Active clinical trials for "Acute Kidney Injury"

Kidney diseases represent a global public health problem due to the aging of the population, the increasing prevalence of diabetes, hypertension, obesity and immune disorders. TNF-superfamily ligands are heterotrimeric transmembrane proteins with a molecular structure characterized by the presence of a TNF homology domain that binds to cysteine-rich regions of specific TNF-superfamily receptors. The tumor necrosis factor (TNF) superfamily consists of ligands and receptors that modulate adaptive immunity regulation, hematopoiesis, morphogenesis, as well as different disease states, including cancer and diabetes. DcR3 is found increased in a variety of cancer cells and various inflammatory tissues and is considered a potential biomarker to predict inflammatory disease progression and cancer metastasis. While increasing DcR3 expression may be possible to treat inflammatory diseases and enhance tissue repair, decreasing DcR3 expression may increase tumor apoptosis and suppress tumor growth in vivo. The study will be carried out with the prospective examination of patients without anuria and who developed Acute Kidney Injury or on the basis of Acute Kidney Disease on Chronic Kidney Disease. Sixty patients and 30 age- and gender matched control healthy individuals that accept enrollment in the study will be followed up by the Nephrology Department in Kırıkkale University Faculty of Medicine for 2 years. The aim of this study was to investigate the relationship between blood and urine DcR 3 levels on the effects of renal and patient prognosis in patients with Acute Kidney Injury as a predictor or an auxiliary test in prediction.

The purpose of this Ph2b study is to characterize the dose-response relationship and to evaluate the safety and efficacy of three different single doses of TIN816 in hospitalized adult participants in an intensive care setting with a diagnosis of sepsis-associated acute kidney injury (SA-AKI).

The ongoing COVID-19 pandemic caused high hospitalization and mortality rates especially in critically ill patients. Unfortunately, there is no present study with a large number of patients that would offer us clear answers on the treatment of ICU COVID-19 patients with adsorption filters, extracorporeal methods and the hemoperfusion method. The purpose of this registry study is to investigate the effectiveness and safety of the extracorporeal blood purification and hemoperfusion/hemadsorption filters in treating of critically ill COVID-19 patients.

To study the changes in the renal artery and renal vein with renal cortical and medullary microcirculatory blood flow in patients with sepsis; to study the relationship between renal arteriolar and renal vein with renal cortical and medullary microcirculatory blood flow and renal function; and to find the value of ultrasonographic assessment of renal blood flow indices for evaluating prognosis in patients with sepsis.

Intermittent hemodialysis (IHD) and continuous RRT (CRRT) provided as continuous hemofiltration or hemodiafiltration are the main RRT modalities in ICU. Randomized controlled trials (RCTs) comparing IHD and CRRT for AKI have not shown an indisputable benefit of one technique over the other. However, these studies were conducted more than 15 years ago. In addition, several recent RCTs on RRT initiation strategies have completely modified both knowledge and practice of RRT initiation. The main objective is to evaluate whether IHD is not inferior to CRRT with regard to overall incidence of a composite outcome of death, persistent renal dysfunction and dialysis dependency at day 90 in critically ill patients with severe AKI (Major Kidney Event 90, MAKE 90). The primary endpoint will be the proportion of patients who will meet one or more criteria for a major adverse kidney event 90 days after randomization (MAKE90). The MAKE will be the composite of death, renal replacement therapy dependence and/or an increase in serum creatinine above 25% of its basal value. This is a non-inferiority multicenter open-label randomized controlled trial with two parallel groups. Randomization will take place 1:1 to 2 groups: a group receiving IHD and a group receiving CRRT. Randomization will be stratified according to center, dose of vasopressor and cumulative fluid balance from ICU admission. Treatment will be initiated and monitored by the physician responsible for patient. Whatever the group, investigators will follow recommendations to achieve optimal metabolic control and hemodynamic stability. The investigators plan to include 1000 patients.

Acute kidney injury (AKI) is increasing worldwide in recent years and is a major risk factor of chronic kidney disease (CKD). AKI, acute kidney disease (AKD) and CKD form a continuum whereby initial kidney injury leads to ongoing renal injury and eventually end-stage renal disease if no effective treatment is applied. Nevertheless, there are no useful pharmacotherapies approved clinically for the treatment of AKI and subsequent CKD. Previous studies of the investigators have confirmed that pericytes are the primary cell source of scar-producing myofibroblasts. Furthermore, the investigators had demonstrated that significant epigenetic modification in transcriptome analysis of pericytes develops in different stage of AKI-CKD continuum. These epigenetic memory made pericytes obtain proliferative and pro-fibrotic phenotypes in activated status and persist in inactivated status. Demethylation by azacitidine prevented AKI-CKD transition, and attenuated fibrogenesis induced by a second adenine-AKI. Azacitidine has been approved in the United States Food and Drug Administration and European Union for treatment of adult acute myeloid leukemia (AML), particularly recommended front-line treatment for older patients with acute myeloid leukemia who are not candidates for intensive treatment regimens. Dosage of azacitidine in clinical trial is calculated according to previous study and is lower than chemotherapeutic dose. Low dose azacitidine has demethylation effect and less cytotoxicity. CSA-AKI is the second commonest cause of AKI in ICU. The investigators plan to initiate a double-blind randomized controlled trial (RCT) to recruit CSA-AKI patients. The patients will be divided as azacitidine group and placebo group. Patients in azacitidine group will receive three doses of low dose azacitidine in one week when AKI is diagnosed. After that, the investigators will follow up their renal function and urine protein every three month. Primary composite outcomes include a decline of at least 50% in the estimated GFR, an increase of urine protein-creatinine ratio (UPCR) over 1000 mg/g, and the development of end stage renal disease (ESRD). Secondary outcome is overall mortality.

The objective of this protocol is to investigate the impact of prematurity, with or without associated acute kidney injury (AKI), on the future risk of chronic kidney disease (CKD) by establishing a patient registry and biorepository. Serum and urine samples will be collected serially from premature infants admitted to the neonatal intensive care unit (NICU) at Albert Einstein College of Medicine/Weiler Hospital and subsequently followed in the NICU follow-up and pediatric nephrology ambulatory subspecialty clinics. The biorepository will be linked to a comprehensive clinical database.

The severity of minimal dialysis disequilibrium syndrome (DDS) is currently detected and graded clinically using clinical criteria. Bispectral Index (BIS), an electroencephalographic (EEG) derived parameter is widely used in anesthesia and Critical Care setting to detect effects of anesthetic/hypnotic drugs. The aim of our study was to assess the discriminative power of BIS monitoring to accurately detect DDS.

Extracorporeal membrane oxygenation (ECMO) is an extra-corporeal assistance used in case of respiratory or circulatory failure. In case of circulatory failure, ECMO is in the veno-arterial configuration (VA-ECMO). VA-ECMO patients are at high risk of developing acute kidney injury (AKI) and renal replacement therapy (RRT) may be needed in 50% of ECMO patients. Although the administration of RRT in ECMO patients has major implications, no specific recommendations are currently available. The 2020 Kidney Disease: Improving Global Outcomes (KDIGO) international conference identified the evaluation of RRT in these ECMO patients as a research priority. In 2023, the two main configurations used to administer RRT in ECMO patients are an independent delivery on a separate vascular access (parallel connection) or an integration of the RRT machine directly into the ECMO circuit (integrated connection). The integrated connection may reduce infectious and bleeding complications associated with the use of a second vascular access. However, it can expose the hemofilter and circuit to excessive positive pressures that can trigger pressure alarms in the RRT machine and expose the patient to a theoretical risk of air embolism or hemolysis. Furthermore, there is currently no robust data comparing the hemofilter lifespan with the parallel or with the integrated connection, although the filter lifespan is a crucial parameter to assess the quality of the RRT delivery in the ICU. The investigators recently performed a survey of practices in this context of ECMO patients. The investigators found that both strategies (parallel and integrated connection) are widely used and can be seen as common patient care. The hypothesis tested in this study is the following: when RRT is integrated to the ECMO circuit, the hemofilter lifespan is non inferior to the one when RRT is delivered on a separate vascular access. Only VA-ECMO patients will be enrolled in this trial.

In this single center, double-blind, randomized controlled clinical trial, we will include 648 diabetes patients aged 18-70 undergoing laparoscopic pelvic tumor resection. They will be randomized to the following four groups: high-pressure pneumoperitoneum (10mmHg)+ deep neuromuscular block group, high-pressure pneumoperitoneum (15mmHg)+moderate neuromuscular block group, low-pressure pneumoperitoneum + deep neuromuscular block group and low-pressure pneumoperitoneum+moderate neuromuscular block group. Deep neuromuscular block is defined as post tetanic count (PTC) 1-2, and low neuromuscular block is defined as train-of-four (TOF) twitch 1-2. The outcomes will be indicators for acute kidney injury and surgical condition.