Abstract
Fluoride induces the overproduction of free radicals, which might in turn affect various biochemical parameters. Therefore, the aim of this study was to elucidate the role of N-acetylcysteine (NAC) in decreasing fluoride-induced oxidative stress. The fluoride intoxicated (0.002; 0.082; 0.164mmol/l) rat hepatocytes was pre-treated (60min) and simultaneously treated with NAC (1mmol/l). The resulting levels of lactate dehydrogenase (LDH), superoxide dismutase (SOD), glutathione peroxidase (GPx), glutathione reductase (GR) and intracellular reduced glutathione (GSH) were measured along with the total antioxidant status (TAS) to determine whether NAC treatment reduced cell damage and/or the antioxidant state. These results suggest that NAC pre-treatment provides protection against fluoride-induced oxidative stress in hepatocytes.
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In vivo protective effects of quercetin against sodium fluoride-induced oxidative stress in the hepatic tissue
The protective effects of quercetin against sodium fluoride induced oxidative stress were examined in rat’s liver. Rats were divided into five groups. The first group served as normal group that was treated with standard diet. The second group was intoxicated with sodium fluoride (600 ppm) through drinking water for 1 week. The
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Protective effects of blackberry and quercetin on sodium fluoride-induced oxidative stress and histological changes in the hepatic, renal, testis and brain tissue of male rat
BACKGROUND: Sodium fluoride (NaF) intoxication is associated with oxidative stress and altered antioxidant defense mechanism. The present study was carried out to evaluate the potential protective role of blackberry and quercetin (Q) against NaF-induced oxidative stress and histological changes in liver, kidney, testis and brain tissues of rats. METHODS: The rats
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Ameliorative effect of tamarind leaf on fluoride-induced metabolic alterations
OBJECTIVES: Fluoride is a serious health hazard across several nations, and chronic intake of fluoride deranges the carbohydrate, lipid and antioxidant metabolism in general. As there are limited remedial measures to prevent fluorosis, we investigated the role of tamarind leaf as a food supplement in restoration of carbohydrate, lipid and
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Influence of methionine upon the concentration of malondialdehyde in the tissues and blood of rats exposed to sodium fluoride
The aim of the study has been to determine the influence upon the kidney, liver, and the blood prooxidative system, exercised by administration of methionine (Met), under conditions of oxidative stress induced by sodium fluoride (NaF).The experiment was carried out on Wistar FL rats (adult females) that, for 35 days,
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Silymarin and quercetin abrogates fluoride induced oxidative stress and toxic effects in rats
Flavonoids have been extensively studied and reported to possess widespread biological activities, including antioxidant and chelating properties. They have been proposed to exert beneficial effects in a multitude of diseased states generated due to oxidative stress. Therapeutic efficacy of oral administration of Silymarin and Quercetin after fluoride exposure (50 ppm
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Nutrient Deficiencies Enhance Fluoride Toxicity
It has been known since the 1930s that poor nutrition enhances the toxicity of fluoride. As discussed below, nutrient deficiencies have been specifically linked to increased susceptibility to fluoride-induced tooth damage (dental fluorosis), bone damage (osteomalacia), neurotoxicity (reduced intelligence), and mutagenicity. The nutrients of primary importance appear to be calcium,
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Fluoride & Oxidative Stress
A vast body of research demonstrates that fluoride exposure increases oxidative stress. Based on this research, it is believed that fluoride-induced oxidative stress is a key mechanism underlying the various toxic effects associated with fluoride exposure. It is also well established that fluoride's toxic effects can be ameliorated by exposure
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Fluoride Exposure Increases Metabolic Requirement for Magnesium
Fluoride's toxicity is significantly enhanced in the presence of nutritional deficiencies. Similarly, fluoride exposure increases the body's requirement for certain nutrients. An individual with a high intake of fluoride, for example, will need a proportional increase in calcium to avoid the mineralization defects (e.g., osteomalacia) that fluoride causes to bone
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Fluoride & Rickets
One of fluoride's most well-defined effects on bone tissue is it's ability to increase the osteoid (unmineralized bone) content of bone. When bones have too much osteoid, they become soft and prone to fracture -- a condition known as osteomalacia. When osteomalacia develops during childhood, it is called "rickets." The potential for fluoride
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Fluoride Exposure Increases Metabolic Requirement for Calcium & Vitamin D
It is well known that individuals with nutrient deficiencies are more susceptible to fluoride toxicity, including fluoride's bone effects. As discussed in the following studies, fluoride increases the skeleton's need for calcium (and vitamin D) by increasing the amount of unmineralized tissue (osteoid) in the bone. When insufficient calcium and
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