Does the virtual simulation training improve the learning of pelvic ultrasound performed in gynecological emergencies?
Legendre G, Beaudoux G., Descamps P., Bouet P.
Ultrasound In Obstetrics & Gynecology , Volume 54, Issue S1. October 2019
OBJECTIVES: To compare the contribution of training using virtual simulation with theoretical instruction alone in the learning of pelvic ultrasound for gynecological emergencies in non‐experienced students.
METHODS: A unicentre randomised controlled trial was conducted. The participants were students in the last year of medical studies during their internship in the obstetrics and gynecology department at the University Hospital Center of Angers. Twenty participants were randomised to a 1:1 ratio in the training group and control group of 10 students each. All participants received a two hours theoretical course on the physical basis of ultrasound, the use of probes, as well as the basic principles of an trans‐vaginal ultrasound examination centreed on the different standardised images to be given to gynecologic emergencies. For the training group an additional 20‐minute pelvic ultrasound training on a trans‐vaginal virtual simulator was performed. The participants were evaluated on images taken from patients consulting our gynecological emergencies centre. The pictures evaluated were sagittal and coronal sections of the uterus, left and right ovarian sections and a Morrison pouch view. The primary outcome was based on picture quality scores described by Salomon et al. with the French Society for the Improvement of Ultrasound Practices (SFAPE) and by Popowski et al. for Standardisation Acute Female Echography (SAFE). Secondaries outcomes focused on the general ultrasound skills and the duration of acquisition of the pictures.
RESULTS: The mean SFAPE and SAFE scores were significantly higher in the training group than in the control group (14.5 ± 3.1, p = 0.046 and 10.1 ± 2.08, p = 0.016, respectively).
CONCLUSIONS: After a very short training session, using virtual simulation, inexperienced students produce proper pictures for the management of gynecological emergencies and better quality ultrasound pictures than students trained only theoretically.
Developing and Gathering Validity Evidence for a Simulation-Based Test of Competencies in Lung Ultrasound
Pietersen PI1,2,3, Konge L4, Graumann O5,6, Nielsen BU7, Laursen CB8,5
Regional Center for Technical Simulation, Region of Southern Denmark, Odense, Department of Respiratory Medicine, Odense University Hospital, Odense, Institute for Clinical Research, University of Southern Denmark, Odense, Copenhagen Academy for Medical Education and Simulation, Central Region of Denmark, Copenhagen, Denmark. Institute for Clinical Research, University of Southern Denmark, Odense, Denmark. Department of Radiology, Odense University Hospital, Odense, Denmark. Department of Anaesthesiology and Intensive Care, Odense University Hospital, Odense, Denmark. Department of Respiratory Medicine, Odense University Hospital, Odense, Denmark.
BACKGROUND: Clinical lung ultrasound (LUS) is a fast bedside diagnostic tool which can assist clinicians in decisions regarding the treatment and monitoring of patients with respiratory symptoms. LUS training and education differ widely, and is often done in a clinical setting, with potential risks for patients if decisions are made based on the wrong interpretations. No clear guidelines or recommendations for objective and standardized assessment of LUS skills exist, and those that do are often based on a fixed time-frame or an arbitrary number of examinations performed; this does not ensure adequate competencies.
OBJECTIVES: The study aimed to develop and gather validity evidence for a practical, simulation-based test in LUS.
METHODS: Nine cases were developed in collaboration with 3D Systems Healthcare, Littleton, CO, USA, representing the most common diagnosis and sonographic findings in patients with respiratory symptoms. Thirty-six participants with different levels of competence in LUS, completed the test. The participants were divided into groups, i.e., novices, intermediates, and experienced, according to their experience with LUS, the number of examinations they had performed, and any research they had conducted. Their answers were used for item analyses.
RESULTS: The intraclass correlation coefficient, Cronbachs’ α, was 0.69 summarized, and there was a statistically significant difference (p < 0.001) between the novices and the trained participants (intermediates and experienced). A pass/fail score of 16 points was calculated according to the contrasting-groups method.
CONCLUSION: We developed a test for the assessment of clinical competencies in LUS. The test proved solid validity evidence, and a pass/fail standard without any false-negatives, and only 2 explained false-positives.
© 2018 S. Karger AG, Basel.
Training Pulmonary/Critical Care Fellows in Advanced Critical Care Transesophageal Echocardiography: A Simulator Based Training Project
Astha Chichra, MD; Seth Koenig, MD; Viera Lakticova, MD; Mangala Narasimhan, DO; Paul Mayo, MD
Chest. 2015;148(4_MeetingAbstracts):455A. doi:10.1378/chest.2280908
Sunday, October 25, 2015 at 04:30 PM – 05:30 PM
PURPOSE: Critical care transesophageal echocardiography (cTEE) is an important component of advanced critical care echocardiography. Experiential training in cTEE requires greater than 30 real case patients to achieve competence1. The effectiveness of high fidelity TEE simulator (simulator) training to achieve competence is unknown. We studied the effectiveness of using a simulator to train pulmonary/critical care medicine fellows (fellows) in cTEE image acquisition and interpretation.
METHODS: We trained 12 fellows with no experience in cTEE using a simulator. Using a standardized cTEE image acquisition format, trainees performed 14 complete studies, with image acquisition testing on the 15th study. We used a validated system for scoring the operative and interpretive skills of the trainees 2. Once competent on the simulator1, they performed cTEEs under direct attending supervision on patients. Each patient cTEE was graded using the same scoring system as for the simulator. Successful training outcome was defined as a score of >35/401.
RESULTS: Twelve fellows received training with the simulator, consisting of a 3 hour training period. All fellows achieved perfect performance in image acquisition on the simulator at the 15th cTEE study. Eight fellows have further performed at least 5 patient cTEEs. Six fellows achieved a score of >35/40 on their first patient cTEE. The other 2 fellows required an average of 3 studies to achieve a score >35/40.
CONCLUSIONS: Training fellows to perform cTEE using a simulator is effective and may reduce the number of real patient cTEEs needed for training purposes.
CLINICAL IMPLICATIONS: Simulator training can accelerate the training curve for cTEE in fellows. Further studies need to be performed in order to establish the minimum number of cTEEs to be performed to achieve competency. References: 1.Charron, C et al. Number of supervised studies required to reach competence in advanced critical care transesophageal echocardiography.Intensive care medicine (2013): 1-6. 2. 2.Charron, C et al. Validation of a skills assessment scoring system for transesophageal echocardiographic monitoring of hemodynamics. Intensive care medicine 33.10 (2007): 1712-1718.
DISCLOSURE: The following authors have nothing to disclose: Astha Chichra, Seth Koenig, Viera Lakticova, Mangala Narasimhan, Paul Mayo
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