Fig 4 - uploaded by Peter H. Jones
Content may be subject to copyright.
Conceptual approach for temporal master schedule (all names are fictitious). 

Conceptual approach for temporal master schedule (all names are fictitious). 

Source publication
Conference Paper
Full-text available
The Indian folk tale recorded in the well-known John Saxe poem tells of six blind men, each grabbing a different part of an elephant, and describing their impression of the whole beast from a single part’s perspective. So the elephant appears to each blind man to be like a snake, a fan, a tree, a rope, a wall, a spear. As the poem concludes: “And s...

Context in source publication

Context 1
... to execute the procedures. The research methods that have been described here get at the nature of practitioner behavior, including the goals and strategies that practitioners use to achieve them. Methods make it possible to evaluate new cognitive artifacts by determining the fit between an artifact and the work domain for which it is intended. Those who seek a way to understand the cognitive work in a domain will need to use such an approach in order to develop information technology that is authentically suited to practitioner needs. Cognitive artifacts that are computer-supported can add value to resource planning through prompting, and support for speculation, consequence assessment, and value-based decisions. Prompting. Coordinator interviews indicated that schedule development expertise relies on deep domain knowledge that can only be cultivated through time. Computer-supported artifacts might survey information in the distributed cognition for gaps and inconsistencies that go unnoticed. Nominating such item(s) for the schedule writer to consider would enrich and improve the cognition. Speculation. Coordinators and team members were routinely observed to speculate about different courses of action in anticipation of known and possible demands for care. Computer-supported artifacts can make it possible for coordinators to speculate about possible courses of action and then choose among them. Making it possible for coordinators to evaluate multiple options would make their consideration more thorough. Consequences. During schedule writing sessions, coordinators routinely mentioned the implications of the decisions they made while assigning resources. However, coordinators varied in their attention to implications. In one instance, a coordinator writing the same sample schedule as a previous coordinator no- ticed an opportunity for Medicare reimbursement that the other coordinator had not mentioned. Applying evaluation criteria to potential courses of action could make it possible to display the consequences of choices. For example, a system might show how billing could be increased or how costs could be minimized by opening one room or closing another. Value-Based Decisions. Schedule writing sessions showed how coordinators vary in their approach to scheduling decisions, based on different preferences that include making the day easy for the coordinator to manage, giving residents the optimal learning opportunity, and making the best match among practitioners and procedures. Digital artifacts can be used to develop templates of schedule planning strategies. Coordinators can review and employ a template that best matches their values and preferences. Templates can capture scheduling expertise and make it available for use by others, expanding schedule writing best practices beyond a single individual. Study of template use through time might open the way to insights about coordinator training and the development of schedule models to ease coordinator work loads. Developing a Conceptual Solution Based on Findings. Any distributed cognition includes cognitive artifacts that participants develop and use to support cognitive work. Naturalistic decision making environments such as health care are time pressured and resource constrained. For this reason, artifacts that participants create embody information that matters in that work setting. Artifacts are maintained as a part of everyday work because they are valued. Acute care cognitive research such as the work that has been described here reveals information about the work setting that can be used to create displays that are well-suited to staff work. Findings can also show how to create other types of displays that might add value to practitioner and coordinator daily activities. Displays of information that are related to staff assignments for patient procedures are typically organized according to the location where they are to be performed. As Figs. 1 and 3 show, the cases that are slated to be performed in the OR suite are listed according to each OR room. However, most of the cognitive work that coordinators perform in making and managing staff assignments is temporal – organized according to time. Any tools that are created to assist these complex and highly sensitive interactions need to reflect the underlying complexity of the work that is to be performed. An effective computer-supported version of the master schedule could improve team performance by supporting work in ways the research had revealed. How would an ambient intelligent environment assist clinician needs to schedule and manage anesthesia resource assignments? Because time is the key aspect here, designing a display according to time would allow the staff to easily track changes, to anticipate future events, and to respond to emerging situations. What has happened, what has been set in motion, what can be expected, and when each occurs is best depicted in time series representations. Figure 4 illustrates the conceptual design of a display that would complement cognitive work needs for resource scheduling and management. It also promises to improve on the previous paper copy of the master schedule by providing information that is structured, consolidated, retained, and explicit. Structured. The visual organization of the temporal display remains the same as it evolves. By using a graphic representation of time, the team can understand and evaluate relationships among events through time. Consolidated. Relevant variables such as age are shown within each case win- dow, which saves the need to locate and assemble information that is related but is displayed separately. Retained. Cases that were performed remain on the display in sequence. Com- ments and related information can be added. Retaining information makes it possible to review the entire day’s activities while they are still underway. Explicit. Aspects of schedule management that were previously hidden are made evident. These include requirements that are the objects of coordinator cognitive work such as showing conflicts and gaps in timing, and constraints on schedule management such as operating room clean-up and restocking. Taking a longer-term view, AmI displays could also support prompting, speculation, consequence assessment and value-based decisions in ways that physical artifacts cannot [24]. The cognitive artifact’s design must represent constraints and opportunities that are relevant in this domain. Because time is the key consideration, orga- nizing display design according to time allows users to easily track changes, to anticipate future events, and to respond to emerging situations. The case findings enable specification of information services to support information use toward discovery in the research laboratory. As with the acute care case, we must build upon an understanding of the use of significant artifacts. Artifacts analysis can reveal numerous needs of collaborating scientists in the discovery process. As with acute care, an “endogenous” issue remains to first understand the cognitive work practices in research and design interfaces and information services that meet the requirements of the work. The major purpose of reporting detailed findings from life sciences information use is to share real world situations of research practice and discovery with system designers, and reveal some key constraints to adoption of any new service. Again, these constraints come down to the cognitive artifacts, the printed article and lab notebook. These artifacts are so closely coupled to research work that design initiatives must focus on enhancing their properties for cognitive work. – In Redesign this discussion searchable we information maintain focus resources on cognitive and artifacts artifacts to access and related informa- information tion objects, objects and in the not context just retrievable of scientific artifacts. discovery. The article and the lab notebook – Activate offer cognitive a bottom-up artifacts, perspective specifically based the on printed actual article artifact and use. lab The notebook, trans- lation to enable to design communication derives from between both the these stable, artifacts physical and qualities distributed appreciated information in the systems. artifacts, and the cognitive use of artifacts and information objects. – We Reengineer suggest the a design contemporary challenge life of augmenting sciences laboratory the laboratory as an intelligent as a designed envi- information ronment space, with pervasive and to enhance access to inherently information effective objects physical at the point artifacts of need. to af- Activating ford interaction Cognitive with this Artifacts. information Two space. primary The field cognitive research artifacts into scientific involved in information discovery use were surfaces analyzed, three the opportunities: research article and the lab notebook. Both of these artifacts are significantly used and preferred in physical, printed format. These are tangible artifacts with well-defined use characteristics, and people will continue to work with them as tangible artifacts for the foreseeable future, re- gardless of technology. As relatively stable genres, they provide natural platforms for augmentation starting with minimalist interactivity. We are encouraged by the innovation of ambient systems that start with tangible objects that translate physical actions on workspaces, desks, and walls to computational actions [14]. AmI designers should consider enhancing the interaction of lab artifacts with various resources through specific information assignments to open interaction from the physical artifact to information services and databases. The augmented A-Book [21] demonstrates such an example of combining the paper artifact and electronic tools for the lab notebook. Biologists cooperatively designed the A-Book prototype as a portable system to ...

Citations

... In contrast to this body of applied research about scientific laboratories focusing on education, training and instructional psychology, there is another prominent field of applied research focusing on optimizing work processes. The Human Factors and Ergonomics (HFE) studies conducted on scientific research laboratories as a work domain are minimal (Jones, 2005;Jones and Nemeth, 2004). This is probably because historically HFE as a discipline has emphasized naturalistic studies of real-life "in the wild", in order to contextualize laboratorybased experimental results (Kant and Burns, 2016). ...
Article
Full-text available
Laboratories in the pharmaceutical industry see an ongoing transition towards continuous manufacturing by means of tighter integration of novel and existing technologies and, thus, the introduction of new work methodologies. However, technological studies focusing novel manufacturing methodologies usually do not address social aspects, while social sciences studies on the other hand rarely address scientific and industrial aspects of manufacturing processes and therein involved personnel. Hence, the scientific literature lacks systematic analyses of human and social factors in such continuous manufacturing environments. Therefore, the study provides a literature review of social research of scientific laboratories and lab work. Then, ethnographic field research is conducted in a laboratory for continuous manufacturing. One by one a team of six lab workers are observed and interviewed during a typical day shift (N=6). All sessions are recorded on video (4h 47mins) and transcribed to enable a qualitative content analysis. The overall work environment of a research and development chemistry laboratory of a big multinational pharma company is described including the general laboratory workflow. Finally, a list of 96 user needs as well as user role descriptions of the participating lab workers are generated. One key finding of the study is that the work culture in this lab follows a mode of constant debate trying to contain knowledge transfer in teams top-down as well as bottom-up, e.g. during experimenting with hardware setups trying not to compromise the chemical recipe following a research hypothesis. In this regard, digitization efforts like introducing electronic lab notebooks should prioritize to promote and support communication and collaboration over features and technological enhancements. Specifically, learning can be considered a shared responsibility to promote a common work process knowledge that is needed to successfully act and react in the context of continuously changing experiment setups and team compilations. Based on these results, the authors highlight the importance of holistic upfront user research to uncover underlying human and social factors as determinants for the success of socio-technical systems. All in all, with this study the authors provide a data set, which may serve as a foundation for future research and development projects in similar, industrial research working conditions, following a human-centered design approach. (see orginal open-access: https://www.businesschemistry.org/article/journal-of-business-chemistry-june-2020/user-research-in-pharma-rd-contextual-inquiry-for-the-elicitation-of-user-needs-in-a-chemistry-laboratory-for-analytical-method-development-within-a-corporate-continuous-manufacturing-organizati/)
... We will explore use of PHIMed as a cognitive artefact, in which the tool itself captures critical features of the issues it is trying to resolve and the deeper structures of individual and team cognition. 44 The DiCoT lens will allow us to explore the 'soft periphery' 21 of PHIMed, such as how users start thinking about medical conditions, medication and the integration of all this information, how they enter/record information and if necessary amend or delete it, and how they fashion the content in relation to their own experiences of usability and how it is perceived, received and used by healthcare professionals. Our stratified sampling strategy will also allow us to comment on the different affordances of paper versus electronic PHIMed. ...
Article
Full-text available
Introduction Risks of poor information transfer across health settings are well documented, particularly for medication. There is also increasing awareness of the importance of greater patient activation. Patients may use various types of patient-held information about medication (PHIMed) to facilitate medication transfer, which may be paper or electronic. However, it is not known how PHIMed should best be used, whether it improves patient outcomes, nor is its key ‘active ingredients’ known. Discussion with patients and carers has highlighted this as a priority for research. We aim to identify how PHIMed is used in practice, barriers and facilitators to its use and key features of PHIMed that support medicines optimisation in practice. Methods and analysis This study will take place in Greater London, England. We will include patients with long-term conditions, carers and healthcare professionals. The study has four work packages (WPs). WP1 involves qualitative interviews with healthcare professionals (n=16) and focus groups with patients and carers (n=20), including users and non-users of PHIMed, to study perceptions around its role, key features, barriers and facilitators, and any unintended consequences. WP2 will involve documentary analysis of how PHIMed is used, what is documented and read, and by whom, in a stratified sample of 60 PHIMed users. In WP3, we will carry out a descriptive analysis of PHIMed tools used/available, both electronic and paper, and categorise their design and key features based on those identified in WP1/2. Finally, in WP4, findings from WPs 1–3 will be integrated and analysed using distributed cognition as a theoretical framework to explore how information is recorded, transformed and propagated among different people and artefacts. Ethics and dissemination The study has National Health Service ethics approval. It will provide initial recommendations around the present use of PHIMed to optimise patient care for patients, carers and healthcare professionals.
... Nurses' paper brains exhibit the six minimum traits of a cognitive artifact in a distributed cognition system as put forth by Jones and Nemeth [34]: accuracy, efficiency, reliability, informativeness, clarity, and malleability. Current attempts at electronic tools may fail to be incorporated into nursing practice because they fall short of these six required traits. ...
Article
Background: Standardizing nursing handoffs at shift change is recommended to improve communication, with electronic tools as the primary approach. However, nurses continue to rely on personally created paper-based cognitive artifacts - their "paper brains" - to support handoffs, indicating a deficiency in available electronic versions. Objective: The purpose of this qualitative study was to develop a deep understanding of nurses' paper-based cognitive artifacts in the context of a cancer specialty hospital. Methods: After completing 73 hours of hospital unit field observations, 13 medical oncology nurses were purposively sampled, shadowed for a single shift and interviewed using a semi-structured technique. An interpretive descriptive study design guided analysis of the data corpus of field notes, transcribed interviews, images of nurses' paper-based cognitive artifacts, and analytic memos. Results: Findings suggest nurses' paper brains are personal, dynamic, living objects that undergo a life cycle during each shift and evolve over the course of a nurse's career. The life cycle has four phases: Creation, Application, Reproduction, and Destruction. Evolution in a nurse's individually styled, paper brain is triggered by a change in the nurse's environment that reshapes cognitive needs. If a paper brain no longer provides cognitive support in the new environment, it is modified into (adapted) or abandoned (made extinct) for a different format that will provide the necessary support. Conclusions: The "hidden lives" - the life cycle and evolution - of paper brains have implications for the design of successful electronic tools to support nursing practice, including handoff. Nurses' paper brains provide cognitive support beyond the context of handoff. Information retrieval during handoff is undoubtedly an important function of nurses' paper brains, but tools designed to standardize handoff communication without accounting for cognitive needs during all phases of the paper brain life cycle or the ability to evolve with changes to those cognitive needs will be underutilized.
Chapter
This chapter explores the prescription and practice of safe work method statements (SWMS) to understand whether they enhance or hinder resilience engineering (RE). SWMS are a regulated construction safety strategy in Australia but their specific role in safety is unknown. In RE reconciling the gap between prescription and practice of work plays an important role in achieving safety; however, the specific links between SWMS, RE and safety have not been empirically investigated. Semi-structured interviews with managers, supervisors, and workers showed across three construction projects showed that SWMS as prescribed are a cognitive artefact, act as a form of control, involve a process, and act as a tool, while SWMS in practice were expected to provide protection and act as a tool. Findings suggest that SWMS, if used flexibly, will enhancing RE a construction safety strategy. This research provides empirical evidence on the utility of SWMS for improving construction safety, introduces an integrative framework for RE for investigating work-as-imagined and work-as-done, and provides additional insights of how social interactions initiated through SWMS can enhance safety and organizational behaviour. The research will be useful for developing and deploying SWMS deployed more effectively in construction projects.KeywordsConstruction safetyResilience engineeringSafe work method statementsConstruction project management
Chapter
Full-text available
The construction industry is frequently cited for its poor safety performance. In spite of this, many countries continue to rely on contemporary, prescriptive approaches to improve performance in the sector. In Australia, one such approach, Safe Work Method Statements (SWIMS), have been mandated in construction work. However, there is limited empirical research on SWIMS, so their ability to improve health and safety is largely unknown. This is a significant gap in our knowledge. Recent research suggests that Resilience Engineering (RE), which is an innovation in organisational health and safety management, offers a promising approach, by understanding the gap between work as imagined and work as performed. SWIMS provide a practical tool by which such a gap can be investigated in construction settings. Recent research also suggests that organisations are part of a broader socio-technical system. As such, gaining a view of the different elements of the system is an important first step towards developing an understanding of the role SWIMS play in health and safety risk management. This paper first describes the socio-technical system that constitute construction work; followed by an exploration of the meaning SWIMS as ascribed by the external agencies as the first ‘outsider’ of this system. It is based on an analysis of data collected as part of a larger PhD study of the prescription and practice of SWMS in the Australian construction industry.
Chapter
The end of the twentieth century saw a proliferation of Information and Communication Technologies (ICTs), which has changed the way our society shares, manipulates, and communicates information. Web 2.0 technologies have become ubiquitous, and emerging Web 3.0 (semantic) technologies are beginning to impact the practice of the chemical sciences. What are the implications of these evolving technologies for twenty-first century educators? Are traditional programs leading to the expectations of today's digitally native student and taking full advantage of twenty-first century ICT-enabled cognitive skills that adequately prepare them for tomorrow's world? What is the role of the social and semantic Web, mobile learning and apps, augmented reality, open data, new cognitive artifacts, and the Web application programming interface (API)? What can distributed cognition tell us, and has social Web-enabled rapid intragenerational learning resulted in a “second-level digital divide,” where students are using digital artifacts that have changed the nature of cognitive processes from the ones their elders have employed? This chapter will attempt to contextualize contemporary ICT challenges to education and the practice of science in a perspective of relevance to twenty-first century chemical educators.
Article
Growth of novel small-scale technologies (micro- and nanotechnology) is expected to change the nature of work in the future. Currently, Human Factors and Ergonomics (HFE) research in small-scale technologies, especially nanotechnology, is in its infancy. Since small-scale technologies are expected to bring about radical changes, aligning HFE to these technologies allows for usable products from the inception, rather than an afterthought. This paper presents an ethnographic study conducted on lab-on-a-chip (LOC) technology in the area of small-scale fluidics. LOC devices are small devices where laboratory processes are shrunk into miniature size, often no bigger than a credit card. LOC technology promises low-cost point-of-care devices in health care, as well as applications in other emerging sectors. In this study, the fabrication and testing of the LOC devices using soft lithography techniques were addressed in detail. Specifically, it is shown that device fabrication in the laboratory entails a considerable amount of skilled workmanship on part of the researcher. Further, this study was conducted at a research laboratory at the University of Waterloo. Addressing laboratory research as a domain of study is a novel venture for HFE. With the growth of universities as major players in the innovation system, the university research laboratory has emerged as an important aspect of the commercialization and technology transfer process. Thus, conducting research in university laboratories will, in the long run, allow HFE professionals to play a greater role in the innovation process linking the university, industry and society. Thus, emphasizing the principle: good economics requires good ergonomics.
Article
To better understand and identify vulnerabilities and risks in the ICU patient discharge process, which provides evidence for service improvement. Previous studies have identified that 'after hours' discharge and 'premature' discharge from ICU are associated with increased mortality. However, some of these studies have largely been retrospective reviews of various administrative databases, while others have focused on specific aspects of the process, which may miss crucial components of the discharge process. This is an ethnographic exploratory study. Distributed cognition and activity theory were used as theoretical frameworks. Ethnographic data collection techniques including informal interviews, direct observations and collecting existing documents were used. A total of 56 one-to-one interviews were conducted with 46 participants; 28 discharges were observed; and numerous documents were collected during a five-month period. A triangulated technique was used in both data collection and data analysis to ensure the research rigour. Under the guidance of activity theory and distributed cognition theoretical frameworks, five themes emerged: hierarchical power and authority, competing priorities, ineffective communication, failing to enact the organisational processes and working collaboratively to optimise the discharge process. Issues with teamwork, cognitive processes and team members' interaction with cognitive artefacts influenced the discharge process. Strategies to improve shared situational awareness are needed to improve teamwork, patient flow and resource efficiency. Tools need to be evaluated regularly to ensure their continuous usefulness. Health care professionals need to be aware of the impact of their competing priorities and ensure discharges occur in a timely manner. Activity theory and distributed cognition are useful theoretical frameworks to support healthcare organisational research.
Article
The most common change facing nurses today is new technology, particularly bar-coded medication administration technology (BCMA). However, there is a dearth of knowledge on how BCMA alters nursing work. This study investigated how BCMA technology affected nursing work, particularly nurses’ operational problem-solving behavior. Cognitive systems engineering observations and interviews were conducted after the implementation of BCMA in three nursing units of a freestanding pediatric hospital. Problem-solving behavior, associated problems, and goals were specifically defined and extracted from observed episodes of care. Three broad themes regarding BCMA’s impact on problem solving were identified. First, BCMA allowed nurses to invent new problem-solving behavior to deal with pre-existing problems. Second, BCMA made it difficult or impossible to apply some problem-solving behaviors that were commonly used pre-BCMA, often requiring nurses to use potentially risky workarounds to achieve their goals. Third, BCMA created new problems that nurses were either able to solve using familiar or novel problem-solving behaviors, or unable to solve effectively. Results from this study shed light on hidden hazards and suggest three critical design needs: (1) ecologically valid design; (2) anticipatory control; and (3) basic usability. Principled studies of the actual nature of clinicians’ work, including problem solving, are necessary to uncover hidden hazards and to inform health information technology design and redesign.