No abstract available.
Cardiology*

No abstract available.

No abstract available.
Aneurysm* ; Child* ; Diagnosis* ; Echocardiography* ; Humans

No abstract available.
Hematuria* ; Humans

Infrahepatic interruption of the inferior vena cava with azygos continuation is relatively infrequent cardiovascular developmental anomaly occurring both in association with congenital heart disease and as an isolated anomaly of no hemodynamic importance. During the past 5 years, we observed 38 cases of infrahepatic interruption of IVC with azygos continuation out of 2,397 cases of congenital heart disease catheterized at Yonsei Cardiovascular Center. We conducted the study with a view point of position of the heart and abdominal organs and segmental analysis of the underlying congenital heart disease. We also analysed the associated exracardiac vascular anomalies The following results wer obtained: 1) The incidence of this anomaly among congenital heart disease was 1.7% and the sex ratio 1.4:1. Twenty four cases(63.1%) was below 5 years of age and 30 cases (79.0%) had cyanosis. 2) We observed 21 cases (55.2%) with the malposition of the heart and 17 cases (44.8%) with malposition of the abdominal organs. The ventricular loops revealed D-loop in 25 cases, L-loop in 5 cases and in the remaining 7 cases, it was uncertain. Eighteen showed normally related great arteries and malposition was present in another 18 cases. 3) Associatcd cardiovascular anomalics wcre as follows: right-sidcd aortic arch: 12 cases, patentductus arteriosus: 10 cases, pulmonic stenosis: 19 cases and bilateral superior vena cava: 9 cases. In conclusion, the presence of this anomaly should alert one to seek the severeintracardiac anomalies which are usually associated with it. Also, it is essential that, if any patient with this anomaly should come to thoracotomy, the azygos vein be not sacrificed.
Aorta, Thoracic ; Arteries ; Azygos Vein ; Catheters ; Cyanosis ; Heart ; Heart Defects, Congenital* ; Hemodynamics ; Humans ; Incidence ; Pulmonary Valve Stenosis ; Sex Ratio ; Thoracotomy ; Vena Cava, Inferior ; Vena Cava, Superior

The pressure and resistance of the pulmonary artery are the most important factors when evaluating the congenital heart disease. They are easily measured by the cardiac catheterization, but this procedure is a invasive technique, and difficult to perform repeatedly. There were some reports to estimate the pulmory artery pressure by using non-invasive techniques, such as the echocardiography. The accuracy and the application of the estimate derived from this technique is still a matter of controversy. We estimate the right ventricular pressure by the real time two dimensional echocardiography. The way to measure accuracy for this technique is by of camparing the estimate the right ventricular pressure derived by the echocardiograpy against the right ventricular pressure measured by the cardiac catheterization. The diameter of the left ventricle in the plane of the papillary muscles in measured by short axis view from parasternal positions at the end-systolic phase. The diameter between the interventricular sulcus[B] and the longest vertical from to the interventricular septum[C] are measured. The relationship between the ration, C/B by the two-dimensional echocardiography and the RVP/LVP by the cardiac catheterization is relatively well correlated(r=-0.88). Thus we may conclude that measuring the right ventricular pressure by using the two-dimensional echocardiography is relatively accurate and should be used for evaluating the congenital heart disease.
Arteries ; Axis, Cervical Vertebra ; Cardiac Catheterization ; Cardiac Catheters ; Echocardiography* ; Heart Defects, Congenital* ; Heart Ventricles ; Papillary Muscles ; Pulmonary Artery ; Ventricular Pressure*

No abstract available.
Gallstones*

No abstract available.
Echocardiography* ; Heart Ventricles* ; Tendons*

No abstract available.

Double outlet right ventricle, a complex of congenital cardiac anomalies in which both great arteries arise wholly or in large part from the morphologic right ventricle presents diverse clinical manifestations according to the morphological characteristics. Eighty cases with DORV were diagnosed and operated at Yonsei Cardiovascular Center from 1988 to 1992. The analysis of the morphological characteristics of this anomaly and comparative study of operative methods and mortality according to the morphological classification led to the following results: 1) The location of VSD varied to be subaortic in 40 cases, subpulmonic in 15, doubly committed in 6 and noncommitted in 19 cases. The great arteries were interrelated in D-malposition in 43 cases and L-malposition in 18 and 26 cases among above mentioned 61 cases revealed the side-by-side relationship. Ten of the cases showed normal position and the rest 9, A-malposition. 2) Pulmonary stenosis was found in 60 cases, and when associated with subpulmonic VSD, occurring less frequently. PDA and ASD secundum were associated in successional order and only 3 cases were verified to carry aortic arch anomalies such as coarctation and interruption, all with subpulmonic VSD. 3) Intraventricular tunnel repair was possible in every case associated with subaortic VSD and the postoperative prognosis was excellent. In comparison, most of the cases associated with other types of VSD in which only palliative surgery or various types of intraventricular repair were performed, the general outcome was poor. But total cavopulmonary connection, one of the physiological corrective methods, showing a better postoperative prognosis is being carefully considered for its broad adoptation in future. In conclusion, double outlet right ventricle, a pathophysiological complex of various anomalies, should be thoroughly evaluated for the morphological characteristics to decide the most appropriate types of operation and for consequent improvement of prognosis.
Aorta, Thoracic ; Arteries ; Classification ; Double Outlet Right Ventricle* ; Heart Ventricles ; Mortality ; Palliative Care ; Prognosis ; Pulmonary Valve Stenosis