ライフサイエンスコーパス: pulmonary trunk

1 anterior second heart field to populate the pulmonary trunk.

2 scular smooth muscle tunics of the aorta and pulmonary trunk.

3 at forms the proximal walls of the aorta and pulmonary trunk.

4 equently the base of the ascending aorta and pulmonary trunk.

5 examination, mean density was 325 HU in the pulmonary trunk, 260 HU in the left atrium, and 252 HU i

6 Pulmonary trunk abnormalities may predispose to dilatati

7 The myocardium at the base of the pulmonary trunk and aorta and the arterial tree associat

8 s arteriosus but is absent or minimal in the pulmonary trunk and aortic arch; by 17.5 dpc, the smooth

9 diopulmonary bypass was established, and the pulmonary trunk and its main branches as far as the firs

10 cardiopulmonary bypass was established, the pulmonary trunk and its main branches were vascularly is

11 , with attention paid to the diameter of the pulmonary trunk and the correlation of D-dimer level wit

12 ectional deployment to form specifically the pulmonary trunk and the dorsal mesenchymal protrusion (D

13 ted tomography (CT) with the diameter of the pulmonary trunk and to study the relation between the D-

14 mis-alignment or reduction of the aorta and pulmonary trunk, and abnormalities in the arterial tree,

15 rch 2003 and February 2020 the region of the pulmonary trunk as well as an optimal slice ("reference

16 apulmonary hemorrhage, rupture of either the pulmonary trunk, ascending aorta or a bronchial artery,

17 clonal sublineage includes myocardium of the pulmonary trunk at the arterial pole of the heart.

18 Negative pulmonary trunk controls were from 7 coronary artery dis

19 and the smooth muscle tunic of the aorta and pulmonary trunk derives from neural crest.

20 proliferation, which is required for normal pulmonary trunk formation, and that embryos with pulmona

21 racoarctation aorta, truncus arteriosus, and pulmonary trunk in 86 patients were supplemented by 16 n

22 We automate the task of localizing the pulmonary trunk in CT scout views by deep learning metho

23 Automated localization of the region of the pulmonary trunk in CT scout views is possible with high

24 o train a U-Net predicting the region of the pulmonary trunk in the CT scout view.

25 y indicate a difference in derivation of the pulmonary trunk in the mouse or a difference in distribu

26 nitors specific to the atrial septum and the pulmonary trunk in the mouse.

27 to the functionally separate aortic arch and pulmonary trunk is dependent upon the dynamic, coordinat

28 ounsfield units (HU) was performed using the pulmonary trunk (n=70) or descending aorta (n=73) after

29 % of localizing a slice in the region of the pulmonary trunk on the validation cohort.

30 c findings vary from mild enlargement of the pulmonary trunk or the central pulmonary arteries at ear

31 As standard bolus triggering in the pulmonary trunk sometimes fails to achieve sufficient en

32 eaving a region at the base of the aorta and pulmonary trunk that is invested by vascular smooth musc

33 led into the base of the ascending aorta and pulmonary trunk, the distal truncus that was patterned i

34 riggering can improve the enhancement of the pulmonary trunk to investigate a pulmonary embolism.

35 standard") for bolus tracking, in which the pulmonary trunk was clearly visible, was annotated and u

36 as invested by lacZ-positive cells while the pulmonary trunk was devoid of lacZ staining.

37 The pulmonary trunk was labeled during systole, and the imag

38 racoarctation aorta, truncus arteriosus, and pulmonary trunk were prevalent in patients with a variet

39 es a position in the CT scout view where the pulmonary trunk will be visible in an axial CT pre-scan.

40 ificantly higher contrast enhancement in the pulmonary trunk with a mean increase of 63 HU (p<0.001).

41 twork was able to localize the region of the pulmonary trunk with high accuracy, yielding an accuracy