Circulation, Vol 52, 743-754, Copyright © 1975 by American Heart Association
R Roberts, PD Henry and BE Sobel
Infarct size has been estimated from serial serum creatine phosphokinase
(CPK) changes, but the contribution of noncardiac CPK may interfere.
Results would also be influenced if CPK disappearance varied with
hemodynamic changes. Since MB CPK is a marker more specific to myocardium.
infarct size was estimated from serum MB changes in 16 patients. In
addition, 21 chronically instrumented conscious dogs subjected to
tachycardia, decreased cardiac output or hepatic or renal ischemia were
studied to evaluate the dependence of CPK disappearance on hemodynamics. MB
CPK in human tissue extracts and serum was quantified with a new, rapid,
glass bead-batch adsorption technique, verified with CPK isoenzymes
prepared from human myocardium. Among tissues surveyed, only myocardium
contained appreciable MB CPK. Infarct size estimated from MB correlated
with total serum CPK in patients with uncomplicated myocardial infarction
(r=0.97, N=12). In patients with infarction given intramusclar injections,
total CPK curves were distorted but MB CPK curves were not apparently
affected. Hemodynamic alterations in conscious dogs did not markedly affect
the disappearance rate (kd) of intravenously injected, radioactively
labeled, canine myocardial CPK, although kd was shown to depend on
reticuloendothelial system activity. These findings suggest that estimation
of the extent of infarction based on serum MB CPK should be useful despite
hemodynamic deterioration associated with infarction or interference of
noncardiac CPK.
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