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. 2015 Oct 7;10(10):e0139769. doi: 10.1371/journal.pone.0139769

Table 4. Case-control study for the association between TLR single nucleotide polymorphisms and end-stage renal disease per underlying disease category.

Gene HGVS name Renal disease N cases MAF cases(%) MAF controls(%) OR 1 95% CI 1 P-value 2 Type II error when P < 0.05 3
TLR1 p.His305Leu Congenital 216 10.4 2.6 4.94 2.26–10.84 0.0002 0%
Glomerulonephritis 299 8.4 2.6 4.91 2.31–10.41 0.0001 0%
Pyelonephritis 126 11.5 2.6 6.71 3.10–14.53 <0.0001 0%
Renovascular 102 9.8 2.6 4.37 1.83–10.43 0.003 0%
TLR1 p.Asn248Ser Congenital 216 25.9 25.9 1.02 0.76–1.37 1
Glomerulonephritis 299 32.6 25.9 1.33 1.05–1.67 0.05 16%
Pyelonephritis 126 27.0 25.9 1.27 0.94–1.71 0.4
Renovascular 102 33.3 25.9 1.53 1.10–2.11 0.03 28%
TLR8 p.Met1Val Congenital 216 24.6 22.6 1.18 0.86–1.64 0.9
Glomerulonephritis 299 29.4 22.6 1.52 1.18–1.97 0.004 9%
Pyelonephritis 126 28.1 22.6 1.24 0.85–1.81 0.8
Renovascular 102 33.6 22.6 1.86 1.25–2.77 0.002 17%

1Per allele odds ratios (OR) and 95% confidence intervals (CI) based on additive genetic logistic regression models adjusted for age and gender, taking case-control relatedness into consideration (DFAM algorithm). HGVS = Human Genome Variation Society.

2 P-values are Bonferroni corrected.

3 Post hoc estimates of the type II errors (100%–power) were calculated according to the methods by Skol et al. [23] with the data as mentioned in the table and an end-stage renal disease prevalence of 0.1% (estimate in The Netherlands).