View clinical trials related to Anemia, Aplastic.
Filter by:This study is a prospective, single center phase II clinical trial in which patients with Severe Aplastic Anemia (SAA) ) will receive a haploidentical transplantation. The purpose of this study is to learn more about newer methods of transplanting blood forming cells donated by a family member that is not fully matched to the patient. This includes studying the effects of the chemotherapy, radiation, the transplanted cell product and additional white blood cell (lymphocyte) infusions on the patient's body, disease and overall survival. The primary objective is to assess the rate of engraftment at 30 days and overall survival (OS) and event free survival (EFS) at 1 year post-hematopoietic cell transplantation (HCT). Primary Objectives - To estimate the rate of engraftment at 30 days after TCR αβ+ T-cell-depleted graft infusion in patients receiving a single dose of post graft infusion cyclophosphamide. - To estimate the overall survival and event free survival at 1-year post transplantation. Secondary Objectives - To calculate the incidence of acute and chronic GVHD after HCT. - To calculate the rate of secondary graft rejection at 1-year post transplantation - To calculate the cumulative incidence of viral reactivation (CMV, EBV and adenovirus). - To describe the immune reconstitution after TCR αβ+ T-cell-depleted graft infusion at 1 month, 3 months, 6 months, 9 months, and 1 year. Exploratory Objectives - To longitudinally assess the phenotype and epigenetic profile of T-cells in SAA patients receiving HCT for SAA. - To assess the phenotype and epigenetic profile of T-cells in DLI administered to SAA patients post HCT. - To longitudinally assess CD8 T cell differentiation status in SAA patients using an epigenetic atlas of human CD8 T cell differentiation. - To examine the effector functions and proliferative capacity of CD8 T cells isolated from SAA patients before and after DLI. - Quantify donor derived Treg cells at different time points in patients received HCT. - Determine Treg activation status at different stages after HCT. - Are specific features of the DLI product associated with particular immune repertoire profiles post-transplant? - How does the diversity and functional profile of the DLI product alter the response to pathogens in the recipient? - Do baseline features of the recipient's innate and adaptive immune cells correlate with post-transplant immune repertoires and response profiles?
This is an open label, prospective Pilot interventional study will investigate the safety and efficacy of Romiplostim, thrombopoietin (TPO) mimetic, in children (ages: 0 to 21 years) with broad scope of bone marrow failure disorders including acquired and inherited conditions as a first line of therapy along with standard of care.
This phase Ib/II trial studies the side effects and best dose of ibrutinib and how well it works in treating patients with COVID-19 requiring hospitalization. Ibrutinib may help improve COVID-19 symptoms by lessening the inflammatory response in the lungs, while preserving overall immune function. This may reduce the need to be on a ventilator to help with breathing.
Background: Severe aplastic anemia (SAA) is a form of bone marrow failure. It usually results from a cytotoxic T cell attack on the marrow stem cell. Two treatments can be used for most people with SAA. One is allogeneic hematopoietic stem cell transplant (HSCT). The other is immunosuppressive treatment (IST). For people who are treated with IST, relapse can occur. If this happens, they can have HSCT or be re-treated with IST. The two most common IST regimes used for relapsed SAA are rabbit ATG (rATG) and alemtuzumab. Both rATG and alemtuzumab have similar response rates and survival rates. There is not much long-term data on people who need repeat IST treatment due to relapse. Researchers want to look at data from past studies to learn more. Objective: To compare the data of relapsed SAA patients between those who received alemtuzumab versus rATG for repeat IST treatment. Eligibility: Adults and children with SAA who were enrolled on NHLBI protocol 12-H-0150, 06-H-0034, 05-H-0242, 03-H-0249, 03-H-0193, 00-H-0032, or 90-H-0146 Design: This study uses data from past studies. The participants in those studies have allowed their data to be used in future research. Researchers will review participants medical records. They will collect clinical data, such as notes, test results, and imaging scans. They will also collect the research data gathered as part of the original study. Researchers will enter the data into an in-house database. It is password protected. All data will be kept in secure network drives or in secure sites. Other studies may be added in the future....
Background: Severe aplastic anemia (SAA) is a form of bone marrow failure. It usually results from a cytotoxic T cell attack on the marrow stem cell. Two treatments can be used for SAA. One is allogeneic hematopoietic stem cell transplant (HSCT). The other is immunosuppressive treatment (IST). In most cases, HSCT or IST works. But for some people, clonal evolution occurs after IST. One of the most common forms of clonal evolution is chromosome 7 abnormalities. These have a poor prognosis. HSCT can be used to treat them. Researchers do not know why clonal evolution happens. They want to look at data from past studies to learn more. Objective: To compare the data of people with SAA who developed chromosome 7 abnormalities between those who ultimately received HSCT versus those who received chemotherapy alone or supportive care. Eligibility: Adults and children with SAA who were enrolled on NHLBI protocol 12-H-0150, 06-H-0034, 03-H-0249, 03-H-0193, 00-H-0032, or 90-H-0146 Design: This study uses data from past studies. The participants in those studies have allowed their data to be used in future research. Researchers will review participants medical records. They will collect clinical data, such as notes, test results, and imaging scans. They will also collect the research data gathered as part of the original study. Researchers will enter the data into an in-house database. It is password protected. All data will be kept in secure network drives or in sites that comply with NIH security rules. Other studies may be added in the future.
This study is researching an experimental drug called REGN7257 (called "study drug"). The study is focused on patients who have severe aplastic anemia (SAA), a disease of the bone marrow resulting in an impairment of the production of blood cells. The main purpose of this two-part study (Part A and Part B) is to test how safe and tolerable REGN7257 is in patients with SAA in which other Immunosuppressive therapies (ISTs) have not worked well. The study is looking at several other research questions to better understand the following properties of REGN7257: - Side effects that may be experienced by participants taking REGN7257 - How REGN7257 works in the body - How much REGN7257 is present in blood after dosing - If REGN7257 works to raise levels of certain blood counts after treatment - How quickly REGN7257 works to raise levels of certain blood counts - In patients for whom REGN7257 works to raise levels of certain blood counts after treatment, how many continue to show such a response throughout the study - If REGN7257 works to lower the number of platelet and red blood cell transfusions needed - How REGN7257 changes immune cell counts and composition - How the body reacts to REGN7257 and if it produces proteins that bind to REGN7257 (this would be called the formation of anti-drug antibodies [ADA])
This is a randomized, open-label, phase II study to compare the efficacy of eltrombopag combined with tacrolimus to eltrombopag alone in Chinese subjects with refractory or relapsed aplastic anemia. The safety would also be evaluated. Patients would be randomized to receive eltrombopag alone or eltrombopag combined with tacrolimus. Treatment with eltrombopag will be started at 25 mg/day and increased by 25 mg/day every 2 weeks according to the platelet count up to 150 mg/day, or the best response was achieved. Tacrolimus will be given at 1mg bid with the target trough concentration of 4-10 ng/mL throughout the study. The hematological response rate and safety will be recorded and compared at 3, 6 months and 1 year after starting the study treatment (Week 13, 26 and 52).
This research is being done to learn if a new type of haploidentical transplantation using TCR alpha beta and CD19 depleted stem cell graft from the donor is safe and effective to treat the patient's underlying condition. This study will use stem cells obtained via peripheral blood or bone marrow from parent or other half-matched family member donor. These will be processed through a special device called CliniMACS, which is considered investigational.
The purpose of the study is to assess the efficacy and safety of PF-06462700 administered intravenously at 40 mg/kg/day for 4 days in Japanese participants with moderate and above aplastic anemia for making an approval application in Japan.
To date, allogeneic haematopoietic stem cell transplantation (aHSCT) is the only curative treatment for many paediatric and young adult haematological pathologies (acute leukaemia, myelodysplastic syndromes, haemoglobinopathies, bone marrow aplasia, severe combined immunodeficiency). Despite the major therapeutic progress made over the last 50 years, particularly in terms of supportive care, post-transplant morbidity and mortality remains high. Infectious complications, whose incidence varies between 30 and 60%, are the first cause of mortality in the immediate post-transplant period. In order to protect the patient from the occurrence of severe infectious episodes, aHSCTmust be performed in a highly protected environment (positive pressure chambers). This has implications for the experience and impact of hospitalization on the patient and family. This is particularly true in paediatrics, whether in children, adolescents or young adults, where it is not only the patient's quality of life that is at stake, but also their emotional and psychomotor development. In these patients, prolonged hospitalization (at least 6 weeks) in a sterile room will be responsible for physical deconditioning accompanied by a decrease in muscle mass, itself concomitant with undernutrition, and an increase in sedentary lifestyle. This prolonged hospitalisation in a sterile room, associated with myeloablative treatments, is therefore the cause of social isolation of patients, but it is also often synonymous with physical inactivity leading to a rapid decrease in physical condition, quality of life and an increase in fatigue. Today, the benefits of physical activity (PA) during and after cancer treatment have been widely demonstrated. The objective is to evaluate the feasibility of an adapted physical activity program during the isolation phase for achieving aHSCT in children, adolescents and young adults. This is a prospective, interventional, monocentric cohort study conducted at the Institute of Paediatric Haematology and Oncology in Lyon. The intervention will take place during the isolation phase and consists of an adapted physical activity (APA) program defined at inclusion, integrating supervised sessions with an APA teacher, as well as autonomous sessions. The program is individualized according to age, aerobic capacity, and PA preferences. Sessions are also tailored to the biological, psychological, and social parameters of patients. The total duration of the intervention is 3 months. To date, no PA studies have been performed in patients under 21 years of age requiring aGCSH during the sterile isolation phase. EVAADE will therefore be the first study in this population to offer an innovative procedure with a connected device.