Skip to main content
. 2008 Mar;178(3):1795–1805. doi: 10.1534/genetics.107.081216

TABLE 3.

Candidate genes for each QTL based on our data and published evidence—the genes to test first

Evidence
Trait QTL Gene Chr Mb mRNAa Proteinb Sequencec Literatured
HDL Hdlq20 Apoa2 1 173.1 4.1 X Lilja et al. (2002)
Fh1 177.5 −2.8 X
Hsd11b1 194.9 −3.8 Morton et al. (2001)
Hdlq1 Acads 5 115.3 −2.6 X
Scarb1 125.6 −2.1 Acton et al. (1996)
Hdlq24 Pparg 6 115.4 X Chinetti et al. (2001)
Rassf4 116.6 −8.2
Adipor2 119.3 1.9 X Yamauchi et al. (2003)
Ndufa9 126.8 −2.6 X
Gallstone presence Lith17 Scarb2 5 93.6 X Acton et al. (1996)
Acads 115.3 −2.6 X
Lith19 Slc10a2 8 5.1 5.2 Shih et al. (2001)
Lith21 Ctgf 10 24.3 −2.6 X Koninger et al. (2005)
Obesity and body weight Obwq3 Pparg 6 115.4 X Cock et al. (2004)
Rassf4 116.6 −8.2
Adipor2 119.3 1.9 X Yamauchi et al. (2003)
Obwq4 Pgc 17 47.2 X Puigserver et al. (1998)
Obwq5 Atrnl1 19 57.7 3.4 Gunn et al. (1999)

Genes listed are in QTL regions that are not identical by descent between SM and NZB (Hsd11b1 maps close to Hldq20). Protein and mRNA fold changes are given where a positive value indicates upregulation and a negative one indicates downregulation in NZB relative to SM.

a

Fold changes for mRNA are significant (Fs < 1 × 10−4).

b

Proteins are significantly different as determined by Western analysis (Figure 3), except for APOA2, which is suggestive (P < 0.1) on the basis of MS/MS data.

c

Genes that contain known or extrapolated codon-changing SNPs leading to potential functional differences are indicated by “X.”

d

Gene names from supplemental Table S2 were systematically interrogated against the PubMed database using relevant keywords (Stylianou et al. 2006).