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. Author manuscript; available in PMC: 2015 Feb 1.
Published in final edited form as: Nat Genet. 2014 Jun 22;46(8):826–836. doi: 10.1038/ng.3014

Table 1.

Common genetic variants at loci associated with QT interval (P < 5×10-8) on meta-analysis of GWAS+replication results (Supplementary Table 6). N is the effective number of samples contributing to the signal. For a given SNP, the effective sample size is the sum of the product of the cohort-specific sample size and imputation quality (ranging from 0 to 1). Function (Fxn) shown for coding variants with r2 = 1 to sentinel SNP or proxy with 1.0 > r2 > 0.8 (-p) to the sentinel SNP. Expression quantitative trait loci (eQTL) transcripts are shown if associated at P < 5×10-8 with sentinel SNPs or their close proxies (r2 > 0.8, Supplementary Table 12, bolded if eQTL found in left ventricle for the sentinel SNP). Protein-protein interactor (PPI) relationships for nearby genes to genes in loci previously established to influence myocardial repolarization are provided (Supplementary Table 17). Interactors from immunoprecipitation (IP) experiments are shown from murine cardiac tissue using 5 baits (K1=KCNQ1, K2=KCNH2, CV=CAV3, CA=CACNA1C, S1=SNTA1) with protein identified in parentheses if different from the nearest gene listed.Loci at which a SNP (index or secondary) or a close proxy (r2>0.8) falls in a left ventricular enhancer are marked with I or S. Brackets indicate annotations for secondary signals of association (Supplementary Table 8a).

Nearest
gene
SNP chr position
hg18
coded/
noncoded
allele
coded
allele
freq
N effect msec
(SE)
P LQTS
gene
locus
Fxn eQTL
transcript
PPI
interactor
known
QT loci
IP
interactor
LV enhancer
Previously discovered loci

RNF207 rs846111 1p36 6,201,957 C/G 0.28 47,041 1.73 (0.13) 7×10-40 G603A
NOS1AP rs12143842 1q23 160,300,514 T/C 0.24 75,053 3.50 (0.11) 1×10-213 S
ATP1B1 rs10919070 1q24 167,365,661 C/A 0.13 75,707 -1.68 (0.14) 1×10-31 intron ATP1B1,NME7 ATP1B1-K1, ATP1B1-K2, ATP1B1-CA, ATP1B1-CV I,S
SLC8A1 rs12997023 2p22 40,606,486 C/T 0.05 70,311 -1.69 (0.22) 5×10-14 ANK2,CAV3 I,S
SCN5A-SCN10A rs6793245 3p22 38,574,041 A/G 0.32 73,697 -1.12 (0.10) 4×10-27 LQT3 intron SCN5A-SNTA1 S
SLC35F1-PLN rs11153730 6q22 118,774,215 T/C 0.50 74,932 -1.65 (0.10) 2×10-67 PLN-CV, PLN-CA S
KCNH2 rs2072413 7q36 150,278,902 T/C 0.27 65,331 -1.68 (0.11) 1×10-49 LQT2, SQT1 intron KCNE1 S
KCNQ1 rs7122937 11p15 2,443,126 T/C 0.19 72,978 1.93 (0.12) 1×10-54 LQT1, SQT2 intron C11ORF21,PHEMX,TSPAN32 KCNE1,KCNH2 I
LITAF rs735951 16p13 11,601,037 A/G 0.46 62,994 -1.15 (0.10) 2×10-28 LITAF S
CNOT1 rs246196 16q21 57,131,754 C/T 0.26 76,513 -1.73 (0.11) 2×10-57 intron NDRG4,CNOT1 GOT2-CV, GOT2-K1 I,S
LIG3 rs1052536 17q12 30,355,688 C/T 0.53 75,961 0.98 (0.10) 6×10-25 3′UTR LIG3,CCT6B UNC45B-K1, UNC45B-CV I
KCNJ2 rs1396515 17q24 65,942,588 C/G 0.52 77,058 -0.98 (0.09) 2×10-25 LQT7, SQT3 S
KCNE1 rs1805128 21q22 34,743,550 T/C 0.01 20,061 7.42 (0.85) 2×10-18 LQT5 D85N KCNQ1,KCNH2
Novel loci
TCEA3 rs2298632 1p36 23,583,062 T/C 0.50 83,031 0.70 (0.09) 1×10-14 intron TCEA3
SP3 rs938291 2q31.1 174,450,854 G/C 0.39 101,902 0.53 (0.09) 6×10-10
TTN-CCDC141 rs7561149 2q31.2 179,398,101 C/T 0.42 85,299 -0.52 (0.09) 7×10-9 CCDC141-CV,TTN-K2, TTN-CV I
SPATS2L rs295140 2q33 200,868,944 T/C 0.42 103,331 0.57 (0.09) 2×10-11 SPATS2L SGOL2-SCN5A I
C3ORF75 rs17784882 3p21 47,519,007 A/C 0.40 76,184 -0.54 (0.10) 3×10-8 intron KLHL18,PTPN23, SCAP,SETD2 MYL3-CA I
SLC4A4 rs2363719 4q13 72,357,080 A/G 0.11 70,821 0.97 (0.16) 8×10-10 intron
SMARCAD1 rs3857067 4q22 95,245,457 A/T 0.46 101,382 -0.51 (0.08) 1×10-9
GFRA3 rs10040989 5q31 137,601,624 A/G 0.13 87,942 -0.85 (0.13) 5×10-11 FAM13B ETF1-RPL22
GMPR rs7765828 6p22 16,402,701 G/C 0.40 93,262 0.55 (0.09) 3×10-10 intron (F256I-p) ATXN1 ATXN1-ACOT7,ATXN1-KCNAB2 I
CAV1 rs9920 7q31 115,987,328 C/T 0.09 102,060 0.79 (0.14) 3×10-8 3′ UTR CAV-ATP1B1, CAV2-ATP1B1 CAV1-CA, CAV1-S1, CAV1-CV, CAV2-CV
NCOA2 rs16936870 8q13 71,351,896 A/T 0.10 74,196 0.99 (0.16) 1×10-9 intron I
LAPTM4B rs11779860 8q22.1 98,919,506 C/T 0.47 73,404 -0.61 (0.10) 2×10-10 intron I
AZIN1 rs1961102 8q22.3 104,002,021 T/C 0.33 82,677 0.57 (0.10) 3×10-9
GBF1 rs2485376 10q24 104,039,996 A/G 0.39 70,552 -0.56 (0.10) 3×10-8 intron ACTR1A-CV I
FEN1-FADS2 rs174583 11q12 61,366,326 T/C 0.34 100,900 -0.57 (0.09) 8×10-11 intron FADS1, FADS2, FADS3 I
ATP2A2 rs3026445 12q24 109,207,586 C/T 0.36 95,768 0.62 (0.09) 3×10-12 intron VPS29, GPN3, ARPC3, C12ORF24 PLN ATP2A2-CV, ATP2A2-CA I
KLF12 rs728926 13q22 73,411,123 T/C 0.36 69,219 0.57 (0.10) 2×10-8 intron KLF12 I
ANKRD9 rs2273905 14q32 102,044,752 T/C 0.35 83,532 0.61 (0.09) 4×10-11 5′ UTR ANKRD9 I
USP50-TRPM7 rs3105593 15q21 48,632,310 T/C 0.45 77,240 0.66 (0.10) 3×10-12
CREBBP rs1296720 16p13.3 3,813,643 C/A 0.20 59,812 0.83 (0.13) 4×10-10 intron CV-TRAP1
MKL2 rs246185 16p13.12 14,302,933 C/T 0.34 77,411 0.72 (0.10) 3×10-13
PRKCA rs9892651 17q24 61,734,255 C/T 0.43 74,683 -0.74 (0.10) 3×10-14 intron PRKCA CACNA1C,KCNE1 I