Literature DB >> 15239388

Chemically induced renal tubule tumors in the laboratory rat and mouse: review of the NCI/NTP database and categorization of renal carcinogens based on mechanistic information.

Edward A Lock1, Gordon C Hard.   

Abstract

The incidence of renal tubule carcinogenesis in male and female rats or mice with 69 chemicals from the 513 bioassays conducted to date by the NCI/NTP has been collated, the chemicals categorized, and the relationship between carcinogenesis and renal tubule hyperplasia and exacerbation of the spontaneous, age-related rodent disease chronic progressive nephropathy (CPN) examined. Where information on mechanism or mode of action exists, the chemicals have been categorized based on their ability to directly or indirectly interact with renal DNA, or on their activity via epigenetic pathways involving either direct or indirect cytotoxicity with regenerative hyperplasia, or exacerbation of CPN. Nine chemicals were identified as directly interacting with DNA, with six of these producing renal tubule tumors at high incidence in rats of both sexes, and in some cases also in mice. Ochratoxin A was the most potent compound in this group, producing a high tumor incidence at very low doses, often with metastasis. Three chemicals were discussed in the context of indirect DNA damage mediated by an oxidative free radical mechanism, one of these being from the NTP database. A third category included four chemicals that had the potential to cause DNA damage following conjugation with glutathione and subsequent enzymatic activation to a reactive species, usually a thiol-containing entity. Two chemicals were allocated into the category involving a direct cytotoxic action on the renal tubule followed by sustained compensatory cell proliferation, while nine were included in a group where the cell loss and sustained increase in renal tubule cell turnover were dependent on lysosomal accumulation of the male rat-specific protein, alpha2mu-globulin. In a sixth category, morphologic evidence on two chemicals indicated that the renal tumors were a consequence of exacerbated CPN. For the remaining chemicals, there were no pertinent data enabling assignment to a mechanistic category. Accordingly, these chemicals, acting through an as yet unknown mechanism, were grouped as either being associated with an enhancement of CPN (category 7, 16 chemicals), or not associated with enhanced CPN (category 8, 4 chemicals). A ninth category dealt with 11 chemicals that were regarded as producing increases in renal tubule tumors that did not reach statistical significance. A 10th category discussed 6 chemicals that induced renal tumors in mice but not in rats, plus 8 chemicals that produced a low incidence of renal tubule tumors in mice that did not reach statistical significance. As more mechanistic data are generated, some chemicals will inevitably be placed in different groups, particularly those from categories 7 and 8. A large number of chemicals in the series exacerbated CPN, but those in category 7 especially may be candidates for inclusion in category 6 when further information is gleaned from the relevant NTP studies. Also, new data on specific chemicals will probably expand category 5 as cytotoxicity and cell regeneration are identified as obligatory steps in renal carcinogenesis in more cases. Additional confirmatory outcomes arising from this review are that metastases from renal tubule tumors, while encountered with chemicals causing DNA damage, are rare with those acting through an epigenetic pathway, with the exception being fumonisin B1; that male rats and mice are generally more susceptible than female rats and mice to chemical induction of renal tubule tumors; and that a background of atypical tubule hyperplasia is a useful indicator reflecting a chemically associated renal tubule tumor response. With respect to renal tubule tumors and human risk assessment, chemicals in categories 1 and 2, and possibly 3, would currently be judged by linear default methods; chemicals in category 4 (and probably some in category 3) as exhibiting a threshold of activity warranting the benchmark approach; and those in categories 5 and 6 as representing mechanisms that have no relevance for extrapolation to humans.

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Year:  2004        PMID: 15239388     DOI: 10.1080/10408440490265210

Source DB:  PubMed          Journal:  Crit Rev Toxicol        ISSN: 1040-8444            Impact factor:   5.635


  17 in total

1.  Mycotoxins as human carcinogens-the IARC Monographs classification.

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Journal:  Mycotoxin Res       Date:  2016-11-25       Impact factor: 3.833

2.  Renal Cell Carcinomas in Vinylidene Chloride-exposed Male B6C3F1 Mice Are Characterized by Oxidative Stress and TP53 Pathway Dysregulation.

Authors:  Schantel A Hayes; Arun R Pandiri; Thai-vu T Ton; Hue-Hua L Hong; Natasha P Clayton; Keith R Shockley; Shyamal D Peddada; Kevin Gerrish; Michael Wyde; Robert C Sills; Mark J Hoenerhoff
Journal:  Toxicol Pathol       Date:  2015-12-17       Impact factor: 1.902

3.  Mapping Adverse Outcome Pathways for Kidney Injury as a Basis for the Development of Mechanism-Based Animal-Sparing Approaches to Assessment of Nephrotoxicity.

Authors:  Angela Mally; Sebastian Jarzina
Journal:  Front Toxicol       Date:  2022-06-15

Review 4.  Choosing The Right Animal Model for Renal Cancer Research.

Authors:  Paweł Sobczuk; Anna Brodziak; Mohammed Imran Khan; Stuti Chhabra; Michał Fiedorowicz; Marlena Wełniak-Kamińska; Kamil Synoradzki; Ewa Bartnik; Agnieszka Cudnoch-Jędrzejewska; Anna M Czarnecka
Journal:  Transl Oncol       Date:  2020-02-22       Impact factor: 4.243

5.  Molecular characterization of preneoplastic lesions provides insight on the development of renal tumors.

Authors:  Kerstin Stemmer; Heidrun Ellinger-Ziegelbauer; Hans-Jürgen Ahr; Daniel R Dietrich
Journal:  Am J Pathol       Date:  2009-08-28       Impact factor: 4.307

6.  Spontaneous occurrence of a distinctive renal tubule tumor phenotype in rat carcinogenicity studies conducted by the national toxicology program.

Authors:  Gordon C Hard; John Curtis Seely; Grace E Kissling; Laura J Betz
Journal:  Toxicol Pathol       Date:  2008-04-25       Impact factor: 1.902

7.  Toxicity and carcinogenicity of methyl isobutyl ketone in F344N rats and B6C3F1 mice following 2-year inhalation exposure.

Authors:  Matthew D Stout; Ronald A Herbert; Grace E Kissling; Fernando Suarez; Joseph H Roycroft; Rajendra S Chhabra; John R Bucher
Journal:  Toxicology       Date:  2007-11-28       Impact factor: 4.221

8.  alpha 2u-globulin nephropathy and renal tumors in national toxicology program studies.

Authors:  Adriana M Doi; Georgette Hill; John Seely; James R Hailey; Grace Kissling; John R Bucher
Journal:  Toxicol Pathol       Date:  2007-06       Impact factor: 1.902

9.  A pilot study of nuclear instability in archived renal and upper urinary tract tumours with putative ochratoxin aetiology.

Authors:  Peter G Mantle; Cyrille Amerasinghe; Amy L Brown; Diana Herman; Thomas Horn; Thoger Krogh; Edward W Odell; Tomas Rosenbaum; Calin A Tatu
Journal:  Toxins (Basel)       Date:  2010-03-09       Impact factor: 4.546

10.  Health risk assessment of ochratoxin A for all age-sex strata in a market economy.

Authors:  T Kuiper-Goodman; C Hilts; S M Billiard; Y Kiparissis; I D K Richard; S Hayward
Journal:  Food Addit Contam Part A Chem Anal Control Expo Risk Assess       Date:  2010-02
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