Gaea Schwaebe Moore
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Previous Organizations / Institutes
The organizations / institutes from the scholar's other articles in the past ten years
Research Subjects
Gaea Schwaebe Moore has a total of 24 co-authors. Here are the top co-authors by number of shared publications:
Amanda A. Allshouse
Department of Biostatics and Informatics, Colorado School of Public Health, Aurora, Colorado USA
2 shared publicationsHenry L. Galan
Department of Obstetrics and Gynecology, Division of Maternal-Fetal Medicine, University of Colorado School of Medicine, Aurora, Colorado USA
2 shared publicationsA A Allshouse
Colorado School of Public Health, Aurora, CO, USA
1 shared publicationA L Post
University of Colorado Department of Obstetrics and Gynecology, Aurora, CO, USA
1 shared publicationAnnalisa L. Post
Departments of Obstetrics and Gynecology (G.S.M., A.L.P., J.E.H., A.M.L.) and Epidemiology (N.A.W.), University of Colorado, Aurora, Colorado USA
1 shared publicationAnne M. Lynch
Departments of Obstetrics and Gynecology (G.S.M., A.L.P., J.E.H., A.M.L.) and Epidemiology (N.A.W.), University of Colorado, Aurora, Colorado USA
1 shared publication
Latest Publications
- 14 July 2016
- Published by Wiley in Journal of Ultrasound in Medicine
- Vol. 35 (9) , 1915-1924
Can Fetal Limb Soft Tissue Measurements in the Third Trimester Predict Neonatal Adiposity?
Objectives: Neonatal adiposity is associated with chronic metabolic sequelae such as diabetes and obesity. Identifying fetuses at risk for excess neonatal body fat may lead to research aimed at limiting nutritional excess in the prenatal period. We sought to determine whether fetal arm and leg soft tissue measurements at 28 weeks' gestation were predictive of neonatal percent body fatMethods: In this prospective observational cohort study of singleton term pregnancies, we performed sonography at 28 and 36 weeks' gestation, including soft tissue measurements of the fetal arm and thigh (fractional limb volume and cross‐sectional area). We estimated the neonatal body composition (percent body fat) using anthropometric measurements and air displacement plethysmography. We estimated Spearman correlations between sonographic findings and percent body fat and performed modeling to predict neonatal percent body fat using maternal characteristics and sonographic findings.Results: Our analysis of 44 women yielded a mean maternal age of 30 years, body mass index of 26 kg/m2, and birth weight of 3382 g. Mean neonatal percent body fat was 8.1% by skin folds at birth and 12.2% by air displacement plethysmography 2 weeks after birth. Fractional thigh volume measurements at 28 weeks yielded the most accurate model for predicting neonatal percent body fat (R2 = 0.697; P = .001), outperforming models that used abdominal circumference (R2= 0.516) and estimated fetal weight (R2= 0.489).Conclusions: Soft tissue measurements of the fetal thigh at 28 weeks correlated better with neonatal percent body fat than currently used sonographic measurements. After validation in a larger cohort, our models may be useful for prenatal intervention strategies aimed at the prevention of excess fetal fat accretion and, potentially, optimization of long‐term metabolic health.
- 14 July 2016
- Published by Wiley in Journal of Ultrasound in Medicine
- Vol. 35 (9) , 1915-1924
Can Fetal Limb Soft Tissue Measurements in the Third Trimester Predict Neonatal Adiposity?
Objectives: Neonatal adiposity is associated with chronic metabolic sequelae such as diabetes and obesity. Identifying fetuses at risk for excess neonatal body fat may lead to research aimed at limiting nutritional excess in the prenatal period. We sought to determine whether fetal arm and leg soft tissue measurements at 28 weeks' gestation were predictive of neonatal percent body fatMethods: In this prospective observational cohort study of singleton term pregnancies, we performed sonography at 28 and 36 weeks' gestation, including soft tissue measurements of the fetal arm and thigh (fractional limb volume and cross‐sectional area). We estimated the neonatal body composition (percent body fat) using anthropometric measurements and air displacement plethysmography. We estimated Spearman correlations between sonographic findings and percent body fat and performed modeling to predict neonatal percent body fat using maternal characteristics and sonographic findings.Results: Our analysis of 44 women yielded a mean maternal age of 30 years, body mass index of 26 kg/m2, and birth weight of 3382 g. Mean neonatal percent body fat was 8.1% by skin folds at birth and 12.2% by air displacement plethysmography 2 weeks after birth. Fractional thigh volume measurements at 28 weeks yielded the most accurate model for predicting neonatal percent body fat (R2 = 0.697; P = .001), outperforming models that used abdominal circumference (R2= 0.516) and estimated fetal weight (R2= 0.489).Conclusions: Soft tissue measurements of the fetal thigh at 28 weeks correlated better with neonatal percent body fat than currently used sonographic measurements. After validation in a larger cohort, our models may be useful for prenatal intervention strategies aimed at the prevention of excess fetal fat accretion and, potentially, optimization of long‐term metabolic health.
- 23 June 2015
- Published by Elsevier in Pregnancy Hypertension
- Vol. 5 (4) , 280-286
Baseline placental growth factor levels for the prediction of benefit from early aspirin prophylaxis for preeclampsia prevention
- 23 June 2015
- Published by Elsevier in Pregnancy Hypertension
- Vol. 5 (4) , 280-286
Baseline placental growth factor levels for the prediction of benefit from early aspirin prophylaxis for preeclampsia prevention
- 1 June 2015
- Published by Wiley in Journal of Ultrasound in Medicine
- Vol. 34 (6) , 971-975
Fetal Weight Estimation in Diabetic Pregnancies Using the Gestation‐Adjusted Projection Method
Objectives: The gestation‐adjusted projection method extrapolates birth weight using third‐trimester sonography. This technique is shown to be more accurate for sonographic examinations from 34 weeks to 36 weeks 6 days than 37 weeks to 38 weeks 6 days. Our objective was to determine whether even earlier sonographic examinations (31 weeks–33 weeks 6 days) further improves birth weight prediction in patients with diabetes.Methods: We conducted a retrospective cohort analysis of 388 pregnant women with pregestational or gestational diabetes who delivered at 37 weeks or later and had a sonographic examination performed between 31 weeks and 36 weeks 6 days. Sonographic examinations were categorized as “early” if performed at 31 weeks to 33 weeks 6 days or “late” if performed at 34 weeks to 36 weeks 6 days. We estimated birth weight using the gestation‐adjusted projection method, compared errors in prediction of birth weight using the t test and Mann‐Whitney U test, and performed a 2‐sample test of proportions to compare prediction of macrosomia (birth weight >4000 g).Results: The early and late groups had similar mean gestational ages at birth (38 weeks 4 days versus 38 weeks 5 days; P = .13) and rates of macrosomia (10.7% versus 12.4%; P = .63). The early group had a greater mean absolute error (336 versus 297 g; P = .03) and percent error (9.9% versus 7.9%; P = .01) in birth weight prediction but a lower mean birth weight (3303 versus 3426 g; P = .02). Sensitivity for prediction of macrosomia was 19% in the early group versus 45% in the late group (P = .07), whereas specificity was similar (98% versus 96%; P = .27).Conclusions: Using the gestation‐adjusted projection method in our patients with diabetes, we found that sonographic examinations performed at 34 weeks to 36 weeks 6 days better predicted birth weight than those performed at 31 weeks to 33 weeks 6 days.
- 1 June 2015
- Published by Wiley in Journal of Ultrasound in Medicine
- Vol. 34 (6) , 971-975
Fetal Weight Estimation in Diabetic Pregnancies Using the Gestation‐Adjusted Projection Method
Objectives: The gestation‐adjusted projection method extrapolates birth weight using third‐trimester sonography. This technique is shown to be more accurate for sonographic examinations from 34 weeks to 36 weeks 6 days than 37 weeks to 38 weeks 6 days. Our objective was to determine whether even earlier sonographic examinations (31 weeks–33 weeks 6 days) further improves birth weight prediction in patients with diabetes.Methods: We conducted a retrospective cohort analysis of 388 pregnant women with pregestational or gestational diabetes who delivered at 37 weeks or later and had a sonographic examination performed between 31 weeks and 36 weeks 6 days. Sonographic examinations were categorized as “early” if performed at 31 weeks to 33 weeks 6 days or “late” if performed at 34 weeks to 36 weeks 6 days. We estimated birth weight using the gestation‐adjusted projection method, compared errors in prediction of birth weight using the t test and Mann‐Whitney U test, and performed a 2‐sample test of proportions to compare prediction of macrosomia (birth weight >4000 g).Results: The early and late groups had similar mean gestational ages at birth (38 weeks 4 days versus 38 weeks 5 days; P = .13) and rates of macrosomia (10.7% versus 12.4%; P = .63). The early group had a greater mean absolute error (336 versus 297 g; P = .03) and percent error (9.9% versus 7.9%; P = .01) in birth weight prediction but a lower mean birth weight (3303 versus 3426 g; P = .02). Sensitivity for prediction of macrosomia was 19% in the early group versus 45% in the late group (P = .07), whereas specificity was similar (98% versus 96%; P = .27).Conclusions: Using the gestation‐adjusted projection method in our patients with diabetes, we found that sonographic examinations performed at 34 weeks to 36 weeks 6 days better predicted birth weight than those performed at 31 weeks to 33 weeks 6 days.
- 4 December 2014
- Published by Springer Nature in Journal of Perinatology
- Vol. 35 (5) , 328-331
Early initiation of low-dose aspirin for reduction in preeclampsia risk in high-risk women: a secondary analysis of the MFMU High-Risk Aspirin Study
Objective: Early initiation of low-dose aspirin (LDA) may reduce preeclampsia risk. We sought to determine whether LDA was beneficial when initiated −1) or placebo with chronic hypertension (CHTN, n=186), diabetes (n=191) or prior preeclampsia (n=146). The primary outcome was preeclampsia at any time in pregnancy, secondary outcomes were early preeclampsia (Χ2-tests. Results: Baseline characteristics were similar between treatment groups. Aspirin was associated with a lower rate of late-onset preeclampsia ⩾34w (17.36% vs 24.42%, P=0.047), with a 41% reduction in women with CHTN (18.28% vs 31.18%, P=0.041). There were no other significant differences in the outcome. Conclusion: Aspirin initiated <17w0d reduced the risk for late-onset preeclampsia by 29% supporting the practice of early initiation of aspirin in high-risk women.
- 4 December 2014
- Published by Springer Nature in Journal of Perinatology
- Vol. 35 (5) , 328-331
Early initiation of low-dose aspirin for reduction in preeclampsia risk in high-risk women: a secondary analysis of the MFMU High-Risk Aspirin Study
Objective: Early initiation of low-dose aspirin (LDA) may reduce preeclampsia risk. We sought to determine whether LDA was beneficial when initiated −1) or placebo with chronic hypertension (CHTN, n=186), diabetes (n=191) or prior preeclampsia (n=146). The primary outcome was preeclampsia at any time in pregnancy, secondary outcomes were early preeclampsia (Χ2-tests. Results: Baseline characteristics were similar between treatment groups. Aspirin was associated with a lower rate of late-onset preeclampsia ⩾34w (17.36% vs 24.42%, P=0.047), with a 41% reduction in women with CHTN (18.28% vs 31.18%, P=0.041). There were no other significant differences in the outcome. Conclusion: Aspirin initiated <17w0d reduced the risk for late-onset preeclampsia by 29% supporting the practice of early initiation of aspirin in high-risk women.
- Open Access
- 19 August 2009
- Published by Springer Nature in European Journal of Applied Physiology
- Vol. 107 (5) , 545-552
Ventilation-perfusion inequality in the human lung is not increased following no-decompression-stop hyperbaric exposure
Venous gas bubbles occur in recreational SCUBA divers in the absence of decompression sickness, forming venous gas emboli (VGE) which are trapped within pulmonary circulation and cleared by the lung without overt pathology. We hypothesized that asymptomatic VGE would transiently increase ventilation-perfusion mismatch due to their occlusive effects within the pulmonary circulation. Two sets of healthy volunteers ( n = 11, n = 12) were recruited to test this hypothesis with a single recreational ocean dive or a baro-equivalent dry hyperbaric dive. Pulmonary studies (intrabreath V _A/ Q (iV/ Q ), alveolar dead space, and FVC) were conducted at baseline and repeat 1- and 24-h after the exposure. Contrary to our hypothesis V _A/ Q mismatch was decreased 1-h post-SCUBA dive (iV/ Q slope 0.023 ± 0.008 ml^−1 at baseline vs. 0.010 ± 0.005 NS), and was significantly reduced 24-h post-SCUBA dive (0.000 ± 0.005, p < 0.05), with improved V _A/ Q homogeneity inversely correlated to dive severity. No changes in V _A/ Q mismatch were observed after the chamber dive. Alveolar dead space decreased 24-h post-SCUBA dive (78 ± 10 ml at baseline vs. 56 ± 5, p < 0.05), but not 1-h post dive. FVC rose 1-h post-SCUBA dive (5.01 ± 0.18 l vs. 5.21 ± 0.26, p < 0.05), remained elevated 24-h post SCUBA dive (5.06 ± 0.2, p < 0.05), but was decreased 1-hr after the chamber dive (4.96 ± 0.31 L to 4.87 ± 0.32, p < 0.05). The degree of V _A/ Q mismatch in the lung was decreased following recreational ocean dives, and was unchanged following an equivalent air chamber dive, arguing against an impact of VGE on the pulmonary circulation.
- 19 August 2009
- Published by Springer Nature in European Journal of Applied Physiology
- Vol. 107 (5) , 545-552
Open AccessVentilation-perfusion inequality in the human lung is not increased following no-decompression-stop hyperbaric exposure
Venous gas bubbles occur in recreational SCUBA divers in the absence of decompression sickness, forming venous gas emboli (VGE) which are trapped within pulmonary circulation and cleared by the lung without overt pathology. We hypothesized that asymptomatic VGE would transiently increase ventilation-perfusion mismatch due to their occlusive effects within the pulmonary circulation. Two sets of healthy volunteers ( n = 11, n = 12) were recruited to test this hypothesis with a single recreational ocean dive or a baro-equivalent dry hyperbaric dive. Pulmonary studies (intrabreath V _A/ Q (iV/ Q ), alveolar dead space, and FVC) were conducted at baseline and repeat 1- and 24-h after the exposure. Contrary to our hypothesis V _A/ Q mismatch was decreased 1-h post-SCUBA dive (iV/ Q slope 0.023 ± 0.008 ml^−1 at baseline vs. 0.010 ± 0.005 NS), and was significantly reduced 24-h post-SCUBA dive (0.000 ± 0.005, p < 0.05), with improved V _A/ Q homogeneity inversely correlated to dive severity. No changes in V _A/ Q mismatch were observed after the chamber dive. Alveolar dead space decreased 24-h post-SCUBA dive (78 ± 10 ml at baseline vs. 56 ± 5, p < 0.05), but not 1-h post dive. FVC rose 1-h post-SCUBA dive (5.01 ± 0.18 l vs. 5.21 ± 0.26, p < 0.05), remained elevated 24-h post SCUBA dive (5.06 ± 0.2, p < 0.05), but was decreased 1-hr after the chamber dive (4.96 ± 0.31 L to 4.87 ± 0.32, p < 0.05). The degree of V _A/ Q mismatch in the lung was decreased following recreational ocean dives, and was unchanged following an equivalent air chamber dive, arguing against an impact of VGE on the pulmonary circulation.