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Journal of Lipid Research, Vol 28, 913-929, Copyright © 1987 by Lipid Research, Inc.
MC Cheung, JP Segrest, JJ Albers, JT Cone, CG Brouillette, BH Chung, M Kashyap, MA Glasscock and GM Anantharamaiah
Affinity columns containing anti-apolipoprotein A-I or A-II were used to
fractionate plasma into subpopulations of lipoprotein particles containing:
a) apoA-I [Lp(A-I)], b) apoA-I and A-II [Lp(A-I with A- II)], and c) apoA-I
but no A-II [Lp(A-I without A-II)]. Single vertical spin and electron
microscopy analyses of these HDL subpopulations demonstrated that acid
elution from the affinity columns caused no detectable change in size and
density of the three subpopulation particles. Analysis by nondenaturing
gradient gel electrophoresis of the three subpopulations found in four
normal subjects identified nine HDL subspecies, designated [1] through [9]
in order of increasing size; [3-7] were the major subspecies. Lp(A-I with
A-II) is composed primarily of subspecies [3],[5], and [6], and may contain
some subspecies [2] and [7], while Lp(A-I without A-II) represents mainly
[4] and [7] and the minor subspecies [1],[2],[8], and [9]. HDL subspecies
[4],[5], and [6] are found in the standard sequential flotation density
cuts for both HDL3 and HDL2, which illustrates the limitations of the
latter terminology. Using single vertical spin ultracentrifugation, HDL
fractions were located and isolated for physical and chemical analyses,
including immunoassay for apoA-I, A-II, and C-II. The distribution of the
Lp(A-I without A-II) particles corresponded closely to the apoC-II
distribution. An apoA-I-rich, cholesteryl ester- and phospholipid-poor
subspecies was identified in the dense HDL fractions. HDL subspecies [7]
was found to contain at least three separate subspecies designated [7a],
[7b], and [7c]. Based on these and previously published results
(Brouillette, C. G., et al. 1984. Biochemistry. 23: 359-367), we propose
that the HDL subspecies adjacent in size generally differ by the
association/lack of association of a hinge-like domain of amphipathic
helixes in a single molecule of apoA-I.
ARTICLES
Characterization of high density lipoprotein subspecies: structural studies by single vertical spin ultracentrifugation and immunoaffinity chromatography
Department of Medicine, School of Medicine, University of Washington, Seattle 98104.
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