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Human factors analysis provides a useful framework for understanding and rectifying the causes of error and unreliability, particularly in complex systems such as critical care.Learn how to keep your cool and get the results you want when emotions flare. These include executive 'adoption' of clinical areas, systematic methods for identifying hazards and reflective learning from error, and a range of techniques for improving teamworking and communication. Technical interventions should be embedded in everyday practice by the adjunctive use of non-technical (behavioural) interventions. Task standardization (best practice guidelines) and simplification (bundling or checklists) should be implemented where scientific evidence is strong, or adopted subject to further research ('dynamic standardization'). Substantial opportunities exist for improving the safety and reliability of care of critically ill patients at the level of the task, the individual healthcare provider, and the organization or system. Critical illness represents a high-risk, complex system spanning speciality and geographical boundaries. We conducted a narrative review based on a Medline search (1950-March 2010) combining intensive/critical care (units) with medical errors, patient safety, or delivery of healthcare keyword and Internet search 'human factors' or 'ergonomics'. We adopt a human factors approach to examine determinants of clinical reliability in the management of critically ill patients. Human factors analysis, widely used in industry, provides insights into how interactions between organizations, tasks, and the individual worker impact on human behaviour and affect systems reliability. Critically ill patients are particularly susceptible to error and unreliable care. Unreliable delivery of best practice care is a major component of medical error. Practical program planning strategies are evolving to meet the complexity of a novel learning activity that engages providers in their actual work environment. DISCUSSION: The evidence surrounding in situ simulation efficacy is still emerging, but the existing research is promising. A positive impact of in situ simulation on learning and organizational performance has been demonstrated in a small number of studies. The overall quality of in situ simulation studies is low. Approaches to design, delivery, and evaluation of the simulations were highly variable across studies. RESULTS: In situ simulations have been applied to foster individual, team, unit, and organizational learning across several clinical and nonclinical areas.

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Of these, 29 full articles were retrieved and coded using a standard data extraction protocol (kappa = 0.90). METHODS: A total of 3190 articles were identified using academic databases and screened for descriptive accounts or studies of in situ simulation programs. This article provides a systematic review of the in situ simulation literature and compares the state of the science and practice against principles of effective education and training design, delivery, and evaluation. However, as this is a relatively new strategy, best practices for the design and delivery of in situ learning experiences have yet to be established.

This blending of learning and work environments may provide a powerful method for continuing education. While this frequently occurs within a simulation center, in situ simulations occur within an actual clinical environment. Introduction: Education in the health sciences increasingly relies on simulation-based training strategies to provide safe, structured, engaging, and effective practice opportunities.
