Literature DB >> 9497442

Iodine status of New Zealand residents as assessed by urinary iodide excretion and thyroid hormones.

C D Thomson1, A J Colls, J V Conaglen, M Macormack, M Stiles, J Mann.   

Abstract

The aims of this study were (1) to compare various measures of I status, and (2) to assess urinary I and thyroid hormone status of residents of two areas of New Zealand where, before the iodization of salt, goitre was endemic due to low soil I. A total of 189 subjects (102 males, eighty-seven females) were recruited from the Dunedin Blood Transfusion Centre, and 144 (sixty-seven males, seventy-seven females) from the Waikato Blood Transfusion Centre between November 1993 and June 1994. Blood was taken for thyroid hormone assays, and subjects collected a fasting overnight urine specimen, a double-voided fasting urine sample, and a complete 24 h specimen for iodide and creatinine analyses. Positive correlations (P < 0.0001) between daily iodide excretion and iodide concentrations in fasting and double-voided fasting urines, identical median values for iodide concentrations in the three samples, and similar numbers of subjects classified as at risk from I deficiency disorders according to the International Committee for the Control of Iodine Deficiency Disorders/World Health Organization categories (World Health Organization, 1994) confirmed indications from earlier studies that fasting urine samples were suitable for population studies. However 24 h urinary iodide excretion remains the recommended measure for individual I status. Waikato residents excreted more iodide in urine and all measures were significantly greater than for Otago residents. However median urinary iodide excretions for both areas (60 and 76 microgram/d for Otago and Waikato respectively) were considerably lower than those reported previously for New Zealand. Thyroid hormone concentrations were within normal ranges. Our findings suggest that I status of New Zealanders may no longer be considered adequate and may once again be approaching levels of intake associated with clinical I deficiency.

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Year:  1997        PMID: 9497442     DOI: 10.1079/bjn19970208

Source DB:  PubMed          Journal:  Br J Nutr        ISSN: 0007-1145            Impact factor:   3.718


  10 in total

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4.  Iodine intake and status during pregnancy and lactation before and after government initiatives to improve iodine status, in Palmerston North, New Zealand: a pilot study.

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5.  Iodine intake and status of UK women of childbearing age recruited at the University of Surrey in the winter.

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6.  A multi-centre pilot study of iodine status in UK schoolchildren, aged 8-10 years.

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7.  Use of Iodine Supplements by Breastfeeding Mothers Is Associated with Better Maternal and Infant Iodine Status.

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Authors:  Sheila A Skeaff; Christine D Thomson; Noela Wilson; Winsome R Parnell
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10.  Iodine Status of New Zealand Elderly Residents in Long-Term Residential Care.

Authors:  Jody C Miller; Sue O MacDonell; Andrew R Gray; Malcolm R Reid; David J Barr; Christine D Thomson; Lisa A Houghton
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  10 in total

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