Citations

Abstract Purpose To describe the use of mechanical circulatory support in the setting of cardiac arrest and summarize pharmacists’ role in extracorporeal cardiopulmonary resuscitation (ECPR). Summary ECPR is increasingly used to reduce morbidity and improve mortality after cardiac arrest. ECPR employs venoarterial ECMO, which provides full circulatory perfusion and gas exchange in both adult and pediatric patients in cardiac arrest. After the emergency medicine team identifies potential candidates for ECPR, the ECMO team is consulted. If deemed a candidate for ECPR by the ECMO team, the patient is cannulated during ongoing standard cardiopulmonary resuscitation. A multidisciplinary team of physicians, nurses, perfusionists, pharmacists, and support staff is needed for successful ECPR. Pharmacists play a vital role in advanced cardiac life support (ACLS) prior to cannulation. Pharmacists intervene to make pharmacotherapy recommendations during ACLS, prepare medications, and administer medications as allowed by institutional and state regulations. Pharmacists also provide pharmacotherapy support in the selection of anticoagulation agents, ongoing vasopressor administration during ECMO cannulation, and the optimization of medication selection in the peri-ECPR period. Conclusion With the growing use of ECPR, pharmacists should be aware of their role in medication optimization during ECPR.

AbstractBackgroundUropathogen resistance, fluoroquinolone‐resistance (FQR), and extended spectrum beta‐lactamase (ESBL), has been observed to be emerging worldwide with prevalences above recommended thresholds for routine empirical treatment. The primary aim of our study was to determine the prevalence of FQR from a geographically diverse sample of United States emergency departments (EDs).MethodsWe conducted a multi‐center, observational cohort study using a network of 15 geographically diverse US EDs. All patients ≥18 years of age with the primary or secondary diagnosis of urinary tract infection (UTI) in the ED identified using International Classification of Diseases (ICD‐10) diagnosis code of cystitis, pyelonephritis, or UTI from 2018 to 2020 were included. We calculated descriptive statistics for uropathogens and susceptibilities. Logistic regression analysis was used to identify antimicrobial resistance risk factors associated with FQR Escherichia coli.ResultsAmong 3779 patients who met inclusion criteria, median age was 62.9 years (interquartile range [IQR]: 41–77.6) and 76.3% were female. The most common diagnoses were complicated (41.2%) and uncomplicated cystitis (40.3%). E. coli was the most common pathogen (63.2%), followed by Klebsiella pneumoniae (13.2%) and Enterococcus species (5.8%). Across all sites, overall E. coli FQ‐resistance prevalence was 22.1%, ranging from 10.5 to 29.7% by site. The prevalence of ESBL‐producing uropathogen was 7.4%, ranging from 3.6% to 11.6% by site. Previous IV or oral antimicrobial use in the past 90‐days and history of a multi‐drug resistant pathogen were associated with FQ‐resistant E. coli (odds ratio [OR] 2.68, 95% confidence interval [CI]: 2.04–3.51, and OR 6.93, 95% CI: 4.95–9.70, respectively). Of the patients who had FQ‐resistant E. coli or an ESBL‐producing uropathogen isolated, 116 (37.1%) and 61 (36.7%) did not have any documented risk factors for resistance.ConclusionFQ‐resistant E. coli is widely prevalent across US sites highlighting the need for ongoing monitoring of antimicrobial resistance and, at some locations, modification of empirical treatments.

Abstract Purpose Utilization of telemedicine and telepharmacy services has become increasingly popular, as specifically noted during the coronavirus disease 2019 (COVID-19) pandemic. This article describes the implementation of and services provided by emergency medicine pharmacists (EMPs) as part of a telemedicine team in the emergency department (ED). Summary This report describes the telemedicine and telepharmacy services provided to EDs in the Mayo Clinic Health System from the Mayo Clinic Rochester ED. Telepharmacy services provided by EMPs started in 2018. EMPs cover telepharmacy calls as part of their shift within the ED in Rochester. Recommendations and interventions are documented in the electronic medical record. A retrospective review evaluated interventions provided from November 18, 2018, through November 10, 2020. Baseline patient demographics, as well as the type and number of interventions provided by EMPs, hospital site, and time spent on the interventions, were collected. Telepharmacy consults could include multiple interventions and be classified as more than one type of intervention. During this time period, 24 pharmacists worked in the ED and were able to provide telepharmacy services. There were 279 consults included in this study, with 435 interventions. Most of the calls came from critical access hospitals (48.7%). The most common types of interventions documented were medication selection and dosing (n = 238), antimicrobials (n = 141), monitoring and follow-up (n = 65), discharge (n = 56), drug information (n = 55), and allergy review (n = 50). Conclusion Telepharmacy services can provide increased access to emergency medicine specialty pharmacists in areas that would not otherwise have these services.

Abstract Purpose After a long period of low utilization, droperidol has become easier to obtain in the US market. This comprehensive review discusses the safety, indications, clinical efficacy, and dosing of droperidol for use in the emergency department (ED) setting. Summary In 2001 the US Food and Drug Administration (FDA) mandated a boxed warning in the labeling of droperidol after reports of QT interval prolongation associated with droperidol use. Since that time, it has been difficult to access droperidol in the United States; as a result, many practicing clinicians lack experience in its clinical use. Multiple studies have been conducted to assess the clinical efficacy and safety of droperidol use in ED patients. Results consistently show the safety of droperidol and its clinical efficacy when used as an analgesic, antiemetic, and sedative. Now that droperidol is more widely available for use in the US market, pharmacists and prescribers need to reliably translate safety and efficacy data compiled since 2001 to help ensure appropriate and effective use of the medication. Conclusion Droperidol is an effective and safe option for the treatment of acute agitation, migraine, nausea, and pain for patients in the ED setting. Healthcare professionals can adopt droperidol for use in clinical practice, and they should become familiar with how to dose and monitor droperidol for safe and effective use.

We believe this is the first documented case of a critically ill patient managed by telepharmacy in a remote, rural critical access hospital. We outline the case and the benefits of telepharmacy in under-resourced, rural critical access emergency departments.