Active clinical trials for "Coronary Disease"

The purpose of the registry is to assess results of combined operative and catheter based (hybrid procedure) treatment of patients with significant coronary artery disease using essential clinical and angiographic parameters. Based on existing literature we expect the results of coronary artery bypass grafting of the anterior descendent coronary artery (LAD), segment 1 and 2, using the so-called mammary artery graft, to be superior to stent treatment of the same artery. At the same time a catheter based intervention using balloon, bare metal stents (BMS) or drug eluting stents (DES) seems to be a better treatment that a saphenous vein graft for other coronary arteries than the LAD. I.e. the right coronary artery (RCA) and the left circumflex coronary artery (CX). Therefore, we expect a combination of the mentioned surgical and catheter based techniques to be a better treatment than bypass operation or catheter based intervention alone.

The purpose of this study is to evaluate optimal duration of antiplatelet therapy after Bioresorbable Vascular Scaffold implantation to reduce late coronary arterial thrombotic events.

BIOFLOW-DAPT is a prospective, multi-center, international, two-arm randomized controlled clinical study. A total of 1'948 subjects will be randomized 1:1 to receive either Orsiro Mission or Resolute Onyx. After index procedure, all patients will receive DAPT (ASA + P2Y12 inhibitor) for 30 days, followed by monotherapy with either P2Y12 inhibitor or ASA only until the end of the study. Clinical follow-up visits will be scheduled at 1, 6 and 12 months post-procedure.

The aim of the study is to investigate if lesion preparation with a ScoreFlex balloon compared to a standard non-compliant balloon improve vascular healing and minimize lumen reduction after implantation of a Magmaris bioresorbable scaffold.

Due to the lack of randomized controlled trials, the best follow-up strategy of asymptomatic patients after coronary artery revascularization is controversial. A systematic screening of silent myocardial ischemia may help prevent a major acute cardiac event. However, systematic screening strategy is costly and there is currently no evidence that repeated revascularization improve survival. Moreover, stress testing per se or additional procedures which can be performed with regard of stress testing results can cause unexpected complications. ARCACHON is a national, multicenter, randomized, open label trial, that will evaluate the non-inferiority of a clinical follow-up as compared to a systematic stress testing strategy after coronary revascularization.

The purpose of this study is to assess whether the use of physiology parameters as guidance post-percutaneous coronary interventions (PCI) is associated with less risks of target vessel failure (TVF) and angina-related events than standard angiographic guidance.

Randomized controlled trial to determinate if the physiological iFR pullback evaluation with Syncvision software (intervention group) could be useful in the reduction of stent length implanted, with the potencial benefit in terms of MACEs reduction at follow-up with respect to angiographic guiding of percutaneous coronary intervention (control group).

The aim of the DYNAMITE study is to investigate the (a) acute procedural and (b) 9-month follow-up performance of DynamX Drug-Eluting Coronary Bioadaptor System implantation in complex coronary lesions.

Ischemic heart disease (IHD) leads the global mortality statistics. Atherosclerotic plaques in coronary arteries hallmark IHD, drive hypoxia, and may rupture to result in myocardial infarction (MI) and death of contractile cardiac muscle, which is eventually replaced by a scar. Depending on the extent of the damage, dysbalanced cardiac workload often leads to emergence of heart failure (HF). The atrial appendages, enriched with active endocrine and paracrine cardiac cells, has been characterized to contain cells promising in stimulating cardiac regenerative healing. In this AAMS2 randomized controlled and double-blinded trial, we use the patient's own tissue from the right atrial appendage (RAA) for therapy. A piece from the RAA can be safely harvested upon the set-up of the heart and lung machine at the beginning of coronary artery bypass (CABG) surgery. In the AAMS2 trial, a piece of the RAA tissue is processed and utilized as epicardially transplanted atrial appendage micrografts (AAMs) for CABG-support therapy. In our preclinical evaluation, epicardial AAMs transplantation after MI attenuated scarring and improved cardiac function. Proteomics suggested an AAMs-induced glycolytic metabolism, a process associated with an increased regenerative capacity of myocardium. In an open-label clinical trial, we have demonstrated the safety and feasibility of AAMs therapy. Moreover, as this study suggested increased thickness of the viable myocardium in the scarred area, it also provided the first indication of therapeutic benefit. Based on randomization with estimated enrolment of a total of 50 patients with 1:1 group allocation ratio, the piece of RAA tissue is either perioperatively processed to AAMs or cryostored. The AAMs, embedded in a fibrin matrix gel, are placed on an extracellular matrix sheet (ECM), which is then epicardially sutured in place. The location is determined by preoperative late gadolinium enhancement cardiac magnetic resonance imaging (LGE-CMRI) to pinpoint the ischemic scar. Study blood samples, transthoracic echocardiography (TTE), and LGE-CMRI are performed before and at 6-month follow-up after the surgery. The trial's primary endpoints focus on changes in cardiac fibrosis as evaluated by LGE-CMRI and circulating levels of N-terminal prohormone of brain natriuretic peptide (NT-proBNP). Secondary endpoints center on other efficacy parameters, as well as both safety and feasibility of the therapy.

CAD is a leading cause of mortality in Europe. cCTA is recommended to rule out obstructive CAD, but, in most patients, it shows non-obstructive CAD. The management of these patients is unclear due to lack of reproducible quantitative measurement, beyond stenosis severity, capable to assess the risk of disease progression towards developing MACEs. To improve identification and phenotypization of patients at high risk of disease progression, we propose the application of artificial intelligence algorithms to cCTA images to automatically extract periluminal radiomics features to characterize the atherosclerotic process. By leveraging machine-learning empowered radiomics we aim to improve patients' risk stratification in a robust, quantitative and reproducible fashion. By developing a novel quantitative AI based cCTA measure, we expect to provide a risk score capable to identify patients who can benefit of a more aggressive medical treatment and management, thus improving outcome