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This paper describes the CQI (Continuous Quality Improvement) process of collecting and analyzing field level qualitative data in an ongoing cycle. This data can be used to guide decision-making for effective emergency response. When medical and community components are integrated from the earliest stages of the disaster, it allows for true collaboration and supports the CQI process to be responsive to evolving data. Our CQI process identified and addressed gaps in communication and coordination, problems with strategy implementation and, on a conceptual level, gaps in the disaster response model. The 2015 Ebola crisis in Sierra Leone provided a case study demonstrating improved effectiveness when a CQI approach is implemented in the Humanitarian Setting, equally in terms of reducing disease spread, and in meeting the broader needs of the population served.
Chapter 4 lays out the book’s adaptive, reflexive capability view of socially embedded individuals. An important reason we ought to see people as adaptive is that this provides a basis for explaining how they make choices and act in changing, often highly uncertain environments – large worlds rather than small Bayesian ones. When we accept that choice is context-dependent, we need to be able to explain individuals’ behavior in the most demanding circumstances they can face. An implication of this framing is that, as in Simon’s procedural rationality view, behaviorally speaking there is really no maximization – only continual adjustment over time. To capture all this, I use a stock flow, state description/process description characterization of adaptive individuals, and then model their behavior more specifically as a capability choice/action capability pattern of behavioral adjustment that works via a reflexive feedback loop. Given that this individual conception also needs to satisfy the two identity criteria I used in Part I to evaluate the standard Homo economicus individual conception, I then show how an adaptive, capability individual conception successfully individuates people as distinct and independent. In light of how undemocratic economic and social institutions limit people’s capability development, I also discuss the circumstances under which they can be reidentified as the same individuals over time.
The next generation of high-power lasers enables repetition of experiments at orders of magnitude higher frequency than what was possible using the prior generation. Facilities requiring human intervention between laser repetitions need to adapt in order to keep pace with the new laser technology. A distributed networked control system can enable laboratory-wide automation and feedback control loops. These higher-repetition-rate experiments will create enormous quantities of data. A consistent approach to managing data can increase data accessibility, reduce repetitive data-software development and mitigate poorly organized metadata. An opportunity arises to share knowledge of improvements to control and data infrastructure currently being undertaken. We compare platforms and approaches to state-of-the-art control systems and data management at high-power laser facilities, and we illustrate these topics with case studies from our community.
This conclusion weaves together the wide-ranging contributions of this volume by considering data-driven personalisation as an internally self-sustaining (autopoietic) system. It observes that like other self-sufficient social systems, personalisation incorporates and processes new data and thereby redefines itself. In doing so it redefines the persons who participate in it, transforming them into ‘digital’ components of this new systems, as well as influencing social arrangements more broadly. The control that elite corporate and governmental entities have over systems of personalisation – which have been diversely described by contributors to this volume – reveals challenges in the taming of personalisation, specifically the limits of traditional means by which free persons address new phenomena – through consent as individuals, and democratic process collectively.
This final chapter of the Cambridge Handbook of Health Research Regulation revisits the question posed in the introduction to the volume: What could a Learning Health Research Regulation System (LHRRS) look like? The discussion is set against the background of debates about the nature of an effective learning healthcare system, building on the frequently expressed view that any distinction between systems of healthcare and health research should be collapsed or at the very least minimised as far as possible. The analysis draws on many of the contributions in this volume about how health research regulation can be improved, and makes an argument that a framework can be developed around an LHRRS. Central to this argument is the view that successful implementation of an LHRRS requires full integration of insights from bioethics, law, social sciences and the humanities to complement and support the effective delivery of health and social value from advances in biomedicine.
Chapter 7 outlines the strategies that can be used throughout all stages of the research to maximise its impact. It highlights the importance of developing groups of stakeholders who can act in an advisory capacity throughout the study, ensuring the study is relevant, but also facilitating the incorporation of findings into changes in practice. The chapter also proposes the establishment of regular feedback loops, where findings from the study are shared on a continuous basis and not only after the study has ended. The frequency and format of feedback is also discussed and the chapter proposes different alternatives for disseminating information (i.e. traditional written reports, infographics, videos, podcasts, etc.).
In any given interaction, what counts as smart or insightful or correct, can be produced through feedback loops: Face-to-face, nods of agreement suggest we have the right answer. Online, the “best answer” moves to the top of Yahoo Answers, the “top definition” is the first seen in Urban Dictionary, and the most-viewed hits for “succinct pronunciation?” moves to the top of a google search. All the other answers drift further down your screen. This chapter illustrates both the positive and negative effects of feedback loops on how we talk about language and how we function as citizens. We’ll look at how feedback loops have the potential both to create a reality through the senses of shared identity and positive affiliation they can create and to put up barriers that keep people isolated from others’ ideas. Then, we’ll look closely at one case at Duke University in which citizen sociolinguists were able to disrupt entrenched social norms by breaking down those feedback loops and exposing different assumptions behind the ways we use language.
Depression is a complex public health problem with considerable variation in treatment response. The systemic complexity of depression, or the feedback processes among diverse drivers of the disorder, contribute to the persistence of depression. This paper extends prior attempts to understand the complex causal feedback mechanisms that underlie depression by presenting the first broad boundary causal loop diagram of depression dynamics.
Method
We applied qualitative system dynamics methods to map the broad feedback mechanisms of depression. We used a structured approach to identify candidate causal mechanisms of depression in the literature. We assessed the strength of empirical support for each mechanism and prioritized those with support from validation studies. Through an iterative process, we synthesized the empirical literature and created a conceptual model of major depressive disorder.
Results
The literature review and synthesis resulted in the development of the first causal loop diagram of reinforcing feedback processes of depression. It proposes candidate drivers of illness, or inertial factors, and their temporal functioning, as well as the interactions among drivers of depression. The final causal loop diagram defines 13 key reinforcing feedback loops that involve nine candidate drivers of depression.
Conclusions
Future research is needed to expand upon this initial model of depression dynamics. Quantitative extensions may result in a better understanding of the systemic syndrome of depression and contribute to personalized methods of evaluation, prevention and intervention.
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