Circulation, Vol 69, 1111-1119, Copyright © 1984 by American Heart Association
DG Harrison, CW White, LF Hiratzka, DB Doty, DH Barnes, CL Eastham and ML Marcus
The results of previous work from this laboratory have shown a poor
correlation between percent stenosis (determined visually with calipers)
and the coronary reactive hyperemic response (an index of maximal coronary
vasodilator capacity) determined during cardiac surgery. This study was
performed to determine whether other parameters of lesion severity could
predict the reactive hyperemic response and thus the hemodynamic
significance of coronary stenoses in human beings. Twenty-three patients
with lesions in the proximal left anterior descending coronary artery were
studied. To account for differences in expected vessel size, patients with
large diagonal branches (greater than one-half the diameter of the left
anterior descending artery) arising before the lesion were excluded.
Computer-assisted quantitative coronary angiography was used to measure
percent diameter stenosis, percent area stenosis, and minimal stenosis
cross-sectional area. With a pulsed Doppler velocity probe, reactive
hyperemic responses were recorded after a 20 sec coronary occlusion of the
left anterior descending artery at cardiac surgery before cardiopulmonary
bypass and were quantified by the peak/resting velocity ratio (normal
greater than 3.5:1). Percent area stenosis ranged from 7% to 54% for
vessels with normal reactive hyperemic responses and from 27% to 94% for
vessels with abnormal reactive hyperemic responses. With both percent
diameter stenosis and percent area stenosis there was substantial overlap
between vessels with normal and abnormal reactive hyperemic responses. In
contrast, nine of nine vessels with normal reactive hyperemic responses had
lesion minimal cross-sectional areas of greater than 3.5 mm2 and 13 of 14
vessels with abnormal reactive hyperemic responses had minimal
cross-sectional areas of less than 3.5 mm2.(ABSTRACT TRUNCATED AT 250
WORDS)
ARTICLES
The value of lesion cross-sectional area determined by quantitative coronary angiography in assessing the physiologic significance of proximal left anterior descending coronary arterial stenoses
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