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Hyposalivation clinical trials

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NCT ID: NCT03601962 Terminated - Xerostomia Clinical Trials

Effects of Aqualief® in Patients With Xerostomia as Consequence of Radiotherapy for Head and Neck Cancer

Start date: July 31, 2017
Phase: N/A
Study type: Interventional

The treatment of xerostomia is aimed to increase existing saliva flow or replace lost secretions, the control of the state of oral health, the control of dental caries, and the treatment of possible infections. Therapy options in xerostomia depend on the presence of residual secretion or the absence of it. When residual secretory capacity is present, it is advisable to regularly stimulate the salivary glands by mechanical or gustatory stimuli as supportive oral care. Aqualief® is a food supplement based on carnosine and hibiscus. These two ingredients are mixed in specific proportions to form a pH buffering system which maintains the pH of the oral cavity at the proper value which is required for the regular secretion of saliva.

NCT ID: NCT01165970 Terminated - Hyposalivation Clinical Trials

Effect of Saliva Substitutes on Dental Hard Tissues in Situ

T-01
Start date: January 2009
Phase: Phase 2/Phase 3
Study type: Interventional

Symptomatic hyposalivation is associated not only with Sjögren`s syndrome or salivary gland hypofunction in elderly patients, but also with medications containing antimuscarinic drugs, chemo radiotherapy for head and neck carcinomas, and psychiatric disorders (Atkinson & Ava, 1994, Kielbassa et al., 2006). Human saliva possesses important physiological functions in protecting and moistening the oral hard and soft tissues (Piotrowski et al., 1992, ). Consequently, decreasing salivation causes oral dysfunction and promotes severe oral side effects (reduced antibacterial function, lack of remineralisation, reduced buffer capacity) (Tschoppe et al., 2010a). These have been identified as being responsible for the rapid destruction of the dentition (Willich et al., 1988). Saliva substitutes are frequently applied for relieving the symptoms in patients suffering from hyposalivation (Hahnel et al., 2009, Nieuw Amerongen & Veerman, 2003, Vissink et al., 2004). Besides the moistening and lubrication of the oral mucosa, these products should also protect dental hard tissues. However, in vitro studies revealed that some marketed products have only a neutral or even a demineralising potential on enamel as well as on dentin (Kielbassa et al., 2001, Meyer-Lueckel et al., 2002, Smith et al., 2001, Tschoppe et al., 2009). Inorganic ions such as calcium, phosphates, and fluorides have been added to saliva substitutes in order to enhance their remineralising property or minimize their demineralising potential (Tschoppe et al., 2009). Furthermore, as most patients suffering from hyposalivation are elderly people, recessions and subsequently exposed dentin surfaces are very common. Since dentin is not as acid resistant as enamel, an earlier and more severe demineralisation can be expected (Saunders & Meyerowitz, 2005). Therefore, the current in situ study was performed to assess the effects of a demineralising and a remineralising saliva substitutes on the mineralisation of dental hard tissues. It was hypothesized that storage in Glandosane(cell pharm, Hannover, Germany) would not result in pronounced mineral loss of dentin specimens, and that storage in Saliva natura would not result in enhanced remineralisation when combined with a remineralising artificial saliva (Saliva natura supersaturated with respect to relevant calcium phosphates; medac, Hamburg, Germany) (H0). These null hypotheses were tested against the alternative hypothesis of a difference.