Abstract

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  • Anabolic effects of fluoride on bone

    Fluoride exerts a biphasic action at the level of osteoblasts, on bone mineral, on bone structure and function, and in the treatment of osteoporosis. At low circulating concentrations, skeletal uptake of fluoride is limited and the effects are beneficial. At higher concentrations and greater skeletal uptake, fluoride may cause the

  • Histopathological assessment of endemic skeletal fluorosis

    Nine patients with skeletal fluorosis were subjected to iliac crest biopsy because they presented with stiffness and bone pains. The histopathological findings are correlated with the clinical course, X-ray and laboratory data. All but one of the patients showed an increase in bone surfaces lined by osteoid and in these

  • Bone quality in fluoride-exposed populations: A novel application of the ultrasonic method.

    Highlights A novel ultrasonic bone quality biomarker was tested in a population with low to high exposure to F.- Negative associations were found between F- exposure and bone quality Decreased bone quality reflects net bone loss, abnormal mineralization and altered collagen. The finding highlights that F- exposure has complex

  • Effects of different regimens of sodium fluoride treatment for osteoporosis on the structure, remodeling and mineralization of bone.

    We compared initial and final bone histomorphometric findings in 66 osteoporotic patients treated with sodium fluoride (NaF) according to three regimens, and in 7 osteoporotic patients who did not receive NaF. Fourteen patients received continuous NaF 75 mg/day (high-dose) with calcium 1500 mg/day for a mean of 41 months. Twenty-six

  • The effects of short-term fluoride ingestion on bone formation and resorption in the rat femur

    The femurs from rats given 120 ppm fluoride in their drinking water for 4 weeks were examined with histological, histochemical, and radiographic methods. Blood removed from the rats prior to sacrifice was analyzed for calcium, phosphorus, and alkaline phosphatase. Results of this study indicated that the ingestion of fluoride produced

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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

  • Fluoride Increases Osteoid Content of Bone

    Fluoride's ability to increase the osteoid content of bone is now undisputed. Osteoid is an unmineralized tissue in bone that, in the normal bone remodeling process, ultimately becomes calcified. As some observers have noted, "[t]he main histological change induced by fluoride is the increase of osteoid volume." (Arnala 1985). One way fluoride

  • 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.

  • Similarities between Skeletal Fluorosis and Renal Osteodystrophy

    It is quite possible, and indeed likely, that some kidney patients diagnosed with renal osteodystrophy are either suffering from skeletal fluorosis or their condition is being complicated/exacerbated by fluoride exposure.

  • Fluoride's Effect on Osteoblasts (Bone-Forming Cells)

    As noted by the National Research Council, "[p]erhaps the single clearest effect of fluoride on the skeleton is its stimulation of osteoblast proliferation." (NRC 2006). Osteoblasts are bone-forming cells. "Stimulatory effects of fluoride on osteoblasts result in formation of osteoid, which subsequently undergoes mineralization." (Fisher RL, et al. 1989). If the new