Active clinical trials for "Candidiasis"

In resource constrained societies and where HIV is a problem, oral thrush causes significant morbidity. In adults, ketoconazole is used and sometimes oral nystatin. Both drugs are relatively expensive compared to GV solution and ketoconazole has significant side effects especially in association with some of the treatments for HIV related problems. In children, either GV solutions or nystatin are used, GV is a fraction of the cost of nystatin. GV at 1% solution discolours the mouth (blue) and in the older child and adult would mark them out as having HIV infections. A much more dilute solution of GV has proved equally effective in vitro and would not carry the same cosmetic problem. In this study of children, the investigators have compared the 3 solutions, 1% GV, 0.00165% GV and nystatin oral drops - all masked so that they look the same - to see if GV is more effective than nystatin, and to see if the weaker solution of GV is as effective as the stronger solution.

The purpose of this study is to compare the safety and effectiveness of 2 treatments for thrush (a fungal infection of the mouth and throat) in HIV-positive patients. Fluconazole is a drug that is commonly used to treat thrush. SCH 56592 is a new drug that will be compared to fluconazole.

Fever and infection are serious complications of cancer treatment such as bone marrow transplant, especially when white blood cell counts are low. When the number of white blood cells is below 500, the person has a condition called neutropenia and has a high risk of developing an infection. At the first sign of fever, antibiotics are started. However, antibiotics do not kill fungus germs, and fungal infections may be difficult to treat. Thus, the prevention of fungal infections in this population is important. The only medicine approved for prevention of fungal infections is fluconazole, which prevents some but not all types of such infections. A new antifungal medication called FK463 works against more types of fungal infections than fluconazole does. This study will compare the effectiveness, safety, and tolerance of FK463 as compared with fluconazole. Eight hundred patients will be enrolled in this study. They will be randomly assigned to receive either fluconazole or FK463. Before the medicine is begun, a physical exam as well as a blood sample, mouth swab, urine sample, and chest x-ray will be done. The fluconazole or FK463 will be administered once a day for one hour into the bloodstream through a catheter in the vein. Blood tests will be taken twice a week. Cultures from the blood, mouth, and urine will be taken throughout the study. X-rays and CT scans will only be taken if a fungal infection is suspected. If fever develops, blood will be drawn to check for fungi. If fever and neutropenia continue for more than 4 days, FK463 or fluconazole will be stopped and a standard medication called amphotericin B will be started. Both FK463 and fluconazole will be administered until white blood cell count returns to greater than 500 (signifying recovery from neutropenia), or up to 42 days after transplantation. Patients will be evaluated 4 weeks after the medicine is stopped.

The objective of this study is to evaluate the efficacy, safety and toleration of voriconazole in the primary treatment of systemic or invasive fungal infections due to fungal pathogens for which there is no licensed therapy; and in the secondary treatment of systemic or invasive fungal infections in patients failing or intolerant to treatment with approved systemic antifungal agents. This trial is a Phase II multicenter, open label study investigating the utilization of voriconazole for the treatment of systemic or invasive fungal infections. Enrollment is targeted for 150 patients to be recruited from multiple centers. The patient population will consist of patients with proven, deeply invasive fungal infection for which there is no licensed therapy or if the patient is failing or intolerant to treatment with approved systemic antifungal agents. Voriconazole will be administered initially by a loading dose of 6 mg/kg q12 hours for the first two doses followed by 4 mg/kg q12 hours. Efficacy will be evaluated by clinical, radiological and microbiological response.

To determine the safety, toleration, and efficacy of fluconazole oral suspension in the treatment of esophageal candidiasis in immunocompromised patients, including those with AIDS.

To compare the safety, tolerance, and effectiveness of fluconazole and ketoconazole in the treatment of candidal esophagitis in immunocompromised patients.

To evaluate the safety and efficacy of itraconazole oral solution versus fluconazole tablets for the treatment of esophageal candidiasis in immunocompromised patients.

Anidulafungin is an antifungal agent of the echinocandin class which is highly active in vitro against fluconazole resistant Candida species. The efficacy of anidulafungin has demonstrated in various animal models of fluconazole-resistant mucosal disease; as well as, in Phase 2 Esophageal Candidiasis studies. This study is intended to offer patients with FRMC an alternate therapy with amphotericin B or with other agents whose efficacy and/or safety are inadequate in the treatment of this disease.

Anidulafungin may be effective for the treatment of invasive Candida infections. The purpose of the study is to find the balance between dose tolerance and effectiveness of several doses for the treatment of United States patients with invasive candidiasis.

This study will examine how children's bodies metabolize and eliminate the anti-fungal drug voriconazole. The results will yield information needed to make recommendations for safe and effective dosing of the drug in children. Children with reduced immune function-such as those receiving drugs for cancer treatment-are at high risk for serious fungal infections. Children between 2 and 12 years old who need treatment to prevent fungal infections may be eligible for this study. Candidates will be screened with a physical examination, eye examination, and blood and urine tests. Children in the study will be hospitalized for 21 days. They will receive voriconazole twice a day (every 12 hours) for 8 days, infused through a vein over a period of 1 to 2 hours. The dose will be determined based on the individual child's weight. Blood samples will be collected at various intervals before and after the infusions on days 1, 2, 4 and 8 to determine the amount of drug in the blood. On day 8, the child will have another physical and eye examination, as well as additional blood and urine tests. If additional treatment is required, voriconazole may be continued for up to day 21. (Children who require the drug for more than 21 days may receive it under another research protocol.) On the last day of treatment, the child will have another physical examination, and blood and urine tests. These procedures will be repeated again at 30 to 35 days following the last dose of drug. A small sample of blood will also be analyzed for genetic information related to the rate of metabolism of voriconazole-that is, how fast or slow it is cleared (eliminated) by the liver. Voriconazole is effective against several different fungi. It may protect children against serious fungal infections with fewer side effects than standard available therapy.