Literature DB >> 22273564

Two-step biochemical differential diagnosis of classic 21-hydroxylase deficiency and cytochrome P450 oxidoreductase deficiency in Japanese infants by GC-MS measurement of urinary pregnanetriolone/ tetrahydroxycortisone ratio and 11β-hydroxyandrosterone.

Yuhei Koyama1, Keiko Homma, Maki Fukami, Masayuki Miwa, Kazushige Ikeda, Tsutomu Ogata, Tomonobu Hasegawa, Mitsuru Murata.   

Abstract

BACKGROUND: The clinical differential diagnosis of classic 21-hydroxylase deficiency (C21OHD) and cytochrome P450 oxidoreductase deficiency (PORD) is sometimes difficult, because both deficiencies can have similar phenotypes and high blood concentrations of 17α-hydroxyprogesterone (17OHP). The objective of this study was to identify biochemical markers for the differential diagnosis of C21OHD, PORD, and transient hyper 17α-hydroxyprogesteronemia (TH17OHP) in Japanese newborns. We established a 2-step biochemical differential diagnosis of C21OHD and PORD.
METHODS: We recruited 29 infants with C21OHD, 9 with PORD, and 67 with TH17OHP, and 1341 control infants. All were Japanese and between 0 and 180 days old; none received glucocorticoid treatment before urine sampling. We measured urinary pregnanetriolone (Ptl), the cortisol metabolites 5α- and 5β-tetrahydrocortisone (sum of these metabolites termed THEs), and metabolites of 3 steroids, namely dehydroepiandrosterone, androstenedione (AD4), and 11β-hydroxyandrostenedione (11OHAD4) by GC-MS.
RESULTS: At a cutoff of 0.020, the ratio of Ptl to THEs differentiated C21OHD and PORD from TH17OHP and controls with no overlap. Among metabolites of DHEA, AD4, and 11OHAD4, only 11β-hydroxyandrosterone (11HA), a metabolite of 11OHAD4, showed no overlap between C21OHD and PORD at a cutoff of 0.35 mg/g creatinine.
CONCLUSIONS: A specific cutoff for the ratio of Ptl to THEs can differentiate C21OHD and PORD from TH17OHP and controls. Additionally, the use of a specific cutoff of 11HA can distinguish between C21OHD and PORD.

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Year:  2012        PMID: 22273564     DOI: 10.1373/clinchem.2011.173286

Source DB:  PubMed          Journal:  Clin Chem        ISSN: 0009-9147            Impact factor:   8.327


  5 in total

1.  Clinical guidelines for the diagnosis and treatment of 21-hydroxylase deficiency (2021 revision).

Authors:  Tomohiro Ishii; Kenichi Kashimada; Naoko Amano; Kei Takasawa; Akari Nakamura-Utsunomiya; Shuichi Yatsuga; Tokuo Mukai; Shinobu Ida; Mitsuhisa Isobe; Masaru Fukushi; Hiroyuki Satoh; Kaoru Yoshino; Michio Otsuki; Takuyuki Katabami; Toshihiro Tajima
Journal:  Clin Pediatr Endocrinol       Date:  2022-04-10

2.  The pitfalls associated with urinary steroid metabolite ratios in children undergoing investigations for suspected disorders of steroid synthesis.

Authors:  Angela K Lucas-Herald; Martina Rodie; Laura Lucaccioni; David Shapiro; Jane McNeilly; M Guftar Shaikh; S Faisal Ahmed
Journal:  Int J Pediatr Endocrinol       Date:  2015-04-15

3.  Guidelines for diagnosis and treatment of 21-hydroxylase deficiency (2014 revision).

Authors:  Tomohiro Ishii; Makoto Anzo; Masanori Adachi; Kazumichi Onigata; Satoshi Kusuda; Keisuke Nagasaki; Shohei Harada; Reiko Horikawa; Masanori Minagawa; Kanshi Minamitani; Haruo Mizuno; Yuji Yamakami; Masaru Fukushi; Toshihiro Tajima
Journal:  Clin Pediatr Endocrinol       Date:  2015-07-18

4.  Classic and non-classic 21-hydroxylase deficiency can be discriminated from P450 oxidoreductase deficiency in Japanese infants by urinary steroid metabolites.

Authors:  Yuhei Koyama; Keiko Homma; Maki Fukami; Masayuki Miwa; Kazushige Ikeda; Tsutomu Ogata; Mitsuru Murata; Tomonobu Hasegawa
Journal:  Clin Pediatr Endocrinol       Date:  2016-04-28

5.  Corticosterone Methyl Oxidase Deficiency Type 1 with Normokalemia in an Infant.

Authors:  Ala Üstyol; Mehmet Emre Atabek; Norman Taylor; Matthew Chun-Wing Yeung; Angel O K Chan
Journal:  J Clin Res Pediatr Endocrinol       Date:  2016-04-29
  5 in total

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