Literature DB >> 9380834

Urinary chromium as a biological marker of environmental exposure: what are the limitations?

D J Paustenbach1, J M Panko, M M Fredrick, B L Finley, D M Proctor.   

Abstract

Public concern has mounted recently about environmental exposures to chromium in soil, tap water, and ambient air. In response, agencies charged with protecting public health have attempted to study exposure by monitoring urinary chromium levels among potentially exposed populations. While urinary biomonitoring of occupationally exposed workers has been successfully used to assess high-level inhalation exposures in the workplace, evaluating low-level environmental exposures has been problematic. Due to these problems, before an extensive biological monitoring study is conducted of those exposed to low levels of environmental chromium, several issues must be resolved. First, exposures to chromium must occur at the same time as sampling, because the biological half-life of chromium in urine is very short (less than 2 days). Second, reduced bioavailability and bioaccessibility via the oral and dermal routes of exposure limit the capacity of urinary monitoring to measure environmental exposures (e.g., systemic dose is too small to be measured). Third, the dose of chromium must be sufficient such that it may be reliably measured above background levels in urine (range of 0.2 to 2 microg/liter) and above the analytical limit of detection (0.2 microg/liter). Fourth, the inter- and intrapersonal variability in background levels of urinary chromium is known to be significant and influenced by food and beverage intake, smoking, and exercise. Thus, the role of each factor must be carefully understood. Finally, it is imperative to have developed a complete understanding of the clinical significance of elevated urinary chromium levels before a study is performed, because higher than background levels, in and of themselves, are not indicative of a significant health concern. The route of exposure, valence of chromium to which people were exposed, exposure time, and duration must all be understood before the biological data can be implemented. We have conducted a total of nine human exposure studies over the past 3 years in an attempt to understand the kinetics of chromium and the impact on urinary, red blood cell (RBC), and plasma biomonitoring programs. The results of these studies are described here and our recommendations are offered for how to design and implement a urinary chromium biomonitoring study. In our view, given some evidence that the dose of hexavalent chromium [Cr(VI)] is sufficient to be measurable above background concentrations of total chromium [Cr(III) and Cr(VI)], duplicated measurements of chromium in plasma and RBCs are, in most cases, a more definitive gauge of environmental exposure than urinary biomonitoring. Copyright 1997 Academic Press.

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Year:  1997        PMID: 9380834     DOI: 10.1006/rtph.1997.1135

Source DB:  PubMed          Journal:  Regul Toxicol Pharmacol        ISSN: 0273-2300            Impact factor:   3.271


  12 in total

1.  Determination of hexavalent chromium in exhaled breath condensate and environmental air among chrome plating workers.

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2.  Withdrawn: The production of corporate research to manufacture doubt about the health hazards of products: an overview of the Exponent Bakelite™ simulation study.

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Journal:  Int J Occup Environ Health       Date:  2016-04-29

3.  Birth outcomes and background exposures to select elements, the Longitudinal Investigation of Fertility and the Environment (LIFE).

Authors:  Michael S Bloom; Germaine M Buck Louis; Rajeshwari Sundaram; Jose M Maisog; Amy J Steuerwald; Patrick J Parsons
Journal:  Environ Res       Date:  2015-02-20       Impact factor: 6.498

4.  Exploration of Whole Blood Chromium as Biomarker of Hexavalent Chromium Exposure: Based on Literature Review and Monte Carlo Simulation.

Authors:  Shiyi Hong; Yali Zhang; Guiping Hu; Guang Jia
Journal:  Biol Trace Elem Res       Date:  2022-07-21       Impact factor: 4.081

5.  CrVI exposure and biomarkers: Cr in erythrocytes in relation to exposure and polymorphisms of genes encoding anion transport proteins.

Authors:  Qingshan Qu; Xiaomei Li; Feiyun An; Guang Jia; Lanzeng Liu; Hiroko Watanabe-Meserve; Karen Koenig; Beverly Cohen; Max Costa; Nirmal Roy; Mianhua Zhong; Lung Chi Chen; Suhua Liu; Lei Yan
Journal:  Biomarkers       Date:  2008-08       Impact factor: 2.658

6.  Biomonitoring of two types of chromium exposure in an electroplating shop.

Authors:  Francis Pierre; François Diebold; François Baruthio
Journal:  Int Arch Occup Environ Health       Date:  2007-06-29       Impact factor: 3.015

7.  Increased levels of 8-hydroxy-2 -deoxyguanosine attributable to carcinogenic metal exposure among schoolchildren.

Authors:  Ruey-Hong Wong; Chung-Yih Kuo; Ming-Lin Hsu; Tsun-Yen Wang; Pi-I Chang; Tsung-Hsun Wu; Shuai Huang
Journal:  Environ Health Perspect       Date:  2005-10       Impact factor: 9.031

8.  Application of linear mixed-effects model with LASSO to identify metal components associated with cardiac autonomic responses among welders: a repeated measures study.

Authors:  Jinming Zhang; Jennifer M Cavallari; Shona C Fang; Marc G Weisskopf; Xihong Lin; Murray A Mittleman; David C Christiani
Journal:  Occup Environ Med       Date:  2017-06-29       Impact factor: 4.402

9.  The effect of social trust on citizens’ health risk perception in the context of a petrochemical industrial complex.

Authors:  Miguel Angel López-Navarro; Jaume Llorens-Monzonís; Vicente Tortosa-Edo
Journal:  Int J Environ Res Public Health       Date:  2013-01-21       Impact factor: 3.390

10.  The association of chromium in household dust with urinary chromium in residences adjacent to chromate production waste sites.

Authors:  A H Stern; J A Fagliano; J E Savrin; N C Freeman; P J Lioy
Journal:  Environ Health Perspect       Date:  1998-12       Impact factor: 9.031

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