The end-diastolic and end-systolic thickness of the left ventricle posterior wall (LVPWd and LVPWs) was measured from images that were collected from a right long-axis four-chamber view.
The end-diastolic and end-systolic thickness of the interventricular septum (IVSd and IVSs) and left ventricle posterior wall (LWPd and LVPVs) was measured from images that were collected from a right long-axis four-chamber view (after moving the probe to caudal and rotated 90°).
The parameters investigated were the end plate thickness and steel grade.
Additionally, an end plate thickness exceeding a threshold value has no added effect on the stack cold-start ability.
The results show that an increase in end plate thickness results in an increase in the connection flexural strength and stiffness and a decrease in rotation capacity.
When H→∞ and S→∞, vapor-flow heat transfer dominates and a thermal boundary layer appears at the hot end, the thickness of which scales as S−1L, where L is the half-length of the pipe.
The experimental and analytical results indicated that when the end plate thickness is not less than 3 mm, the flush or extended end plate joints to CFTST columns exhibited large hysteretic loops and excellent seismic performance, such as ductility and energy dissipation capacity.
Most reports consider an end diastolic thickness at any location of the left ventricular wall of > 6 mm [ 5, 17- 19] or ≥ 6 mm [ 1, 5, 20] diagnostic of HCM, but reference value of > 5,5 mm [ 21] and separate values for the interventricular septum of >6 mm and of the free wall of > 5,5 mm [ 22] is also used.
Left ventricular (LV) diameters, interventricular septal (end-diastolic) thickness and posterior wall (end-diastolic) thickness were measured from M-mode images obtained from the parasternal long-axis view, and LV ejection fraction was derived using the Teichholz formula[ 11].
