View clinical trials related to Pulmonary Arterial Hypertension.
Filter by:Assessment of the prognostic value of the estimation of plasma volume or its variation in patients with pulmonary arterial hypertension (PAH) or chronic thromboembolic pulmonary hypertension (CTEPH) after acute right heart failure.
This is a prospective, single-arm, single-center, explorative clinical trial to evaluate the effect of Rituximab on disease progression in subjects with SLE-PAH receiving concurrent stable-dose standard medical therapy. The study will focus on assessment of clinical response and safety measures longitudinally. In addition, the biomarker of treatment efficacy with Rituximab and pathogenic autoantibody response in this disease will be investigated.
The goal of this clinical trial is to evaluate the capacity of implantable/remote technology for early evaluation of drug therapies in patients with pulmonary arterial hypertension (PAH). The main question it aims to answer is whether structured changes in clinical therapy will be detectable using implanted regulatory approved devices. Participants will will be implanted with approved medical devices and will enter into a study of approved drugs to assess physiology, activity and patient reported quality-of-life (QoL) outcomes. Researchers will compare two therapeutic strategies in each individual patient to see if the study design provides enough evidence to personalise drug treatment plans
This local Phase 3 study is planned to confirm the efficacy and safety in Japanese PAH participants. The primary population of this study is Japanese PAH participants with World Health Organization Functional Class (WHO FC) II or III while the study includes PAH participants with WHO FC I or IV as other populations. There are no hypotheses for this study.
The chief regulator of resistance in pulmonary arterial hypertension (PAH) is the small arteries. In the heart, the invasive measurement of the resistance of the small arteries has been shownto be safe, easy, reliable, and prognostic. This study is intended to translate prior work in heart arteries to the PAH space and invasively measure the resistance of the small arteries of the lung (pulmonary index of microcirculatory resistance [PIMR]) and the coronary artery supplying the right ventricle (acute marginal of the RCA; RV-IMR). Importantly, these measurements will be made during standard of care cardiac catheterizations (right heart catheterization [RHC] +/- left heart catheterization). The correlation between these new indices and the standard ones measured during RHC typically used to determine the severity of pulmonary hypertension will be analyzed. In addition, among newly diagnosed patients, the study will evaluate how these indices change 6 months after starting treatment. Finally, the association of these indices with clinical outcomes at 1 year will be assessed. The findings from this study may deliver an immediate impact to patient care by identifying a new metric to help better identify those who may benefit from a more intensive, personalized treatment regimen.
Pulmonary Arterial Hypertension is a progressive disease that has no cure. Patients die young and are limited in their daily activity. Current treatments only treat the symptoms of the disease rather than the underlying cause. At least 1 in 5 patients has a change in a gene called the bone morphogenetic type 2 protein (or BMPR2). Extensive evidence supports the concept of addressing the reduced levels of the BMPR2 protein to reverse disease. Through work already undertaken by this group, two potential therapies which increase BMPR2 have been identified for use in a future randomised control trial. In order for a clinical trial to be informative we need an accurate way of measuring the protein or the effects of the protein (known as a biomarker). This study will use blood samples taken from 17 patients and 30 healthy participants over various time-points (2-5 visits over 5 weeks for healthy controls; 2 visits, approximately four months apart for patients). Laboratory work will help identify the best biomarkers for subsequent therapy studies. By defining the best biomarkers we can speed up the drug development in this rare disease.
The purpose of this study is to measure the long-term safety and efficacy profile of LTP001 in participants with pulmonary arterial hypertension (PAH). The study offers participants who had completed the CLTP001A12201 double-blind parent study in PAH an opportunity to receive LTP001 (whether they were on LTP001 or not). Unblinding of the treatment received in CLTP001A12201 is generally not needed, but can occur on request by the investigator.
The aim of this study is to determine whether there is an increase in the TSPO PET signal (measured with the radioligand [11C]PBR28) in the lungs of patients living with PAH relative to age matched controls. If so, TSPO PET may be a useful technique to non-invasively monitor response to therapy. To do this, we will perform 2 [11C]PBR28 PET scans. The first will quantify the total [11C]PBR28 PET signal. This signal is a combination of the specific signal (VS) and the nonspecific signal (VND). The second scan will be performed following dosing with an unlabelled TSPO ligand. By directly measuring the total [11C]PBR28 signal (scan 1) and the nonspecific [11C]PBR28 signal (scan 2) we can therefore calculate the specific [11C]PBR28 signal, and hence the amount of TSPO in the lung.
The purpose of this study is to learn what happens to macitentan and its active metabolite (aprocitentan) in the body of children aged between 1 month and 2 years.
Examine the efficacy of satralizumab in patients with pulmonary arterial hypertension (PAH) with immune-responsive phenotype serum interleukin-6 (IL-6) ≥ 2.73 pg/mL who have an inadequate response to existing drugs.