View clinical trials related to Sepsis.
Filter by:Neutrophil-lymphocyte ratio (NLR), as an inflammatory index, is cheap and easy to obtain, and could be widely used in hospitals at all levels. NLR is a valuable biomarker that is significantly correlated with the status of immune and inflammatory responses. In the past few years, NLR has been continuously and extensively explored in various diseases, and the research progress is considerable. In cardiovascular disease, NLR can predict arrhythmia and short - and long-term mortality in patients with acute coronary syndrome. NLR may be associated with heart failure and valvular heart disease. Moreover, NLR has been shown to be associated with respiratory diseases (such as chronic obstructive pulmonary disease), immune diseases (rheumatoid arthritis and systemic lupus erythematosus), and digestive diseases (acute appendicitis, hepatocellular carcinoma, liver fibrosis, and cirrhosis). Importantly, the study of NLR in sepsis has received much attention in recent years. A 2019 meta-analysis concluded that peripheral white blood cell ratios, including NLR, lymphocyte-to-monocyte ratio (LMR), and platelet-to-lymphocyte ratio (PLR), are associated with clinical outcomes in sepsis and are useful biomarkers of infection. They recommended that NLR be evaluated in future hierarchical models, To clarify its relationship with NLR and clinical outcome and the prognostic value of NLR, it is worth mentioning that NLR has also been found to have the ability to predict the outcome of sepsis. It has been shown that NLR, together with other inflammatory parameters, might be a marker for early detection of sepsis in the intensive care unit. However, a large body of evidence demonstrating the association between NLR and adverse clinical outcomes in sepsis remains controversial. Another study concluded that "no association was found between NLR and 28-day in-hospital mortality in patients with sepsis". In addition, the reliability of NLR on admission in predicting the prognosis of critical illness was also lower than that of traditional markers (including CRP, PCT, serum lactic acid and APACHEā ” score). This study aimed to retrospectively investigate the early predictive value of inflammation-related parameters in-hospital mortality of septic patients.
Patients with bloodstream infections (sepsis) have been found in prior studies to have infection-related heart dysfunction, even if they did not have preexisting heart problems. Factors related to the infection may cause the heart to not pump as well as it should, causing critical illness in the form of low blood pressure (shock) and heart failure. Ultrasound is frequently used in the emergency department to evaluate why a patient might have low blood pressure. Part of that evaluation may include obtaining ultrasound images and making measurements about how well or poorly the heart is pumping. The investigators will evaluate a certain measurement that relates to cardiac function, determine how it changes in patients before and after they are treated for septic shock. This will involve placing an ultrasound probe on the patient's chest, measuring the upward and downward movement of the mitral valve, the mitral annulus systolic plane excursion (MAPSE), and comparing the measurements before and after treatment is started. The investigators are attempting to determine if this measurement improves before and after treatment.
The study aimed to investigate the effectiveness of anisodamine hydrobromide combined with heparin in the treatment of patients with critical infection, in the hope that the therapy will provide alternatives to the treatment of patients with critical infection.
Cardiac dysfunction is common following hospital admission with sepsis and one of the most frequent causes for readmissions to hospital, however underlying mechanisms by which this might occur are unclear. The CONDUCT-ICU investigators will conduct a pilot, cohort study, characterizing cardiac function in ICU survivors of sepsis using a combination of CMR imaging, biomarkers and patient reported outcome measures to investigate mechanisms of cardiac dysfunction following sepsis. Comparisons will be made to that of the general population.
Randomised trial comparing the efficacy and feasibility of using a sterile closing pack to reduce postpartum sepsis
The Non-Invasive Cardiac Output Monitor (NICOM) is a non-invasive monitor capable of measuring cardiac output (CO) and cardiac index (CI), and stroke volume (SV) and stroke volume index (SVI) based on heart rate. Conceptually NICOM is a technology that utilizes a dynamic response characteristic in assessing the need for fluid administration, whereby SVI is measured before and after a fluid challenge with more fluid given only if SVI increases significantly with administered fluid. Dynamic response technologies are intended to replace older, "static" measures such as central venous pressure (CVP) and pulmonary capillary wedge pressures (PCWP) which are single point measurements utilized to assess the need to administer fluid. The aim is to pilot and evaluate the effectiveness of using The Non-Invasive Cardiac Output Monitor (NICOM) technology for goal-directed fluid resuscitation in adult inpatients with sepsis associated acute hypotension and/or evidence of septic shock (Lactate >= 4.0).
With the rapid development of intensive care medicine, the mortality of patients with sepsis has decreased over the past decade, but it is still the leading cause of death in intensive care unit (ICU). As an important immune and metabolic organ, the liver plays a crucial role in host defense against invading pathogens and endotoxins, as well as maintenance of metabolic and immunological homeostasis. Some studies indicate that sepsis-associated liver dysfunction (SALD) has a substantial impact on the severity and prognosis of sepsis. Intra-abdominal infections (IAI) are the second leading source of infection for sepsis after pneumonia in ICU, and are often related to high morbidity and mortality rates. Studies had found that the incidence of SALD in IAI patients was considerably higher than that of general population with sepsis. Moreover, the incidence of acute gastrointestinal injury (AGI) in IAI patients was also much higher than that in sepsis patients with other site infections, as well as the degree of AGI was more serious according to guidelines proposed by the European Society of Intensive Care Medicine (ESICM) in 2012. IAI can directly cause AGI, and a subset of patients usually progress to increased intra-abdominal pressure, which further aggravates AGI. The pathogenesis of SALD remains unclear so far, and its mechanism is complicated and elusive. Nevertheless, the unique anatomical structure of the liver make it has close association with the gut, growing evidence indicates that the gut microbiota and related metabolites are related to several liver disease. In case of sepsis, gut microbiota disorder and low microbial diversity can cause severe liver injury. An important mechanism for this phenotype is the gut-liver axis, which refers to gut microbial metabolites and nutrients are transported to the liver through the portal vein and hepatic artery to maintain the healthy metabolism of liver. Therefore, we initially conducted a retrospective study to investigate the relationship between the occurrence of AGI and SALD among IAI patients. Subsequently, a prospective study was performed to analyze and compare the diversity and composition of gut microbiota in IAI patients with or without SALD, respectively, and the dynamic changes in the gut microbiota during the first week after ICU admission were also investigated.
Abionic has developed a targeted, rapid test for pancreatic stone protein (PSP) in human K2-EDTA venous whole blood using the abioSCOPE instrument. Currently no PSP study comparaison has been done between venous and arterial whole blood. Abionic would like to confirm the equivalence of the PSP between venous whole blood and arterial whole blood.
Sepsis is the leading cause of death among US hospitals, accounting for 6% of all hospitalizations and 35% of all inpatient deaths. International guidelines and the CMS SEP-1 bundle stress the importance of adhering to specific steps in the diagnosis and management of sepsis. This can be very difficult, especially in the setting of a busy ED, ward, or ICU where there are multiple simultaneous demands on providers' attention and time. Critical steps can be missed or delayed. The CMS SEP-1 bundle is a measure of compliance with sepsis care that is being tracked nationally across hospitals. Unfortunately, a recent study demonstrated that every hour of delay to the completion of a sepsis bundle, including antibiotic administration, was associated with a 4% increase in risk-adjusted hospital mortality. One strategy to improve the care and outcomes of patients with sepsis is the use of information technology to support our providers in a targeted manner. Technology has already been developed and deployed to help with the early identification of patients with sepsis using a Best Practice Alert (BPA), which has been in place at our hospital since 2017. This pop-up window alerts the team to the possibility of sepsis based on data within the medical record. However, once the alert is accepted or declined, the BPA does not offer ongoing support to clinicians, leaving the clinician to track and execute multiple time-based and inter-dependent sepsis bundle measures in a busy, hectic environment. To augment this existing tool, here we propose to study the efficacy of a novel technology called the Sepsis Care Tracking Platform (SCTP) to provide ongoing support at the bedside to providers, thus improving the care we deliver to patients. SCTP is a monitoring and notification platform that aims to increase the timely delivery of key elements of evidence-based sepsis care. This platform, which was built by clinicians for clinicians, leverages the electronic medical record (EMR) to track real-time compliance with key components of the CMS SEP-1 bundle - timely antibiotics, blood cultures prior to antibiotics, initial lactate, and repeat lactate for those patients with an initially elevated level. SCTP underwent technical validation in Fall 2019 with a pilot in the MGH Emergency Department. The pilot confirmed that SCTP correctly identified missing bundle elements and paged the appropriate team members connected with the patient's care. The pilot also did not find alarm fatigue to be an issue. We hypothesize that SCTP will increase our hospital's compliance with sepsis process metrics and improve patient outcomes. By monitoring real-time data and automatically alerting bedside providers to missing elements within an actionable timeframe, SCTP has the potential to drive improvements in clinical care even in the extremely busy and complex environment of the emergency department and inpatient units.
The aim of this study is to explore if STI technology, especially TMAD, plays an important role in evaluating left ventricular longitudinal systolic function and discriminating SICM in patients with sepsis. The investigators also intend to prove that TMAD may have predictive value in patients with sepsis, which is worthy of in-depth study to find strong evidence-based medical evidence for subsequent clinical practical applications.