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Diabetes, Vol 43, Issue 4 587-592, Copyright © 1994 by American Diabetes Association
The contribution of insulin-dependent and insulin-independent glucose uptake to intravenous glucose tolerance in healthy human subjects
SE Kahn, RL Prigeon, DK McCulloch, EJ Boyko, RN Bergman, MW Schwartz, JL Neifing, WK Ward, JC Beard, JP Palmer and al. et
Department of Medicine, University of Washington, Seattle.
Glucose disposal occurs by both insulin-independent and insulin-dependent
mechanisms, the latter being determined by the interaction of insulin
sensitivity and insulin secretion. To determine the role of
insulin-independent and insulin-dependent factors in glucose tolerance, we
performed intravenous glucose tolerance tests on 93 young healthy subjects
(55 male, 38 female; 18-44 years of age; body mass index, 19.5-52.2 kg/m2).
From these tests, we determined glucose tolerance as the glucose
disappearance constant (Kg), calculated beta-cell function as the
incremental insulin response to glucose for 19 min after an intravenous
glucose bolus (IIR0-19), and derived an insulin sensitivity index (SI) and
glucose effectiveness at basal insulin (SG) using the minimal model of
glucose kinetics. To eliminate the effect of basal insulin on SG and
estimate insulin-independent glucose uptake, we calculated glucose
effectiveness at zero insulin (GEZI = SG - [SI x basal insulin]).
Insulin-dependent glucose uptake was estimated as SI x IIR0-19, because the
relationship between SI and beta-cell function has been shown to be
hyperbolic. Using linear regression to determine the influence of these
factors on glucose tolerance, we found that GEZI was significantly related
to Kg (r = 0.70; P < 0.0001), suggesting a major contribution of
insulin-independent glucose uptake to glucose disappearance. As expected,
SI x IIR0-19 also correlated well with Kg (r = 0.74; P < 0.0001),
confirming the importance of insulin-dependent glucose uptake to glucose
tolerance. Although IIR0-19 alone correlated with Kg (r = 0.35; P =
0.0005), SI did not (r = 0.18; P > 0.08).(ABSTRACT TRUNCATED AT 250
WORDS)

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Copyright © 1994 by the American Diabetes Association.
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