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1 enzymes cellular glutathione peroxidase and paraoxonase).
2 hiolactonase is identical with that of human paraoxonase.
3 herence, without increases in HDL-associated paraoxonase.
4 c properties, and physiological roles of the paraoxonases.
5 ON1 suggest an anti-atherogenic function for paraoxonases.
6 d covered by this review have indicated that paraoxonase 1 'status' (i.e. activity and/or concentrati
7 colony-stimulating factor receptor (MCSFR), paraoxonase 1 (normalized to prothrombin protein), and l
9 ed increased activation and stabilization of paraoxonase 1 (PON1) activity (mumol/min/mg) when compar
11 terol (HDL-C), apolipoprotein A-I (Apo A-I), paraoxonase 1 (PON1) activity, hepatic gene expression,
13 proficient organophosphatases such as serum paraoxonase 1 (PON1) and the organophosphate-hydrolyzing
15 documented that apoA-I, myeloperoxidase and paraoxonase 1 (PON1) form a complex in HDL that is criti
16 e high-density lipoprotein-associated enzyme paraoxonase 1 (PON1) hydrolyzes lactones, aromatic ester
27 protein, cholesterol ester transfer protein, paraoxonase 1 and platelet activating factor acetylhydro
28 erstanding the basic biochemical function of paraoxonase 1 and the discovery of possible modulators o
29 mechanisms underlying the mode of action of paraoxonase 1 and the factors which modulate its activit
30 r regional cord blood DNA methylation at the Paraoxonase 1 gene (PON1) that persisted in early childh
38 that genetic epidemiological studies of the paraoxonase 1 polymorphisms in relation to coronary hear
39 disease (MND) is supported by association of paraoxonase 1 polymorphisms with amyotrophic lateral scl
42 an underestimate of the true contribution of paraoxonase 1 to coronary heart disease because these po
44 r interaction = 0.004) and weakly for rs662 (paraoxonase 1) (beta = -3.6, 95% confidence interval: -1
45 cleotide polymorphisms (SNPs) from the PON1 (paraoxonase 1) gene influence the ability to metabolize
46 ncluding apoAI (apolipoprotein AI) and PON1 (paraoxonase 1) prevent cellular oxidative stress and LDL
50 ein 8, lysosome C, prenylcysteine oxidase 1, paraoxonase 1, transthyretin, serum amyloid A4, and fibr
51 isease risk associated with polymorphisms of paraoxonase 1, which are most active in lipid peroxide h
56 nducted to determine the effects of tannase, paraoxonase-1 (PON-1) and/or cysteine protease (CP) on t
57 lated hepatic CAT (activity and expression), paraoxonase-1 (PON-1) expression and down-regulated heme
61 ty of high density lipoprotein (HDL)-derived paraoxonase-1 (PON1) was investigated, using peroxidized
63 ffer cell expression of a transgene encoding paraoxonase-1 (PON1), whose plasma activity correlates w
67 haptoglobin, and hemopexin) and depleted of paraoxonase-1 after SFA-HFD in comparison with MUFA-HFD.
68 otein activity), HDL antioxidant properties (paraoxonase-1 arylesterase activity and total HDL antiox
69 creased HDL ability to esterify cholesterol, paraoxonase-1 arylesterase activity, and HDL vasodilator
70 y, we show that PPARgamma induces macrophage paraoxonase 2 (PON-2), an enzyme that degrades QS molecu
72 cells damaged by C12-HSL exposure, while the paraoxonase 2 (PON2) inhibitor (Triazolo[4,3-a]quinolone
73 ssed genes associated with cancer, including paraoxonase 2 (PON2), whereas DKONR MEF expressed little
74 e found that p53 transcriptionally represses paraoxonase 2 (PON2), which regulates GLUT1-mediated glu
75 up-regulated, whereas antioxidant proteins, paraoxonase 2 and glutathione peroxidase 3, were down-re
76 ast 2 years suggesting a protective role for paraoxonase 2 and paraoxonase 3 in the development of at
77 ude that, in addition to paraoxonase 1, both paraoxonase 2 and paraoxonase 3 proteins are protective
78 mbers of the paraoxonase gene family, namely paraoxonase 2 and paraoxonase 3, are either undetectable
80 and paraoxonase 3, are either undetectable (paraoxonase 2) or detected at very low levels (paraoxona
83 se effects are dependent on the induction of paraoxonase-2, a QS hydrolyzing enzyme, that mitigates t
88 ting a protective role for paraoxonase 2 and paraoxonase 3 in the development of atherosclerosis in m
89 ion to paraoxonase 1, both paraoxonase 2 and paraoxonase 3 proteins are protective against the develo
90 ediated expression of human paraoxonase 2 or paraoxonase 3 proteins protects against the development
91 raoxonase 2) or detected at very low levels (paraoxonase 3) on HDL, and are considered to participate
92 xonase gene family, namely paraoxonase 2 and paraoxonase 3, are either undetectable (paraoxonase 2) o
93 associations were observed with cathepsin D, paraoxonase 3, renin andfollistatin, neither of which wa
94 and lowest PON1 activity quartiles were, for paraoxonase, 3.4 (95% CI, 2.1-5.5; P < .001) and for ary
96 otect is a decrease in the activity of serum paraoxonase, a serum esterase carried on HDL that has pr
97 1, PON3 has very limited arylesterase and no paraoxonase activities but rapidly hydrolyzes lactones s
98 protein, phospholipid transfer protein, and paraoxonase activities) were measured at the end of each
99 Turkey and chicken, like most birds, lack paraoxonase activity and are very susceptible to organop
100 HDL with purified paraoxonase restored both paraoxonase activity and the ability to protect against
101 eatment increased plasma HDL cholesterol and paraoxonase activity compared with PBS and inhibited inc
102 ctivity is minimal, whereas the kcat for the paraoxonase activity is negatively perturbed by up to 10
103 ructurally and functionally critical for the paraoxonase activity of PON1 prevent it from being able
107 hosphates (OPs) by OPH and determining serum paraoxonase activity which appears to be important for p
108 rrelated less strongly (r=-0.36, P=0.025 for paraoxonase activity) or did not correlate at all (pheny
109 otein lipid hydroperoxides (LOOH), increased paraoxonase activity, increased plasma HDL-cholesterol l
110 rmation of pre-beta HDL containing increased paraoxonase activity, resulting in significant improveme
114 ability to hydrolyze oxidized lipids in LDL, paraoxonase also alters the oxidative state of macrophag
115 t was associated with a decreased content of paraoxonase, an enzyme that protects against LDL oxidati
117 dicates that both the serum concentration of paraoxonase and an individual's genotype are related to
118 in the genes for glutathione S-transferase, paraoxonase and apolipoprotein E on the risk of coronary
120 rtile (23/315 [7.3%]) and 235/324 [7.7%] for paraoxonase and arylesterase, respectively) compared wit
122 specifically by the OPases, mammalian serum paraoxonase and bacterial organophosphorus hydrolase (OP
123 nalyses showed that 2 Delta variables, Delta paraoxonase and Delta HDL(2), were significantly heritab
124 s with respect to the mechanism of action of paraoxonase and differences between the family members t
126 ptoglobin-related protein (Hpr), hemoglobin, paraoxonase, and apoA-II, whereas TLF2 is a larger, poor
128 eins: apolipoprotein AI, apolipoprotein AII, paraoxonase, and the primate-specific haptoglobin-relate
129 ains mainly apoA-I and Hpr, trace amounts of paraoxonase, apoA-II, and haptoglobin, but no detectable
130 oteins associated with HDL metabolism (e.g., paraoxonase, apolipoprotein A-I, lecithin:cholesterol ac
132 ess index (OSI), lipid hydroperoxide levels, paraoxonase, arylesterase, and ceruloplasmin activity, p
136 TRX2 [anthrax toxin receptor 2], PON1 [serum paraoxonase/arylesterase], SERPINA1 [alpha-1-antitrypsin
139 ted with HDL such as PAF acetylhydrolase and paraoxonase can participate in the elimination of biolog
143 eered variant of the reconstructed ancestral paraoxonase enzyme N9, catalysed the dynamic kinetic res
145 advances have been made in research into the paraoxonase family and atherosclerosis, much more needs
147 otein-associated antioxidant enzymes such as paraoxonase from inhibition and protect apoA-I from oxid
148 underscore the utility of all members of the paraoxonase gene family as therapeutic targets for the t
150 paraoxonase 1, the other two members of the paraoxonase gene family, namely paraoxonase 2 and paraox
151 the discovery that two other members of the paraoxonase gene family, PON2 and PON3, may also have im
154 of studies of genetic determinants of serum paraoxonase have reported apparently conflicting results
159 hough there have been suggestions that serum paraoxonase is important in protecting against coronary
161 malian hepatocytes, here we characterize the paraoxonase-like C20orf3/adipocyte plasma-membrane-assoc
162 s suggested these proteins interact with the paraoxonase-like MEC-6 and the cholesterol-binding stoma
165 ed from the B6 and C3H parental strains, low paraoxonase mRNA levels segregated with aortic lesion de
166 rties, along with the HDL-associated enzymes paraoxonase, platelet activating factor acetylhydrolase
167 e that alterations in the relative levels of paraoxonase, platelet-activating factor acetylhydrolase,
169 ommon polymorphism at codon 192 in the human paraoxonase (PON) 1 gene has been shown to be associated
171 hown to be hydrolytically inactivated by the paraoxonase (PON) family of calcium-dependent esterases,
176 sly shown that two antioxidant-like enzymes, paraoxonase (PON)-1 and PON3, are high density lipoprote
179 92R, L55M, and T(-107)C polymorphisms in the paraoxonase PON1 gene and the S311C polymorphism in the
180 density lipoprotein (HDL)-associated enzyme paraoxonase (PON1) contributes significantly to the deto
190 Pseudomonas diminuta, and a mammalian serum paraoxonase (PON1), confirmed that the analogues mimic t
197 loning and characterization of human PON2, a paraoxonase-related gene-2 that is physically linked wit
198 Several important advances in the field of paraoxonase research have occurred during this review pe
200 n of the apoAII transgenic HDL with purified paraoxonase restored both paraoxonase activity and the a
202 accelerated in the presence of rabbit serum paraoxonase, suggesting that organophosphorus hydrolase
203 ere hydrolyzed in human plasma by the enzyme paraoxonase to the respective hydroxy acids, which were
204 tes and 3 proteins (Cathepsin D, Galectin-4, Paraoxonase type 3) with a novel association with incide
205 n-4, with an increased risk of diabetes, and Paraoxonase type 3, with a decreased risk of diabetes, r
206 els of leptin, heparin cofactor 2, and serum paraoxonase were associated with mortality after adjusti
207 -spanning protein with limited similarity to paraoxonases, which are implicated in human coronary hea
208 homocysteine thiolactone, the thiolactonase/paraoxonase would protect proteins against homocysteinyl
209 vance our earlier QM/MM maturation of A17 Ig-paraoxonase (WTIgP) as a reactibody for organophosphorus