Are Upper Paleolithic blade cores more productive than Middle Paleolithic discoidal cores?
2
The surface potentials of spherical and discoidal rHDL are not affected by the particle apoprotein composition.
3
Over 25 years of study have produced two general models of apoA-I structure in discoidal HDL complexes.
4
We show that these two different sizes of discoidal HDL particles display different stability and phospholipid-binding activity.
5
Shell beads discoidal and cylindrical in form, made chiefly from the columellæ and walls of marine univalves.
6
The model is applied to simulations of discoidal high-density lipoprotein particles involving water, lipids, and two primarily helical proteins.
7
We report here a study of the self-assembly of discoidal HDL particles using coarse-grained (CG) molecular dynamics.
8
One of the major problems for high-resolution structural studies of discoidal HDL is the difficulty in obtaining pure and, foremost, homogenous sample.
9
In terms of discoidal HDL particles, there has been a debate as to the orientation of the apoA-I alpha-helices around the disc edge.
10
Conversion from a discoidal to a saddle-shaped particle involves loss of helicity and formation of loops in opposing antiparallel parts of the double belt.
11
The illustrations of discoidal stones on page 263 are from the "North Americans of Antiquity," p. 77.
12
Nanodiscs are artificial membrane systems comprised of discoidal lipid bilayer particles bound by annuli of amphipathic scaffold protein that shield lipid acyl chains from water.
13
Discoidal complexes of egg phosphatidylcholine and purified apolipoproteins having a similar size and composition were used as cholesterol acceptors.
14
Are Upper Paleolithic blade cores more productive than Middle Paleolithic discoidal cores?
15
The surface potentials of spherical and discoidal rHDL are not affected by the particle apoprotein composition.
16
Over 25 years of study have produced two general models of apoA-I structure in discoidal HDL complexes.