Abstract

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  • Fluoride distribution in rats during and after continuous infusion of Na18F.

    Rats were given Na18F as a radiotracer for F- at varying chemical dose rates by continuous i.v. infusion for 3 h. Blood fluoride was assessed 6-7 times over the infusion period, at the end of which the animals were sacrificed for determination of tissue fluoride distribution. At sublethal dosages, the

  • Fluoride effects on glutathione peroxidase and lipid peroxidation in rats.

    SUMMARY: Eight-week old male Wistar rats weighing 180 g were given sodium fluoride in drinking water at a concentration of 5 and 25 mg F–/L for 12 weeks. Control animals received tap water containing 0.3 mg F–/L. The activity of glutathione peroxidase and the concentration of malondialdehye (MDA) were determined in kidney,

  • Fluoride intoxication and possible changes in mitochondrial membrane microviscosity and organ histology in rats

    Fluoride exposure to rats can alter system physiology and biochemistry and results in abnormal organ function. Mitochondria, the power house of the cell can be act as a marker to identify fluoride mediated oxidative damage through changes of mitochondrial micro viscosity. Male albino rats were fed with 5 ppm, 10

  • Establishment of drug delivery system nanocapsulated with an antioxidant (+)-catechin hydrate and sodium meta borate chelator against sodium fluoride induced oxidative stress in rats

    Oxidative stress a major cause of fluoride induced toxicity and mitochondrial impairment in common in experimental rats during chronic exposure of fluoride. Attempts have been made in the present experiment to diminish oxidative damage, combined therapy with (+)-catechin hydrate (an antioxidant) and sodium meta borate (chelator) were used. Fluoride intoxication

  • A fatality due to ingestion of hydrofluoric acid.

    We report a fatal case of hydrofluoric acid (HF) ingestion with suicidal intent. Quantitation using an ion-selective electrode for fluoride in fresh bile, gastric contents, kidney, liver, skeletal muscle, urine, and vitreous humor yielded 6.5, 39.0, 10.0, 6.0, 4.5, 5.0, and 4.5 ppm, respectively. In addition to the unfixed specimens,

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  • Fluoride & Osteoarthritis

    While the osteoarthritic effects that occurred from fluoride exposure were once considered to be limited to those with skeletal fluorosis, recent research shows that fluoride can cause osteoarthritis in the absence of traditionally defined fluorosis. Conventional methods used for detecting skeletal fluorosis, therefore, will fail to detect the full range of people suffering from fluoride-induced osteoarthritis.

  • In Vitro Studies on Fluoride & Bone Strength

    The "in vitro" research on fluoride and bone strength confirms what has repeatedly been found in animal and human studies: the more fluoride a bone has, the weaker the bone becomes. In an in vitro bone study, the researcher directly exposes a human or animal bone to a fluoride solution

  • Fluoride's Direct Effects on Brain: Animal Studies

    The possibility that fluoride ingestion may impair intelligence and other indices of neurological function is supported by a vast body of animal research, including over 40 studies that have investigated fluoride's effects on brain quality in animals. As discussed by the National Research Council, the studies have consistently demonstrated that fluoride, at widely varying concentrations, is toxic to the brain.

  • NRC (2006): Fluoride's Neurotoxicity and Neurobehavioral Effects

    The NRC's analysis on fluoride and the brain.

  • Skeletal Fluorosis Causes Bones to be Brittle & Prone to Fracture

    It has been known since as the early as the 1930s that patients with skeletal fluorosis have bone that is more brittle and prone to fracture. More recently, however, researchers have found that fluoride can reduce bone strength before the onset of skeletal fluorosis. Included below are some of the