Clinical trials

Mechanical ventilation is a critical intervention in the management of pediatric patients with respiratory distress. During this process, accurate measurement of transpulmonary pressure (PL) is essential to ensure the safety and efficacy of ventilation. PL is defined as the difference between alveolar pressure (Palv) and pleural pressure (Ppl). While the direct measurement of Ppl is possible, it poses a risk to tissue integrity. Thus, the primary surrogate for Ppl measurement today is esophageal pressure (Pes). However, the measurement of Pes is not without challenges. This abstract outlines the pitfalls associated with Pes measurement, emphasizing the importance of employing well-defined procedures to mitigate potential errors. These errors can range from underestimation of Pes due to underfilled catheters to overestimation resulting from overfilled catheters. To address these challenges and optimize Pes measurement, various methods have been proposed for titrating the filling volume of the esophageal catheter. In this study, investigators aim to assess a faster decremental filling method and compare it to the traditionally accepted Mojoli method in the context of pediatric patients. This research seeks to enhance the intensivists' understanding of the most efficient and accurate approach to Pes measurement during mechanical ventilation in the pediatric population, ultimately contributing to improved patient care and outcomes

A prior research indicated that asynchrony between the patient and ventilator occurred in 33 percent of 19,175 breaths, and was seen in every patient. The most prevalent kind of asynchrony was ineffective triggering (68%), followed by delayed termination (19%), double triggering (4%) and premature termination (3%). Asynchrony between the patient and ventilator increased considerably with decreasing levels of peak inspiratory pressure, positive end-expiratory pressure, and set frequency.Despite this, more asynchrony categories exist, and there is no widely accepted categorization. Major asynchronies, however, include auto trigger, ineffective effort, and double trigger, while minor asynchronies include early/late cycle, trigger delay, and spontaneous breaths during a mandatory breath. This study aims to compare the safety and efficacy of a closed-loop synchronization controller with conventional control of synchronization during invasive mechanical ventilation of spontaneous breathing of pediatric patients in a pediatric intensive care unit (PICU).

The goal of this observational study is to to determine the perceptions, expectations and experiences of physicians involved in pediatric patient management about mHealth applications. The main questions it aims to answer are: * Is the use of mHealth applications in pediatric patient management different between pediatricians and other specialties? * What are the most commonly used mHealth applications in pediatric patient management? Participants will fill out an online survey form.