Comprising both plant sterols (PSs) and their saturated counterparts plant stanols, phytosterols have been shown to lower LDL cholesterol concentrations through partial inhibition of intestinal cholesterol absorption.
Unlike their mammalian counterparts, plant introns are almost completely devoid of TEs and it could therefore be expected that gene body methylation should be minimal in plants.
Daily intake of 2,000 mg of plant sterols or their saturated counterparts, plant stanols, or phytostanols, has been shown to decrease LDL-C by 9 14% without affecting high-density lipoprotein cholesterol (HDL-C) concentrations [ 7, 8].
Like their animal counterparts, plant mitochondrial genomes generally are characterized as circular chromosomes [ 1] (barring notable exceptions, e.g., [ 2, 3]) that contain a variable number of genes interspersed within non-coding DNA; however, this simplistic generalization belies the dynamic and complex nature of plant mitochondrial genomes [ 4].
In general plant miRNA are different from their animal counterpart: most plant miRNAs show near perfect complementarity to their targets.
The results suggest that the domain organization of chitinase genes may be conserved among insect cuticular chitinase genes and that they are more complex than their counterparts in plants.
The LRR-domains in the oomycete receptors, however, are much shorter (two LRR repeats) than their counterparts in plants (up to 25 LRR-repeats).
Although numerous attempts have been made to assess shelterin counterparts in plants, to date these proteins have not been identified (see [ 5] for review).
Their counterparts in plants, on the other hand, are transported to the extracellular milieu and anchored to the cell surface through an additional C-terminal hydrophobic sequence.
In contrast, the different Ty3/Gypsy lineages described in bilateria organisms show greater variability in the number of CCHC arrays at NC thantheir Ty3/Gypsy counterparts of plants and fungi (i.e. chromoviruses and the Athila/Tat branch).
This indicates that Ty3/Gypsy LTR retroelements described in bilateria organisms exhibit greater GPY/F motif variability than their Ty3/Gypsy counterparts of plants and fungi, and strongly suggests a number of transitions from the canonical motif toward other states during evolution.
