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Achieving reliable instrument reprocessing requires finding the right balance among cost, productivity, and safety. However, there have been few attempts to comprehensively examine sterile processing department (SPD) work systems. We considered an SPD as an example of a socio-technical system - where people, tools, technologies, the work environment, and the organization mutually interact - and applied work systems analysis (WSA) to provide a framework for future intervention and improvement. The study was conducted at two SPD facilities at a 700-bed academic medical center servicing 56 onsite clinics, 31 operating rooms (ORs), and nine ambulatory centers. Process maps, task analyses, abstraction hierarchies, and variance matrices were developed through direct observations of reprocessing work and staff interviews and iteratively refined based on feedback from an expert group composed of eight staff from SPD, infection control, performance improvement, quality and safety, and perioperative services. Performanons during case cart preparation, improving communication with the OR, and improving workspace and technology design could enhance performance in instrument reprocessing. Copyright © 2019 Emerald Publishing Limited.High patient satisfaction is not simply a customer service goal; it is an important dimension of quality and part of financial incentives and public reporting requirements. However, patient experience is often siloed within health system organizational charts and considered separately from quality and safety initiatives, instead of being seen predominantly as a "customer service" initiative. Representatives from 52 health care systems across the United States completed an online survey to explore both the processes and infrastructure hospitals employ to improve patient experience, and the metrics hospitals use to assess the quality of patient experience beyond patient satisfaction survey data. When asked about performance metrics beyond satisfaction, most hospitals or systems noted other metrics of the entire patient experience such as the rate of complaints or grievances and direct feedback from patient and family advisors. Additionally, respondents suggested that a broader definition of "quality of the patient experience" may be appropriate to encompass measures of access, clinical processes, and quality of care and patient safety outcomes. Almost all respondents that we surveyed listed metrics from these less traditional categories, indicating that performance improvement within the patient experience domain in these organizations is linked with other areas of hospital performance that rely on the same metrics, such as clinical quality and patient safety. Copyright © 2019 Emerald Publishing Limited.Although it is widely acknowledged that health care delivery systems are complex adaptive systems, there are gaps in understanding the application of systems engineering approaches to systems analysis and redesign in the health care domain. Commonly employed methods, such as statistical analysis of risk factors and outcomes, are simply not adequate to robustly characterize all system requirements and facilitate reliable design of complex care delivery systems. This is especially apparent in institutional-level systems, such as patient safety programs that must mitigate the risk of infections and other complications that can occur in virtually any setting providing direct and indirect patient care. The case example presented here illustrates the application of various system engineering methods to identify requirements and intervention candidates for a critical patient safety problem known as failure to rescue. Detailed descriptions of the analysis methods and their application are presented along with specific analysis artifacts related to the failure to rescue case study. Given the prevalence of complex systems in health care, this practical and effective approach provides an important example of how systems engineering methods can effectively address the shortcomings in current health care analysis and design, where complex systems are increasingly prevalent. Copyright © 2019 Emerald Publishing Limited.Only recently has physical space design become more widely recognized as playing a critical role in delivery of care, with an emerging body of literature on the application of human factors approaches to design and evaluation. This chapter describes the use of human factors approaches to develop and conduct an evaluation of a proposed Neonatal Intensive Care Unit redesign in a Midwestern children's hospital. Methods included observations and knowledge elicitation from stakeholders to characterize their goals, challenges, and needs. This characterization is integral to informing the design of user-centered solutions, including physical space design. We also describe an approach to evaluating the proposed design that yielded actionable recommendations specific to hospital-driven design goals. Copyright © 2019 Emerald Publishing Limited.Changes in the physical environments of health care settings have become increasingly common to meet the evolving needs of the health care marketplace, new technologies, and infrastructure demands. GSK-3008348 cell line Physical environment change takes many forms including new build construction, renovation of existing space, and relocation of units with little to no construction customization. The interrelated nature of the complex socio-technical health care system suggests that even small environmental modifications can result in system-level changes. Environmental modifications can lead to unintended consequences and introduce the potential for latent safety threats. Engaging users throughout the change lifecycle allows for iterative design and testing of system modifications. This chapter introduces a flexible process model, PROcess for the Design of User-Centered Environments (PRODUCE), designed to guide system change. The model was developed and refined across a series of real-world renovations and relocations in a large multihospital health care system. Utilizing the principles of user-centered design, human factors, and in-situ simulation, the model engages users in the planning, testing, and implementation of physical environment change. Case studies presented here offer exemplars of how to modify the model to support individual project objectives and outcomes to assess at each stage of the project. Copyright © 2019 Emerald Publishing Limited.