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. 2012 Mar 14;18(10):1067–1076. doi: 10.3748/wjg.v18.i10.1067

Table 3.

Peak area ratios of specific glycine and taurine conjugates in controls, patients with cholestatic liver disease (cholestasis) and patients AS and MK with suspected 5β-reductase deficiency

Metabolite m/z Controls(n = 100) Cholestasis(n = 10) AS MK MK1
Glyco-hydroxy-oxo-cholenoic acid 444 0-0.4 1-210 34 104 14
Glyco-dihydroxy-oxo-cholenoic acid 460 0-2.4 8-251 15 1331 1
Tauro-hydroxy-oxo-cholenoic acid 494 0-0.5 1-26 39 6 17
Tauro-dihydroxy-oxo-cholenoic acid 510 0-5 8-133 19 779 0
Glyco-chenodeoxy-cholic acid 448 0-5.2 2-10  754 4 9 25
Glyco-cholic acid 464 0.1-14.6 36-2814 17 49 47
Tauro-chenodeoxy-cholic acid 498 0-0.8 1-718 9 45 10
Tauro-cholic acid 514 0-8.4 6-749 9 10 1

Elevation of glycine and taurine conjugates of dihydroxy-oxo-cholenoic acid (m/z 460 and 510) and hydroxy-oxo-cholenoic acid (m/z 444 and 494) point to 3β-HSD. Elevation of glycine and taurine conjugates of cholic acid (m/z 448 and 464) and chenodeoxycholic acid (m/z 498 and 514) point to cholestatic liver disease. In patient AS, 5β-reductase and 3β-hydroxy-Δ5-C27-steroid dehydrogenase deficiency were excluded by mutation analysis. The cholanoid profiles of patient MK with cystic fibrosis are in a decompensated state with severe cholestatic liver disease and

1

after treatment with ursodeoxycholic acid, pancreatic enzymes and fat-soluble vitamins.