Vaccines Treatment Options in Maryland

Human respiratory syncytial virus (RSV) is a common cause of upper respiratory tract illnesses as well as more severe lower respiratory illnesses, including bronchiolitis and pneumonia. RSV affects almost all children within the first 2 years of life. This study will evaluate the safety and immune response to the RSV MEDI ΔM2-2 vaccine among adults, RSV-seropositive children, and RSV-seronegative infants and children. Read Less

The purpose of this study is to compare 2 experimental vaccines that could provide protection from the disease, tularemia. This research will compare the ability of the vaccines to cause the body to develop an immune (protective) response and obtain more information on side effects of the vaccines. About 220 male and non-pregnant female volunteers 18 to 45 years will participate. Volunteers will be assigned to 1 of 2 vaccine groups by chance. About half of the volunteers will be placed in the DVC-LVS vaccine group and half of volunteers will be placed in the USAMRIID-LVS vaccine group. Additionally, both groups will receive an injection of placebo (inactive salt water). Study procedures include physical exam and blood and urine samples. Evaluation of the vaccination sites will be performed as well as blood samples to measure the body's response to the vaccine. Participants will be involved in the study for about 6 months. Read Less

Respiratory syncytial virus (RSV) is a common cause of illness in infants and children around the world. This study will evaluate the safety and immune response to an RSV vaccine in RSV-seronegative infants and children. This study is a companion study to CIR 291. Read Less

Background: * Melanoma antigen recognized by T cells (MART-1) is a gene that is present in melanoma cells. * This study tests an experimental treatment that uses the patient's own lymphocytes (type of white blood cell), which are specially selected and genetically modified with a gene called anti-MART-1 transduced cells (F5) to target and destroy their tumor. Some of the cells are given as an infusion and others are given as a vaccine. * The anti-MART-1 F5 cells are currently being studied in other patients in combination with chemotherapy and IL-2 (aldesleukin) therapy. Objectives: -To determine if the anti-MART-1 F5 treatment can improve the immune system's ability to shrink tumors and to prevent melanoma from recurring. Eligibility: * Patients 18 years of age and older whose melanoma has been removed and are currently disease-free, but who are at risk for recurrence. * Patients who do not have ocular or mucosal melanoma. * Patients with tissue type human leukocyte antigens (HLA-A)\*0201). Design: * Workup: Patients have scans, x-rays, laboratory tests, other tests as needed and leukapheresis, a procedure for collecting white cells to modify in the laboratory and later reinfuse into the patient. * Patients are assigned to one of four study groups: * Group 1 receives anti-MART-1 F5 cells by 30-minute infusion through a vein on day 0. * Group 2 receives anti-MART-1 F5 cells on day 0 followed by injections of MART-1 vaccine, which contains MART-1 and an oil-based liquid called Montanide ISA-51 VG. The vaccine is repeated on day 30. * Group 3 receives anti-MART-1 F5 cells on day 0 followed by injections of low-dose IL-2 for 5 days (days 0-4). * Group 4 receives anti-MART-1 F5 cells on day 0 followed by MART-1 vaccine and low-dose IL-2 for 5 days. The vaccine is repeated on day 30. * Recovery: Patients are monitored closely and given medicines to prevent or treat any side effects of therapy. * Leukapheresis: Patients undergo leukapheresis at 1 and 3 months after therapy to collect cells to examine the effects of the treatment on the immune system. * Follow-up: Patients return to National Institutes of Health (NIH) 35 days after completing treatment and then at 3 months and every 6 months thereafter for evaluation with a physical examination, review of side effects, laboratory tests and scans. They have blood tests at 3, 6 and 12 months after treatment and then once a year after that. A biopsy may be requested after treatment ends to examine the effects of treatment on the immune system. All patients return to NIH for a physical examination once a year for 5 years and then complete a follow-up questionnaire for another 10 years. Read Less

Dengue viruses can cause dengue fever and other serious health conditions, primarily affecting people living in tropical regions of the world. This study will evaluate the safety and immune responses to two formulations of a tetravalent dengue virus vaccine in healthy adults. Read Less

Dengue viruses can cause dengue fever and other serious health conditions, primarily affecting people living in tropical regions of the world. This study will evaluate the safety and immune responses to two formulations of a tetravalent dengue virus vaccine in healthy adults who have previously been infected with a dengue virus or other flavivirus or have previously received a flavivirus vaccine. Read Less

The purpose of this study is to measure how long the improvement in the immune system lasts in older people after they have been vaccinated, and to examine the immune response in older people who get vaccinated a second time. Read Less

The aim of the study is to evaluate a prototype quadrivalent influenza vaccine (QIV), the licensed 2010-2011 trivalent influenza vaccine (TIV) containing the primary B strain (B1), and the investigational TIV containing the alternate B (B2) strain in children. Primary Objective: To demonstrate non-inferiority of antibody responses to QIV compared with licensed 2010-2011 TIV (containing the primary B strain) and investigational TIV (containing the alternate B strain) as assessed by geometric mean titer (GMT) ratios for each of the four virus strains separately among children aged 6 months to less than 9 years of age Secondary Objective: To demonstrate superiority of antibody responses to each B strain in QIV compared with antibody titers following vaccination with the TIV that does not contain the corresponding B strain, as assessed by GMT ratios and seroconversion rates. Observational Objective: To describe the safety profile of QIV among subjects 6 months to less than 9 years of age, as assessed by solicited injection site and systemic adverse events (AEs) collected for 7 days post-vaccination, unsolicited adverse events collected from 21 days post-vaccination, and adverse events of special interest and serious adverse events (SAEs) collected from Visit 1 to Visit 2. Read Less

Randomized, double blind, multi-site, study in healthy adults, comparing safety and immunogenicity of two dosage levels of Norwalk VLP Vaccine with adjuvant/excipients and with placebo controls Primary Objective: * Safety as determined by occurrence of local intranasal symptoms or other symptoms as reported by a self-administered memory aid for 7 days after each vaccination and hematology, blood chemistry and physical examinations performed by the clinical research staff * Subjects will also be monitored for Serious Adverse Events (SAEs), and onset of any new medical conditions for 180 days following the last study vaccinations (Day 201). Secondary Objectives Evaluations of immunogenicity as determined by: * Geometric mean titers and seroconversion rate of serum anti- Norwalk VLP IgG and IgA * Stimulation of anti-Norwalk VLP IgA antibody secreting cells (ASC) * Presence of antigen specific memory B-cell response Cells will be collected and stored for possible future evaluation of Norwalk VLP-specific cell-mediated immune (CMI) responses Study Hypothesis: The incidence of adverse events after intranasal Norwalk VLP Vaccine will be the same as the incidence of adverse events after intranasal adjuvant/excipients alone. Norwalk VLP Vaccine and adjuvant/excipients will have a higher incidence of mild to moderate nasal adverse events compared to placebo but similar incidence of other adverse events. Two doses of the 100 µg of Norwalk VLP Vaccine will be more immunogenic than two doses of 50 µg of Norwalk VLP Vaccine. The post-vaccination serum antibody responses, the number of antibody secreting cells (ASC) and IgG and IgA memory B-cell responses directed against Norwalk Virus antigen will be increased after Norwalk VLP Vaccine compared to adjuvant/excipients and to placebo. Read Less

RATIONALE: Vaccines made from prostate cancer cells may make the body build an immune response to kill tumor cells. Colony-stimulating factors such as sargramostim may increase the number of immune cells found in bone marrow or peripheral blood. Interleukin-2 may stimulate a person's white blood cells to kill prostate cancer cells. Androgens can stimulate the growth of prostate cancer cells. Hormone therapy using nilutamide may fight prostate cancer by reducing the production of androgens. It is not yet known which treatment regimen is more effective for treating prostate cancer. PURPOSE: Randomized phase II trial to compare the effectiveness of vaccine therapy plus sargramostim and interleukin-2 with that of nilutamide alone in treating patients who have prostate cancer that has not responded to hormone therapy. Read Less

Pneumococcal disease is a serious bacterial infection that can affect different parts of the body, including the lungs. People with chronic illnesses, such as chronic obstructive pulmonary disease (COPD), have a greater risk of developing pneumonia and meningitis as a result of pneumococcal disease. This study will compare the immune response to two types of pneumococcal vaccines in adults with COPD. Read Less

The purpose of this study is to evaluate the production of antibodies to a new conjugate vaccine, NmVac4-A/C/Y/W-135-DT, as a measure of vaccine effectiveness, compared to the production of antibodies to a similar, licensed meningococcal (Groups A, C, Y, W-135) polysaccharide diphtheria toxoid (DT) conjugate vaccine. The investigators will also evaluate the safety of NmVac4-A/C/Y/W-135-DT™ conjugate vaccine compared to the licensed vaccine. The hypothesis is that the test vaccine is comparable to the licensed active control vaccine. Read Less