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INTRODUCTION: Visiting a patient's living environment is important for occupational therapists, albeit costly and time consuming. MapIt is a mobile app producing a 3D representation of a home with the possibility of taking measurements. The purpose of this study was to explore the utility of a 3D representation of a patient's home for the clinical practice of occupational therapists. METHODS: Case study in which the unit of analysis was the utility of MapIt as defined by ISO 9241-11:2018 and as perceived by occupational therapists in four different occupational therapy clinical settings (Canada). Onsite observations with 10 occupational therapists (and their patients) were triangulated with data from interviews, diaries, and logbooks. Inductive thematic condensation led to emerging conclusions for each clinical setting, fuelling the next case data collection and analysis. Inter-case analysis was corroborated by additional occupational therapists, through crowdsourcing and expert review. RESULTS: Occupational therapists' clinical reasoning was supported by the MapIt app, enhancing and streamlining their work and inducing adjustments to treatment plans. Occupational therapists saw and measured the patient's environment remotely, to better match person-environment-occupation and promote occupational engagement. MapIt's 3D representations were judged useful to communicate between occupational therapists and stakeholders, to educate, allow continuity, optimise resources, minimise the patient's time on a waitlist for homecare, and save time for everyone. DISCUSSION: MapIt allowed occupational therapists who performed home visits to bring a little of the patients' home to their office, whereas occupational therapists without access to the home could see it and take measurements. MapIt's utility was confirmed for practice in clinical settings and for better continuity of care between settings. CONCLUSION: MapIt makes it possible for occupational therapists to 'walk around' the patient's home remotely, but the possibility of measuring environmental elements is a 3D model's true added value over currently used photos or short videos.
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SUMMARY STATEMENT: Screen-based simulation is an effective educational strategy that can enhance health care students' engagement with content and critical thinking across various topics, including mental health. To create relevant and realistic simulations, best-practice guidelines recommend the involvement of experts in the development process. We collaborated with persons with lived experience and community partners to cocreate a mental health-focused screen-based simulation. Cocreating meant establishing a nonhierarchical partnership, with shared decision-making from start to finish.In this article, we present 8 principles developed to guide our cocreation with persons with lived experience: person-centeredness, trauma-informed approaches and ethical guidance, supportive environment, two-way partnership, mutual respect, choice and flexibility, open communication, and room to grow. These principles provide practical guidance for educators seeking to engage the expertise of persons who have been historically disadvantaged in society. By sharing these principles, we strive to contribute to a more equitable process in simulation development and promote meaningful, respectful, and safer collaborations.
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OBJECTIVE: The objective of this review is to determine the extent of the literature on the use of virtual clinical simulation to teach health professional students about mental health. INTRODUCTION: Graduates of health professional programs need to be prepared to provide safe and effective care for persons with a mental illness in every practice context. Clinical placements in specialty areas are difficult to obtain and cannot ensure students will have opportunities to practice specific skills. Virtual simulation is a flexible and innovative tool that can be used in pre-registration health care education to effectively develop cognitive, communication, and psychomotor skills. Given the recent focus on virtual simulation usage, the literature will be mapped to determine what evidence exists regarding virtual clinical simulation to teach mental health concepts. INCLUSION CRITERIA: We will include reports that focus on pre-registration health professional students and use virtual simulation to teach mental health concepts. Reports that focus on health care workers, graduate students, patient viewpoints, or other uses will be excluded. METHOD: Four databases will be searched including MEDLINE, CINAHL, PsycINFO, and Web of Science. Reports with a focus on mental health virtual clinical simulation for health professional students will be mapped. Independent reviewers will screen titles and abstracts, then review the full texts of articles. Data from studies meeting the inclusion criteria will be presented in figures and tables, and described narratively. REVIEW REGISTRATION NUMBER: Open Science Framework https://osf.io/r8tqh.
Subject(s)
Mental Disorders , Mental Health , Humans , Students , Mental Disorders/therapy , Delivery of Health Care , Clinical Competence , Review Literature as TopicABSTRACT
BACKGROUND: Home adaptation processes enhancing occupational engagement rely on identifying environmental barriers, generally during time-consuming home visits performed by occupational therapists (OTs). Relevance of a 3D model to the OT's work has been attested, but a convenient and consumer-available technology to map the home environment in 3D is currently lacking. For instance, such a technology would support the exploration of home adaptations for a person with disability, with or without an OT visit. OBJECTIVE: The aim of this study was to document the development and acceptability of a 3D mapping eHealth technology, optimizing its contribution to the OT's work when conducting assessments in which home representations are essential to fit a person's needs. METHODS: A user-centered perspective, embedded in a participatory design framework where users are considered as research partners (not as just study participants), is reported. OTs, engineers, clinicians, researchers, and students, as well as the relatives of older adults contributed by providing ongoing feedback (eg, demonstrations, brainstorming, usability testing, questionnaires, prototyping). System acceptability, as per the Nielsen model, is documented by deductively integrating the data. RESULTS: A total of 24 stakeholders contributed significantly to MapIt technology's co-design over a span of 4 years. Fueled by the objective to enhance MapIt's acceptability, 11 iterations lead to a mobile app to scan a room and produce its 3D model in less than 5 minutes. The app is available for smartphones and paired with computer software. Scanning, visualization, and automatic measurements are done on a smartphone equipped with a motion sensor and a camera with depth perception, and the computer software facilitates visualization, while allowing custom measurement of architectural elements directly on the 3D model. Stakeholders' perception was favorable regarding MapIt's acceptability, testifying to its usefulness (ie, usability and utility). Residual usability issues as well as concerns about accessibility and scan rendering still need to be addressed to foster its integration to a clinical context. CONCLUSIONS: MapIt allows to scan a room quickly and simply, providing a 3D model from images taken in real-world settings and to remotely but jointly explore home adaptations to enhance a person's occupational engagement.
