View clinical trials related to Patient Safety.
Filter by:Bedside monitors are frequently used in monitoring vital signs of critically ill patients. Nurses working in healthcare facilities, especially in intensive care units, are required to manage devices with different alarm threshold values, categories, and types of alerts, leading to alarm fatigue. In response to this serious threat to patient safety, the FDA and The Joint Commission worked to develop strategies to address alarm fatigue in 2011. Alarm monitoring, identification of the cause, and silencing are typically performed by nurses. When reviewing alarm control studies in the literature, the CEASE care package developed by Levis et al. in 2019 was encountered. The tool was developed for personalized clinical alarm monitoring for the patient.
The evidence unequivocally supports the association between work environment and patient safety. The negative impact of working conditions on both employee health and quality of care highlights the potential benefits of integrating these areas. It is therefore suggested that integrated systematic occupational health and patient safety management are crucial in managing the challenges faced by healthcare services today. The project aims to assess the effectiveness and cost-effectiveness of a structured method for systematic and integrated occupational safety and health and patient safety management systems (SIOHPS). A process evaluation will be conducted alongside the main study to determine the intervention's specific outcomes and provide transferable guidance to a wider context. The intervention is designed to support both systematic occupational health and patient safety management systems using a Safety II-perspective. The intervention is comprised of several core components, including education to staff, support-functions and management, daily team reflections; as well as audit and feedback. A stepped wedge cluster-controlled design (SWD) will be used, with workplaces as clusters. The SWD will consist of three steps, with four clusters crossing over from the control to the intervention group at each step. All clusters will start as controls. At least twelve healthcare units with at least thirty employees per workplace from two different regions in Sweden will participate in the intervention. Workplaces that provide round-the-clock care are invited to participate in the study. Exclusion criteria are units with plans to implement any other occupational health and/or patient safety improvement work during the project period. At the individual level, inclusion criteria for employees include at least 50% of full-time work at the workplace. The SIOHPS project will contribute to the existing theory on safety culture interventions by considering the integration of these areas. The goal is to contribute to a safe environment for both employees and patients.
The aim of this project is to improve the integration of digital processes, including e-prescriptions, within medical and dental practices for healthcare professionals. Through a better understanding of the obstacles healthcare workers encounter during the adoption of digital processes and their feedback post-implementation, this study will add to the current state of science, contributing to digital process optimization in healthcare.
A large number of different organ functions are recorded in real time for patients being monitored in an intensive care unit. On the one hand, the measured values collected are used for continuous monitoring of vital parameters, e.g. blood pressure, heart rate and respiratory rate, but are also evaluated several times a day in conjunction with other data as part of ward rounds. In both cases, continuous monitoring from a limited number of parameters, but also in the distinct evaluation with a more extensive set of analyzable parameters, there are limitations in the evaluability even with all the care and expertise available: In continuous analysis, interpretation is limited by the restricted number of continuously recorded parameters described above. Although a large number of such measurements are possible, and at least theoretically a larger number of parameters could be measured, patient-specific limits such as patient cooperation, medical limits such as the significance of the measured values in specific situations, but also economic limits are often decisive in this context. Although accurate conclusions can be drawn from the continuous and therefore complete representation of aspects of human physiology, the limitation of the available parameters reduces the interpretability of the synthesis of different statuses. In the broader, more comprehensive assessments during visits at specific points in time, on the other hand, there are limitations due to, among other things, point recordings of individual measured values and the predefined visit times. Even if limit values are (or can be) defined for the measured data, and a consequence, e.g. a therapy step, is initiated if these values are exceeded or not reached, this alert can only be initiated retrospectively if these values are exceeded and a consequence can only be initiated retrospectively. In this situation, a pathophysiological change is already so far advanced that in many cases a compensation mechanism no longer functions adequately and turns into a decompensation situation. In this situation, the patients affected in an intensive care unit are in many cases in mortal danger. Both situations, continuous recording of a limited number of parameters and the evaluation of extensive data in the form of a snapshot could be optimized despite the limitations mentioned. Without changing the collection of data (time, scope, etc.), the possibilities for optimizing their interpretation and the consequences that can be derived from the interpretation remain. The interpretation of the data is primarily determined by the interpreters as the method of interpretation. Current approaches attempt to use machine learning (ML) methods to predict individual situations that recognize adverse events in the given data and at the same time allow alarms to be triggered pre-emptively, i.e. before a life-threatening situation occurs. Furthermore, there are already studies on the change of early warning scores in time series, which are, however, limited in their informative value for longer prediction periods.
This is a Hybrid II de-implementation study to reduce use of fall prevention alarms in hospitals. The intervention consists of tailored, site-specific approaches for three core implementation strategies: education, audit/feedback and opinion leaders. Hospital units will be randomized to low-intensity or high-intensity coaching for the implementation of the tailored strategies.
EpiFaith CV provides automatic aspiration and detection of arterial pressure as an alternative to manometry in central venous catheterization. The aim of the study is to evaluate if it may reduce operation time compared with conventional syringe.
Harm from medications is still a concern in an aged population. As medication treatment for older persons many times are complex, a feasibility study can be helpful to support decisions about future evaluation and implementation of an intervention. In this study, the overall aim is to assess feasibility, acceptability and potential effects of usage of a co-designed medication plan for older persons with medication treatment. The study will take place in the primary care setting in Sweden, and involve persons 75 years or older using five or more medications on daily basis, physicians at primary care centers and persons supporting the older person in their medication use a home. During an appointment, the physician and older person will agree on a medication plan, that will be documented in the older person's electronic health record and printed out on paper. After three month, the potential outcomes of a medication plan will be collected, together with data about feasibility and acceptability of the intervention. Two questionnaires will be used, addressing usability and patient safety. Moreover, remote interviews with participants will be performed to address usability and patient safety. Information about the medication plan will be collected from the electronic health record. Data analysis will be done with descriptive statistics and qualitative content analysis. Expected outcomes are an assessment of feasibility and acceptability, and potential outcomes, to support decision on a future evaluation of the medication plan.
Aims: To evaluate the effectiveness of SinergiAPS (a patient-centered audit and feedback intervention) in reducing avoidable hospital admission, and; to explore the factors that may affect its implementation. Design: 24-month, parallel, open-label, multicentre, pragmatic, hybrid type 1 randomized clinical trial. Setting, sample, and randomization: 118 primary healthcare centers from multiple regions in Spain will be randomly assigned (ratio 1:1) to two groups (control and intervention). The intervention group will receive two audits (baseline and intermediate at 12 months). The audits will consist of the administration of the PREOS-PC questionnaire (a measure of patient-reported patient safety) to a sample of around 100 patients per center. The intervention group will receive reports on the results of both audits, along with resources aimed at facilitating the design and implementation of safety improvement plans. The intervention will be deployed through the SinergiAPS web tool, developed and validated in previous projects. The control group will have access to the intervention after the end of the clinical trial (waitlist). Outcomes: Primary outcome: rate of avoidable hospitalizations (electronic health records). Secondary outcomes: patient-reported patient safety (PREOS-PC questionnaire); patient safety culture perceived by professionals (MOSPC questionnaire); adverse events experienced by healthcare professionals (ad hoc questionnaire); the number of safety improvement actions (ad hoc questionnaire). Outcome data will be collected at baseline and at 24 months follow-up. Implementation evaluation: Drawing on the CFIR model, we will collect and analyze qualitative (30 individual interviews, implementation logbooks) and quantitative (questionnaires for professionals from intervention centers, level of use of the SinergiAPS web tool) data to examine the implementation of the intervention in the Spanish primary healthcare centers.
This study is based on the implementation of the method named "Learning-from-excellence", see methodology www.learningfromexcellence.com. The project is a longitudinal cohort study based on data from both qualitative and quantitative data, presented in two different research articles, one qualitative and one quantitative, using : - an electronic hosptal staff survey on "work-engagement, team collaboration, patient safety climate, and working conditions" before and after implementing Learning from Excellence. - focus group interviews to explore experiences with the method of Learning from excellence from the view of healthcare professionals.
Immune checkpoint inhibitors (ICIs) can cause immune-related adverse events (IrAEs) throughout and beyond treatment duration. These IrAEs can be varied and difficult to predict, as they can involve almost any organ, regardless of where the primary tumor is located. Treatment modality and individual characteristics appear to influence the frequency and severity of these events, which can become serious without proper monitoring and timely intervention. Generally, patient visits are scheduled at the same intervals in which patients receive treatment, once every two to four weeks. In these large intervals, patients can be surprised by IrAEs without a close schedule visit to their oncology physician. Not only this may negatively influence their overall well-being, their perceived self-efficacy to manage their own condition and their health-related quality of life may be affected as well. Using patient-reported outcomes (PROs) to monitor patient symptoms has become incredibly valuable in describing treatment toxicity, including that of ICIs. PROs are a self-report of the patient's own perceptions of their health status. Using their own words, or by replying to questionnaires, patients can convey symptoms and how these affect their daily life and quality of life. Questionnaires are an example of a PRO measure (PROM), which have increasingly been provided electronically (resulting in electronic PROs or ePROs). The ubiquity of connected electronic devices has enabled long-distance monitoring of symptoms through electronic questionnaires. In patients treated with chemotherapy, studies have shown that using this method to collect symptom data can enable healthcare providers to help patients manage their symptoms remotely. This allows patients to receive timely support from home, that could help prevent serious complications that could entail visits to the emergency department, unscheduled hospitalizations and treatment interruptions. The IePRO study's aim is to test a model of care that uses electronic questionnaires to monitor symptoms that could be related to the use of ICIs. Patients would reply to these questionnaires at least once a week using an electronic web application (on their phone or computer). A team of oncology nurses reviews their replies and calls patients when new symptoms appear or when they worsen. Using a standard triage algorithm, the nurses guide patients on how to proceed: if they should stay home and follow self-care advice, if they should have a second call within the next 24 hours to follow-up on their symptoms, or if they should come to the hospital for an in-person assessment as soon as possible. In this study, it is hypothesized that this model of care could lead to an earlier detection of IrAEs, as well as their improved management by reducing the number of high-severity IrAEs, the number of unscheduled emergency admissions and hospitalizations, as well as decreasing the number of treatment interruptions and of immunosuppressive treatments used to treat IrAEs.