71 randomized clinical trial found that ongoing pregnancy rates did not improve with the antioxidant sup

72 We aimed to establish whether pregnancy rates differ between HIV-positive women who us

73 re (SCS); productive life (PL); and daughter pregnancy rate (DPR) for the Holstein breed.

74 ; n = 288) or low (</= -2; n = 262) daughter pregnancy rate (DPR) was genotyped for 434 candidate SNP

75 sed on documented decreases in fertility and pregnancy rates during previous major societal and econo

76 of childbearing age who used valproic acid, pregnancy rates during valproic acid use did not decreas

77 after IVF or ICSI, biochemical and clinical pregnancy rates, first-trimester pregnancy loss, ectopic

78 Pregnancy rates following SRI and IUI were 13.2% and 10.

79 CSF2 and DKK1 reduced pregnancy rate for embryos cultured without serum but ha

80 for all patients with UC showed an increased pregnancy rate for the laparoscopic group (log-rank, P =

81 A statistically significant difference in pregnancy rates for SRI versus IUI was detected in women

82 were observed for pup weight, prenatal loss, pregnancy rate, gestation length, puberty onset in males

83 n 1990-94 and 2015-19, the global unintended pregnancy rate has declined, whereas the proportion of u

84 Improved pregnancy rates have been documented after folic acid su

85 exogenous progesterone, is used to optimize pregnancy rates; however, luteal phase support remains l

86 meta-analysis has reported a 6% spontaneous pregnancy rate in amongst NOA patients who underwent var

87 , ghrelin and leptin concentrations, and the pregnancy rate in overweight and obese infertile women w

88 transplantation, and the baseline unplanned pregnancy rate in the United States is approximately 50%

89 The primary endpoint was pregnancy rate in women who received emergency contracep

90 ated tyrosine kinase 3 ligand, led to normal pregnancy rates in a spontaneous abortion-prone model.

91 Pregnancy rates in beta-thalassemia are increasing but t

92 ocols (LPS) over placebo in view of improved pregnancy rates in fresh cycles of IVF (in vitro fertili

93 lopmental competence of embryos and clinical pregnancy rates in humans.

94 nd have important implications for improving pregnancy rates in infertile couples by assisted reprodu

95 scents in the United States have the highest pregnancy rates in the Western world.

96 e found a significant intervention effect on pregnancy rates in women attending family planning visit

97 a-uterine slow-release insemination (SRI) on pregnancy rates in women with confirmed infertility or t

98 ision are associated with increased clinical pregnancy rates in women with endometriosis.

99 In addition, high pregnancy rates indicate a heightened risk for sexually

100 The pregnancy rate is higher in women on dialysis than previ

101 s study was carried out to determine whether pregnancy rate is reduced after appendicitis or appendic

102 hese results support the hypothesis that the pregnancy rate might be improved with SRI compared to st

103 e via oocyte donation and experience similar pregnancy rates, multiple gestation rates, and spontaneo

104 The decline in adolescent pregnancy rates noted in the 1990s has been attributed t

105 ere were 55 clinical pregnancies for a total pregnancy rate of 45.5%.

106 The iDAScore group exhibited a clinical pregnancy rate of 46.5% (248 of 533 patients), compared

107 d stable for 24 months after surgery, with a pregnancy rate of 51%.

108 The average pregnancy rate of all 239 couples was 25.1%.

109 The pregnancy rate of mice is >50% lower in pre-implantation

110 and early pregnancy, midpregnancy, and late pregnancy rates of GWG (0-17, 17-27, and 27 wk to delive

111 Early pregnancy, midpregnancy, and late pregnancy rates of GWG were independently associated wit

112 Pregnancy rates of those ovulated (n = 26) were not diff

113 Pregnancy rates of women using oral contraceptives are 4

114 y rate (PR), implantation rate (IR), ongoing pregnancy rate (OPR), and live birth rate (LBR).

115 % CI = 1.00-1.36, I(2) = 48.3%) and multiple pregnancy rates (OR = 1.50, 95% CI = 1.11-2.01, I(2) = 4

116 atching (AH) techniques may improve clinical pregnancy rates, particularly in poor prognosis patients

117 The pregnancy rate per cycle was also higher after IVF (72 [

118 Clinical outcomes compared were pregnancy rate (PR), implantation rate (IR), ongoing pre

119 en in the water group (29.1%) had an ongoing pregnancy (rate ratio, 1.37; 95% confidence interval [CI

120 The pregnancy rate ratio (before and after adjustment for ma

121 te 1980s, the abortion rate declined and the pregnancy rate remained stable, resulting in a 26% incre

122 ns were associated with an increase in total pregnancy rates (risk ratio [RR], 1.21 [95% CI, 1.02 to

123 Annual pregnancy rates showed considerable variability, with no

124 sease rates continued to fall, while ectopic pregnancy rates significantly increased.

125 ung women with early appendicitis had better pregnancy rates than those with advanced appendicitis.

126 whales were used to investigate variation in pregnancy rates through the quantification of progestero

127 y rate) and 0.01, respectively, reducing the pregnancy rate up to 15%, thus, supporting the biologica

128 The overall pregnancy rate was 17.6 (95% CI 16.5-18.7) per 100 women

129 Pregnancy rate was 17.8 per thousand person years (PTPY)

130 The cumulative ongoing pregnancy rate was 60.7% after salpingotomy and 56.2% af

131 ul over the 15 years, and the average annual pregnancy rate was higher than the average annual calvin

132 The pregnancy rate was lower in intervention group than in t

133 a spermatogenesis cycle of 72 days), ongoing pregnancy rate was significantly lower in the antioxidan

134 r of oocytes retrieved in the IVF cycle, and pregnancy rate were determined.

135 ntention-to-treat and per-protocol analyses, pregnancy rates were 1 in 317 (0.3%; 95% confidence inte

136 The adjusted hazard ratios (HRs) for pregnancy rates were 1.20 (95% confidence interval [CI]:

137 Multifetal pregnancy rates were 1.4% (95% CI, 1.4%-1.4%) for unassi

138 the comparator cohort), the adjusted HRs for pregnancy rates were 1.65 (95% CI: 1.55-1.75).

139 Biochemical and clinical pregnancy rates were 40% (21/53) and 23% (12/53), respec

140 Clinical pregnancy rates were 66.7% vs 54.2%, respectively (absol

141 Differences in cumulative ongoing pregnancy rates were expressed as a fecundity rate ratio

142 Pregnancy rates were greater in high fertility than lowe

143 Lifetime pregnancy rates were higher for transgender boys (5 [9%]

144 e proportion for 1990-94, and the unintended pregnancy rates were higher than in countries where abor

145 However, trends in accidental pregnancy rates were inconsistent across countries and w

146 In the absence of CSF2 or DKK1, pregnancy rates were lower for embryos cultured with SR

147 Compared with epilepsy, pregnancy rates were more than double for mood disorder

148 ts of clinical pregnancy as well as multiple pregnancy rates were observed among women who received i

149 Pregnancy rates were similar for AFAB nonbinary youth (5

150 noninferiority of deep learning for clinical pregnancy rate when compared to standard morphology and

151 ded embryo transfers (4D UGET) could improve pregnancy rates when compared with clinical touch techni

152 ion of valproic acid use and had the highest pregnancy rates, while patients with epilepsy had the lo

153 s achieved with ICSI allowing a 50% clinical pregnancy rate with a live birth rate of 42% overall.

154 The primary endpoint was a clinical pregnancy rate with a noninferiority margin of 5%.

155 In this subgroup, the pregnancy rate with SRI was 17% compared to 7% with IUI

156 th in 32.2%, 23.3%, and 18.7%, respectively; pregnancy rates with letrozole were significantly lower

157 Ongoing pregnancy rate within 6 months was not significantly dif