
ASSOCIATION BETWEEN OSTEOPROTEGERIN GENE
POLYMORPHISMS AND RISK OF CORONARY ARTERY
DISEASE: A SYSTEMATIC REVIEW AND META-ANALYSIS Jia P, Wu N, Jia D*, Sun Y* *Corresponding Author: Professor Dalin Jia and/or Professor Yingxian Sun, Department of Cardiology, The First Affiliated
Hospital of China Medical University, 155th North Nanjing Street, Heping District, Shenyang 110001, Liaoning Province,
People’s Republic of China. Tel: +86-242-326-9477. Fax: +86-242-326-9477. Email: jdl2001@126.com and/or
yxsun@mail.cmu.edu.cn page: 27
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DISCUSSION
Osteoprotegerin has been considered as a novel biomarker
for predicting prevalence and severity of CAD [20].
Jono et al. [10] and Schoppet et al. [11] have demonstrated
that serum OPG levels are associated with the presence and
severity of CAD. Ren et al. [21] have further confirmed
that increased plasma OPG levels are associated with the
presence and severity of acute coronary syndrome. These
studies suggest the potential prognostic utility of OPG
as a biomarker in a clinical practice. In addition, some
recent studies have found that several polymorphisms of
the OPG gene, such as T950C and G1181C, are associated
with the risk of CAD, but the results are still controversial
[12-16]. Considering these inconsistent results, in this
study, we performed meta-analysis to analyze the association
between the G209A, T245G, T950C and G1181C
polymorphisms of the OPG gene and the risk of CAD.
G1181C is the most controversial in all polymorphisms
of the OPG gene. Even in populations from the
same country, the results are diverse [14,16]. The results
of meta-analysis showed that the G1181C polymorphism
was strongly associated with the risk of CAD with little
heterogeneity across studies. In addition, the results also
showed that the CC or CG genotypes may increase susceptibility
to CAD, which agreed with previous findings [12].
The T950C polymorphism is located 233 bp upstream
from the translation initiation site in the promoter region,
and it could derive its functional significance by altering
the promoter activity [13]. Previous research has demonstrated
that T950C is the only polymorphism that is associated
with serum OPG levels [12]. Our meta-analysis
indicated that the T950C polymorphism was remarkably
linked with the risk of CAD, which was consistent with
previous results [12]. Moreover, we also reported that
no association existed between G209A and T245G polymorphisms
and the risk of CAD, which was in line with
previous studies [14,15,19].
Similar to other meta-analyses, several limitations
existed in our meta-analysis. First, the sample size is still
relatively small and may not provide sufficient statistical
power to estimate the correlation between the OPG
gene polymorphisms and the susceptibility to CAD. More
studies with larger sample size are still needed to accurately
provide a more representative statistical analysis.
Secondly, we did not evaluate the potential publication
bias that may influence the result. Finally, although little
heterogeneity exists, subgroup analysis should be performed
to assess the association between the OPG gene
polymorphisms and the susceptibility to CAD in different
populations or countries.
In conclusion, to the best of our knowledge, this
meta-analysis is the first report to pool published studies
to estimate the association between the OPG gene polymorphisms
and the susceptibility to CAD. This study demonstrated
that G1181C and T950C polymorphisms were
strongly associated with the risk of CAD, but no association
existed between G209A and T245G polymorphisms
and the risk of CAD. Further large scale case-control studies
with a rigorous design should be conducted to confirm
the above conclusions in the future.
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