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Severe sepsis and septic shock may impair microcirculatory perfusion and cause organ dysfunction. The aim of this pilot study was to assess a new microcirculation-guided resuscitation strategy in patients with septic shock undergoing emergency abdominal surgery.A microcirculation-guided treatment algorithm was developed and applied intraoperatively following restoration of systemic hemodynamics. Sublingual microcirculation was monitored with Sidestream DarkField (SDF +) imaging technique. The primary objective was to investigate the change in De Backer score, Consensus Proportion of Perfused Vessels (Consensus PPV), and Consensus PPV (small) and its association with venous-to-arterial carbon dioxide difference (v-aPCOThirteen consecutive patients were included in the study. Microcirculation-guided resuscitation resulted in an increase of 0.49 mmThe intraoperative use of microcirculation-guided resuscitation strategy may improve tissue perfusion and hemodynamic coherence in patients with septic shock.

The use of video laryngoscopes by novice physicians may improve first-pass success rates compared with direct laryngoscopy.The aim of the present study was to assess whether time to intubation, number of laryngoscopy attempts, and first-pass success rate during laryngoscopy with the video laryngoscope or conventional Macintosh laryngoscope are affected by personal protective equipment (PPE) donning.Seventy inexperienced physicians were randomly assigned to video laryngoscope or Macintosh groups and were instructed to perform intubation with both devices on a manikin, using PPE or a standard uniform. The primary outcomes were insertion time, number of laryngoscopy attempts, and first-pass success rates for each device with or without donning PPE.In the Macintosh group, significantly less time was needed for the first successful intubation without PPE vs. with PPE (12.17 ± 3.69 s vs. 24.07 ± 5.09 s, respectively; p 0.0001). On the other hand, such difference was not observed in the video laryngoscope group (14.99 ± 3.01 s vs. 14.01 ± 3.35 s, respectively; p = 0.07). With PPE, the first-pass success rate was significantly higher in the video laryngoscope group [41 (58.6%) vs. 66 (94.3%), p 0.001]. The use of the video laryngoscope resulted in a significant decrease in insertion time compared with the Macintosh blade (14.01 ± 3.35 s vs. 24.07 ± 5.09 s, respectively; p 0.0001).First-pass success and insertion time with the video laryngoscope were not affected by PPE donning. However, both were negatively affected with the Macintosh laryngoscope.

Critical emergency medicine is the medical field concerned with management of critically ill patients in the emergency department (ED). Increased ED stay due to intensive care unit (ICU) overcrowding has a negative impact on patient care and outcome. It has been proposed that implementation of critical care services in the ED can negate this effect. Two main Critical Emergency Medicine models have been proposed, the "resource intensivist" and "ED-ICU" models. The resource intensivist model is based on constant presence of an intensivist in the traditional ED setting, while the ED-ICU model encompasses the notion of a separate ED-based unit, with monitoring and therapeutic capabilities similar to those of an ICU. Critical emergency medicine has the potential to improve patient care and outcome; however, establishment of evidence-based protocols and a multidisciplinary approach in patient management are of major importance.

Background Out-of-hospital cardiac arrest (OHCA) is an important cause of mortality and disability worldwide. The health care community hoped that, with the development of the automated external defibrillator (AED), the mortality and functional outcomes of patients with OHCAs would improve. Despite their effectiveness, their use in OHCA has not yet become common practice. Unfortunately, in 18–59% of cases, public access AEDs were deemed to be in poorly accessible areas or not available all of the time. Objective We present the existing literature on the implementation of drone delivery of AEDs to improve the response time of the emergency medical services. Discussion Test flights and mathematical/geographic models have been used to assess the effectiveness of drones in delivering AEDs to patients with OHCA. The results of those studies showed promising outcomes given that drone usage led to improved delivery times of AEDs compared with emergency medical services delivery. Conclusions While drones have the potential to dramatically improve cardiac arrest patient care, further studies are needed to evaluate their effectiveness in real-life clinical scenarios.

Pressure support ventilation (PSV) is the prevalent weaning method. Proportional assist ventilation (PAV) is an assisted ventilation mode, which is recently being applied to wean the patients from mechanical ventilation. Whether PAV or PSV is superior for weaning remains unclear.Eligible randomized controlled trials published before April 2020 were retrieved from databases. We calculated the risk ratio (RR) and mean difference (MD) with 95% confidence intervals (CIs).Seven articles, involving 634 patients, met the selection criteria. Compared to PSV, PAV was associated with a significantly higher rate of weaning success (fixed-effect RR 1.16; 95% CI 1.07-1.26; IThe results of the meta-analysis suggest that PAV is superior to PSV in terms of weaning success, and the statistical power is confirmed using trial sequential analysis.

Ambient air pollution accounts for an estimated 4.2 million deaths worldwide. Particulate matter (PM)2.5 particles are believed to be the most harmful, as when inhaled they can penetrate deep into the lungs. The aim of this study was to examine the relationship between PM2.5 daily air concentrations and pediatric emergency department (ED) visits for respiratory diseases in a Greek suburban area. All pediatric ED visits for asthma-, pneumonia- and upper respiratory infection (URI)-related complaints were recorded during the one-year period. The 24-h PM2.5 air pollution data were prospectively collected from twelve fully automated air quality monitoring stations. The mean annual concentration of PM2.5 was 30.03 μg/m3 (World Health Organization (WHO) Air Quality Guidelines (AQG) Annual mean concentration: 10 μg/m3). PM2.5 levels rose above the WHO Air Quality Guidelines (AQG) 24-h concentrations (25 μg/m3)), 178 times (48.6% of the study period). When PM2.5 levels were above the daily limit, an increase of 32.44% (p &lt, 0.001) was observed in daily pediatric ED visits for respiratory diseases and the increase was much higher during spring (21.19%, p = 0.018). A 32% (p &lt, 0.001) increase was observed in URI-related visits, when PM2.5 levels were ≥25 μg/m3, compared to the mean daily visits when PM2.5 levels were &lt, 25 μg/m3. Air pollution levels were associated with increased pediatric ED visits for respiratory-related diseases.