The Utility of Simulation in the Management of Patients With Congenital Heart Disease: Past, Present, and Future

Paediatric resident identification of cardiac emergencies

OBJECTIVES

Critical CHD is associated with morbidity and mortality, worsened by delayed diagnosis. Paediatric residents are front-line clinicians, yet identification of congenital CHD remains challenging. Current exposure to cardiology is limited in paediatric resident education. We evaluated the impact of rapid cycle deliberate practice simulation on paediatric residents' skills, knowledge, and perceived competence to recognise and manage infants with congenital CHD.

METHODS

We conducted a 6-month pilot study. Interns rotating in paediatric cardiology completed a case scenario assessment during weeks 1 and 4 and participated in paired simulations (traditional debrief and rapid cycle deliberate practice) in weeks 2-4. We assessed interns' skills during the simulation using a checklist of "cannot miss" tasks. In week 4, they completed a retrospective pre-post knowledge-based survey. We analysed the data using summary statistics and mixed effect linear regression.

RESULTS

A total of 26 interns participated. There was a significant increase in case scenario assessment scores between weeks 1 and 4 (4, interquartile range 3-6 versus 8, interquartile range 6-10; p-value < 0.0001). The percentage of "cannot miss" tasks on the simulation checklist increased from weeks 2 to 3 (73% versus 83%, p-value 0.0263) and from weeks 2-4 (73% versus 92%, p-value 0.0025). The retrospective pre-post survey scores also increased (1.67, interquartile range 1.33-2.17 versus 3.83, interquartile range 3.17-4; p-value < 0.0001).

CONCLUSION

Rapid cycle deliberate practice simulations resulted in improved recognition and initiation of treatment of simulated infants with congenital CHD among paediatric interns. Future studies will include full implementation of the curriculum and knowledge retention work.

Prespecialist perceptions of three-dimensional heart models in anatomical education

PURPOSE

This article aims to discuss the use of three-dimensional (3D) printed models of vascular variation cases as an educational tool for undergraduate and postgraduate anatomy students.

METHODS

This advanced study involved ten anatomy assistants who were provided with five distinct cases of congenital cardiovascular variations, each accompanied by a computed tomography angiography (CT-A) and 1:1 solid model format. The residents were asked to generate perceptions for both formats and then compare these perceptions based on identifying the variation, defining the structural features, and evaluating relevant educational perspectives.

RESULTS

The vascular origin measurement values compared to the statistically evaluated real values of the related cases showed that models were 1:1 identical copies. Qualitative assessment feedback from five stations supported the usefulness of 3D models as educational tools for organ anatomy, simulation of variational structures, and overall medical education and anatomy training. Models showcasing different anatomical variations such as aortic arch with Type 2 pattern, a right-sided aortic arch with Type 2 pattern, an aberrant right subclavian artery, arteria lusoria in thorax, and a left coronary artery originating from pulmonary trunk in an Alcapa type pattern allow for better analysis due to their complex anatomies, thus optimizing the study of variation-specific anatomy. The perception level in the 3D model contained higher points in all of the nine parameters, namely identification of cardiovascular variations, defining the vessel with anomaly, aortic arch branch count and appearance order, feasibility of using it in peers and student education. 3D models received a score 9.1 points, while CT-A images were rated at 4.8 out of 10.

CONCLUSION

3D printed anatomical models of variational cardiovascular anatomy serve as essential components of anatomy training and postgraduate clinical perception by granting demonstrative feedback and a superior comprehension of the visuospatial relationship between the anatomical structures.

A comparative analysis of lecturers' satisfaction with Anatomage and Pirogov virtual dissection tables during clinical and topographic anatomy courses in Russian universities

Anatomy is increasingly taught using computer-assisted learning tools, including electronic interactive anatomy dissection tables. Anatomage was he first virtual anatomy dissection table introduced in Russian medical universities and gained popularity among lecturers and students. The Pirogov interactive anatomy table was recently released, but the strengths and weakness of each platform is currently unknown. The objective of this article is to survey lecturers in anatomy to understand their perspectives on the Pirogov versus Anatomage virtual dissection tables' application to teaching in medical universities. A total of 80 anatomy educators from 12 Russian universities, using Anatomage (n = 40) and Pirogov (n = 40) tables were surveyed regarding their satisfaction with the application of the respective tables. Using a five-point Likert scale, both tables were assessed, and responses were statistically analyzed. In addition, qualitative analysis was performed on free response comments provided by survey respondents. There was no significant difference in overall satisfaction ratings between Pirogov (4.38 ± 0.53) and Anatomage (3.94 ± 0.60) interactive tables (p > 0.05). The Anatomage table ranked significantly higher on the accuracy of displayed anatomical details, resolution of the images, and its suitability for teaching senior medical and postgraduate students. Pirogov table performed significantly better on survey items measuring ergonomics, ability to assess students' performance, and teaching basic anatomy to junior first- and second-year medical students. Thus, in summary, anatomists' responses indicated that while both tables are suitable for teaching anatomy, the Pirogov table was superior in undergraduate medical education and the Anatomage table was more beneficial for teaching more senior trainees.

An Interactive, Multimodal Curriculum to Teach Pediatric Cardiology to House Staff

Pediatricians must be able to diagnose, triage, and manage infants and children with congenital heart disease. The pediatric cardiology division at the Medical University of South Carolina updated their curriculum for pediatric residents to a format supported by constructivist learning theory. The purpose of this study is to determine if shorter, interactive learning with fellow and faculty involvement improved pediatric cardiology knowledge demonstrated through test scores and resident satisfaction. A curriculum of short lectures and interactive workshops was delivered over 6 weeks in August and September 2018. Residents answered a 10-question pretest prior to the curriculum, followed by a post-test immediately after the last session and a delayed post-test 8 months later. Residents also provided summative feedback on the educational sessions. Sixty-six residents were eligible to participate in the curriculum with 44 (67%) completing the pretest, 40 (61%) completing the post-test, and 33 (50%) completing the delayed post-test. The mean score increased significantly from 56 to 68% between the pretest and post-test (p = 0.0018). The delayed post-test mean score remained high at 71% without significant change (p = 0.46). Overall feedback was positive highlighting the interactive nature of lectures and the participation of cardiology fellows. Using an interactive, multimodal educational series, pediatric residents had a significant increase in pediatric cardiology test scores and demonstrated good retention.

The horizon of pediatric cardiac critical care

Pediatric Cardiac Critical Care (PCCC) is a challenging discipline where decisions require a high degree of preparation and clinical expertise. In the modern era, outcomes of neonates and children with congenital heart defects have dramatically improved, largely by transformative technologies and an expanding collection of pharmacotherapies. Exponential advances in science and technology are occurring at a breathtaking rate, and applying these advances to the PCCC patient is essential to further advancing the science and practice of the field. In this article, we identified and elaborate on seven key elements within the PCCC that will pave the way for the future.

Pathophysiology for the Pediatric Critical Care Fellow: Three Representative Simulation Cases

INTRODUCTION

During the course of fellowship training, pediatric critical care fellows are expected to develop a broad and in-depth understanding of the pathophysiology of multiple disease processes. The simulation-based pediatric critical care pathophysiology curriculum we present uses scenarios created by pediatric critical care fellows to teach complex pathophysiology.

METHODS

Each of the three representative cases presented covered a specific pathophysiologic process and required participants to acutely manage (1) an 18-year-old patient with altered mental status in the setting of hepatic encephalopathy; (2) an 8-year-old patient with sepsis, coagulopathy, and acute kidney injury; or (3) a 12-year-old patient with status epilepticus. Each case could be conducted in a simulation suite or an acute care unit bed. We assessed learners' knowledge and attitudes at the end of these simulations with a structured debriefing session and via completion of an evaluation form. The simulations were then followed by a 30-minute interactive didactic session on the topic.

RESULTS

Each scenario had six fellow participants who completed evaluations. After completing each of the three case scenarios presented, the majority of participating pediatric critical care fellows indicated that the content was relevant and sufficiently challenging. They also indicated that these simulation scenarios would improve their clinical practice.

DISCUSSION

This fellow-developed simulation curriculum is novel, highlighting the relevance for critical care fellows' understanding of realistic clinical scenarios while promoting advanced management skills with a pathophysiology focus.

3D-Printed Models for Surgical Planning in Complex Congenital Heart Diseases: A Systematic Review

Background: 3D technology support is an emerging technology in the field of congenital heart diseases (CHD). The goals of 3D printings or models is mainly a better analysis of complex anatomies to optimize the surgical repair or intervention planning. Method: We performed a systematic review to evaluate the accuracy and reliability of CHD modelization and 3D printing, as well as the proof of concept of the benefit of 3D printing in planning interventions. Results: Correlation studies showed good results with anatomical measurements. This technique can therefore be considered reliable with the limit of the operator's subjectivity in modelizing the defect. In cases series, the benefits of the 3D technology have been shown for describing the vessels anatomy and guiding the surgical approach. For intra-cardiac complex anatomy, 3D models have been shown helpful for the planification of intracardiac repair. However, there is still lack of evidence based approach for the usefulness of 3D models in CHD in changing outcomes after surgery or interventional procedures due to the difficulty to design a prospective study with comprehensive and clinically meaningful end-points. Conclusion: 3D technology can be used to improve the understanding of anatomy of complex CHD and to guide surgical strategy. However, there is a need to design clinical studies to identify the place of this approach in the current clinical practice.