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Archives of Disease in Childhood. Fetal and Neonatal Edition logoLink to Archives of Disease in Childhood. Fetal and Neonatal Edition
. 1997 Sep;77(2):F131–F134. doi: 10.1136/fn.77.2.f131

Ultrasonographic study of ductus venosus in healthy neonates

D Fugelseth, R Lindemann, K Liestol, T Kiserud, A Langslet
PMCID: PMC1720700  PMID: 9377136

Abstract

AIM—To assess ultrasonographically the flow pattern and the time of postnatal closure of ductus venosus related to the other fetal shunts.
METHODS—Fifty healthy, term neonates were studied from day 1 up to day 18 using a VingMed CFM 800A ultrasound scanner.
RESULTS—Ductus arteriosus was closed in 94% of the infants before day 3. Ductus venosus, however, was closed in only 12% at the same time, in 76% before day 7, and in all infants before day 18. A closed ductus venosus or ductus arteriosus did not show signs of reopening. Pulsed and colour Doppler flow could be detected across the foramen ovale in all infants during the sequential investigation. At day 1, when the pulmonary vascular resistance was still high, a reversed Doppler flow velocity signal was seen in ductus venosus in 10 infants (20%) and a bidirectional flow in ductus arteriosus in 26 (52%). Closure of the ductus venosus was not significantly correlated with closure of the ductus arteriosus nor related to sex nor weight loss.
CONCLUSIONS—The time of closure of the ductus venosus evaluated by ultrasonography is much later than that of the ductus arteriosus. The flow pattern in ductus venosus reflects the portocaval pressure gradient and the pressure on the right side of the heart and in the pulmonary arteries. Both the flow pattern in the ductus venosus as well as that in the ductus arteriosus may be an indication of compromised neonatal haemodynamics.

 Keywords: ductus venosus; ductus arteriosus; foramen ovale; Doppler echocardiography

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Figure 1  .

Figure 1  

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Distribution of closing times for ductus venosus. The height of each bar gives the percentage closure per day during the corresponding time interval. The curve represents the log logistic distribution fitted to the observations.

Figure 2  .

Figure 2  

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Doppler signals in ductus venosus from the portal sinus to the inferior caval vein at the inlet of the right atrium.

Figure 3  .

Figure 3  

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Cephalic biphasic waveform signals in the ductus venosus. The low velocity pattern shows a peak during ventricular systole and diastole, and a nadir during atrial systole.

Figure 4  .

Figure 4  

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During the first day of life, a short reversed velocity flow signal during atrial systole in ductus venosus was observed in 10 infants.

Selected References

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