Abstract
Background
Digital health technologies (DHTs) are increasingly implemented to improve efficiency, quality, and patient experience. However, conditions that could influence the impact on well-being of healthcare professionals (HCPs) are rarely assessed.
Objective
To develop a tool to support policymakers, hospital administrators, and implementation teams in considering workforce experience and well-being implications of DHTs on HCPs.
Methods
A mixed-methods study was conducted in three Dutch university medical centres. First, we re-analysed a scoping review on DHT-implementation, applying criteria focusing on HCP-related determinants and thematically analysing these within a modified Work-System model and Quintuple Aim framework. Second, we conducted a prioritisation survey using the Reweighted Priority-Setting tool to rank themes related to Care-team well-being, one of the Quintuple Aim domains. Third, we explored the highest-ranked themes in focus-groups and interviews with HCPs and stakeholders. Finally, we synthesised findings into a tool.
Results
From 73 eligible studies we extracted determinants, generating themes and subthemes, of which 44 mapped to Care-team well-being, and were used as survey items. Twelve respondents (eight HCPs and four policy-staff) prioritised these. Top-ranked themes included perceived benefits, acceptance, involvement in development and implementation, ‘champions’, training and skills, communication, and role clarity. Analysis of two focus-groups and three interviews yielded six domains: acceptance, champions, process and development, role of the professional, communication, and training. These informed a 14-item checklist for use during DHT-implementation.
Conclusion
We developed a reflective checklist to support structured consideration of conditions shaping workforce experience in DHT-implementation. The tool offers a starting point for embedding workforce conditions in DHT-governance.
Keywords
Introduction
Digital health technologies (DHTs) are increasingly embedded in healthcare systems worldwide.1,2 These technologies are promoted as means to improve care quality, streamline workflows, enable personalised care, reduce the workload of healthcare professionals (HCPs), and the pressure on the health system.1,3–5 However, despite these promises, the impact of DHTs on HCPs, remains insufficiently assessed in most implementation processes. Evidence shows that DHTs may unintentionally increase workload, generate role ambiguity, and contribute to technostress, while potential benefits for HCPs are often uncertain or delayed.3,6–10 Although HCP well-being is a core component of the Quintuple Aim,11,12 their perspectives are rarely incorporated in a consistent way during DHT development and implementation. 12 As a result, effects on workload, professional roles, and day-to-day practice remain largely invisible, even though these factors critically influence adoption, quality of care, and long-term sustainability.10,13–15
Multiple reviews have documented barriers and facilitators influencing HCP adoption of DHT and highlighting recurring issues such as workflow disruption, usability, training requirements, and competency gaps.10,16–18 These studies describe determinants across settings and professional groups, including implementation barriers and facilitators, and outline competencies required for effective use. However, these insights are typically reported as conceptual determinants or competency domains and provide limited guidance on how implementation teams can translate them into concrete, routine prompts for governance decisions and implementation planning.
Insufficient attention to HCPs’ perspectives risks undermining not only staff well-being but also the intended patient benefits of DHTs, as professionals are then less able or willing to integrate new tools effectively into their workflow.19–21 Understanding HCPs’ experiences with DHTs requires a sociotechnical lens on how technologies interact with people, teams, norms, values, workflows, and power structures within healthcare work systems. 22 Several implementation frameworks consider professional perspectives to some extent, including the Technology Acceptance Model, Measurement Instrument for Determinants of Innovation, and the Consolidated Framework for Implementation Research.23–25 These frameworks identify relevant determinants, but offer limited guidance for evaluating, documenting, and acting on the impact of DHT implementation on HCPs. These frameworks fail in translating conceptual determinants into concrete prompts for daily practice, and a HCP-specific framework is currently missing.
Although determinants of DHT implementation and relevant competency domains are increasingly well described, implementation teams still lack concise and pragmatic tools to systematically reflect on workforce experience and on implementation conditions that may safeguard or undermine HCP well-being during DHT implementation. 17 This gap may hinder informed decision-making and may contribute to implementation failure or increased workforce strain. To address this gap, we aimed to develop an evidence-informed and pragmatic tool that supports policymakers and implementation teams in assessing how DHTs affect HCPs, and in integrating these considerations into implementation planning and governance.
Methods
Study design and setting
We conducted a multi-step, sequential mixed-methods exploratory study as part of a collaboration of three Dutch university medical centres. We performed a re-analysis of a scoping review within this collaboration (Step 1) (Kusters et al., submitted), a priority-setting assessment (Step 2), focus-groups and interviews (Step 3), and tool development (Step 4). Results from Step 1 informed the survey in Step 2. Prioritised outcomes from Step 2 guided the topics for the focus-groups and interviews in Step 3. Results from Step 3 were used to develop the tool in Step 4. A study flow diagram is provided in Figure 1. The figure above illustrates how the different phases of this study follow each other and how these eventually led to the creation of the tool.
Step 1: Re-analysis of a scoping review
Step 1.1: Methods of the original scoping review
This study builds on a scoping review conducted within our collaboration (Kusters et al., submitted). The review searched MEDLINE (via Ovid) and Embase (via https://Embase.com) for peer-reviewed studies published in Dutch or English between 2014 and March 2024. An information specialist developed the search strategy combining terms for digital health technology, hospital setting, and implementation determinants (full strategies in Supplementary material, Text S1). As this was a review of published studies, ethical approval was not applicable and the protocol was not registered. Titles/abstracts and full texts were screened independently by two reviewers. Discrepancies were resolved through discussion and, if necessary, consultation with a third reviewer. The review included quantitative, qualitative, mixed-methods, proof-of-concept studies, and reviews reporting implementation determinants (e.g., barriers, facilitators, indicators) related to the implementation of patient-oriented DHTs in hospital settings, without geographical restrictions. Technologies were considered patient-oriented when they provided services directly to patients (e.g., self-monitoring, telemonitoring). Studies focusing solely on technologies aimed at healthcare professionals (e.g., electronic health records) were excluded. Determinants were extracted using a standardised form. Data extraction was performed by one reviewer and checked by a second. Implementation determinants were classified using the Tailored Implementation for Chronic Diseases (TICD) checklist. 26
Step 1.2: Re-analysis of the original scoping review
For the present study, we re-analysed the scoping-review dataset using stricter criteria focused on workforce considerations. We included only studies that explicitly reported determinants, barriers, or facilitators related to HCPs’ work, roles, workload, competencies/training, acceptance, or other conditions affecting workforce experience in DHT implementation. We excluded studies that focused solely on patient uptake or patient outcomes without explicit HCP-related determinants. Screening decisions for the re-analysis were made by two reviewers. Discrepancies were resolved through discussion and, if necessary, consultation with a third reviewer. From the eligible studies, TB extracted HCP-related determinants (barriers and facilitators), which were verified by MK. Determinants were then analysed using Braun and Clarke’s reflexive thematic analysis. 27 TB conducted coding and theme development, while MK reviewed and refined the codes and themes. Disagreements were resolved through discussion until consensus was reached. To explore how determinants interact within complex work systems, the themes were subsequently mapped onto a modified Work-System Model capturing interactions between technology, tasks, people, and organisational context. 28 This mapping was performed by TB and checked by MK. A detailed description of the analytic process and modifications to the Work-System Model is provided in the Supplementary Material (Text S2).
Step 2: Survey and priority-setting
The themes mapped on the modified Work-System Model were classified following the five categories of the Quintuple Aim.12,29 All themes assigned to Care-team well-being were selected and converted to survey items. The survey, designed to support prioritisation rather than statistical inference, used a six-point scale (0 = no priority; 5 = high priority) to elicit priority scores from participants. We used purposive and snowball sampling via institutional mailing lists of the centres where the authors work, and professional networks to recruit survey participants. This was chosen in order to recruit an information-rich group with direct experience in DHT implementation. Participants were eligible if they were HCPs (e.g., physicians, nurses) or hospital employees (e.g., IT specialists, project managers) with current or recent involvement in DHT-implementation within hospital settings. The survey was open throughout November 2024 and administered via the Research Electronic Data Capture (REDCap) web application.30,31 The survey was offered in Dutch, and later translated to English, for this publication (supplementary materials, Text S3). The survey aimed to obtain scores for the priority-setting of items, which would inform further qualitative exploration and tool development. We included submissions with 100% item completion. After obtaining the scores, we used a reweighted range voting approach using the Reweighted Priority-Setting (REPS) tool to obtain a ranked list of themes based on priority scores. 32 Participants score each theme on a fixed scale and these scores are the input for the REPS tool. The tool uses reweighted range voting to reweigh each participant’s influence after assigning a rank to a theme. The sum of the individual participant’s scores on previous ranked themes result in a decline of their weight for assigning a rank to the next theme. The higher their previous scores on ranked themes, the lower their weight. This makes REPS suitable for situations where the goal is to reflect group priorities, 33 even in small, information-rich samples. Note that it is not a consensus method. We used the unmodified range voting method in the tool. Any ties during ranking with the tool were resolved by selecting the theme with the highest unweighted sum score first. The REPS-tool’s top-10 ranked themes were selected for qualitative exploration. It functioned as a pragmatic funnel, providing focus from the broad evidence base to specific topics of interest for in-depth qualitative exploration and checklist development. As a sensitivity check, we also performed an unweighted sum score ranking of all themes.
Step 3: Focus-groups and interviews
Two focus-groups of approximately 120 minutes each were organised through online video calls in December 2024 to facilitate participation across sites. Participant recruitment was done similarly to that for the survey. We used purposive sampling to capture variation in profession, and hospital type among stakeholders. Consistent with our constructivist perspective and qualitative study aim, we did not seek a statistically representative sample. Instead, we aimed to capture a broad range of perspectives through purposive sampling across professional roles and organisations. Topic guides were developed to ensure a semi-structured approach for the focus-groups (Supplementary materials, Text S4). In the focus-groups we aimed to explore why each prioritised theme matters to HCPs in terms of well-being, and to explore observable indicators that a priority theme is adequately addressed during implementation. Focus-groups were moderated by TB, with MO observing. Recordings were collected online via Microsoft Teams, where initial computer-generated verbatim transcripts were de-identified and further hand corrected by one researcher (TB) using the recordings. The same topic guide was used for three one-on-one online semi-structured interviews with purposefully sampled participants. With these interviews, we aimed to reach additional depth to the topic. One researcher (TB) conducted the interviews. Both the focus-groups and the interviews were conducted in Dutch. We used Braun and Clarke’s reflexive thematic analysis to analyse the data. 27 Coding and theme development were iterative. TB conducted initial open coding in Dutch, followed by clustering codes into candidate themes. MO reviewed the developing themes. Discrepancies and interpretive decisions were discussed between TB and MO until consensus on the thematic structure was reached. To enhance reflexivity, themes were also discussed with co-authors, who were medical specialists, implementation experts, and epidemiologists. Throughout the analysis, we used analytic memos to document coding decisions and theme development Themes were then translated to English. Based on the richness and relevance of the collected data, we considered the dataset to provide sufficient information to support the development of an implementation oriented checklist. Ultimately, for this publication, themes were translated to English.
Step 4: Tool development
Results from the prioritised themes in Step 2 and the RTA in Step 3 were used to generate the tool’s items. These items were themes re-phrased as guiding questions or prompts to support structured reflection on whether and how each aspect was addressed during DHT-implementation. Qualitative analyses in Step 3 provided additional context for each item of the tool. Items were merged when survey themes and qualitative insights consistently reflected the same underlying mechanism. Only themes supported by both prioritisation data and qualitative findings were retained as separate tool items, ensuring that the final tool balanced comprehensiveness with feasibility. Draft items were iteratively refined for clarity and feasibility using feedback from co-authors.
Ethics and reporting
Review by a Medical Research Ethics Committee was not required since the study is not under the scope of the Dutch Medical Research involving Human Subjects Act. 34 Participants provided informed e-consent for survey participation in REDCap,30,31 and provided written informed consent for participation in interviews or focus groups by mail. Reporting followed the Good Reporting of A Mixed Methods Study (GRAMMS) checklist. For the scoping review part, the Preferred Reporting Items for Systematic reviews and Meta-Analyses extension for Scoping Reviews (PRISMA-ScR) checklist was used. The qualitative part was reported in accordance with the Consolidated criteria for reporting qualitative studies (COREQ). (Supplementary material, Text S5-S7).
Results
Results from the scoping review re-analysis step
The initial scoping review retrieved 2,687 records. The included studies in the original review, can be found in the supplementary material (Table S1 and Text S8). Seventy-three studies met the eligibility criteria of our re-analysis. A combined selection flow diagram, and reasons for exclusion, can be found in the supplementary material (Figure S1, Table S2). From the included studies, we extracted 501 determinants relating to HCPs, which were coded into 647 labels and mapped onto the Work-System Model. Because many determinants reported by HCPs reflected patient-mediated factors, we added an explicit patient domain and described interactions between domains. The thematic synthesis yielded 52 themes, and 43 subthemes, which were mapped to the Quintuple Aim domains. Forty-four mapped to the Care-team well-being domain and served as input for the prioritisation survey. All themes and mapping can be found in the supplementary material (Table S3a and S3b, Figure S2).
Results from the survey and priority-setting step
Characteristics of survey participants.
*Type of technology exceeds 100% as respondents could select multiple options. DHT: digital health technology.
Top-ranked themes influencing DHT impact on healthcare professionals.
DHT: digital health technology.
Results from the focus-group and interview step
Role or clinical profession of focus-group and interview participants.
Acceptance
Acceptance of DHTs was described as dependent on the perceived balance between short-term effort and long-term benefit. Participants acknowledged that initial implementation requires additional time for training and patient instruction, with efficiency gains becoming apparent later. Where these expected future benefits were considered credible, staff were more willing to tolerate the initial investment. As one participant noted: ‘’By actually showing them (NB. HCPs) what it will bring them (…) So that way (…) it costs at the beginning, it requires an investment of time, but the return is greater.’’ (P9)
Participants noted that acceptance differed across professional groups, often related to variation in experience and familiarity with DHT rather than age. While broad inclusion of HCPs during implementation was viewed as important, several argued that once a DHT demonstrates value, organisations should establish norms to ensure adoption, even among reluctant staff.
Champions
Champions, trusted and motivated colleagues within the same professional group, were seen as critical to align other team members. Unlike general enthusiasts, champions actively mobilise others, translate innovations into practice, and sustain momentum. Their influence was strongest when they operated as peers within their team. Misalignment between champion and affected team often undermined uptake. Participants emphasised that multiple champions are often needed to bridge teams and ensure broad support.
Process & development
Early involvement of HCPs in the development and implementation of DHTs was repeatedly identified as essential to ensure usability and prevent frustration. Subsequently, participants described multidisciplinary working groups, including representatives from each affected role as effective in surfacing problems early. Not only was this related to HCPs, but the inclusion of IT specialists and legal advisors was also considered important, to avoid pushing decisions onto clinicians that lie outside their expertise. Furthermore, transparent communication about realistic timelines was another recurring theme: professionals cautioned that the process often spans years rather than months, and that unclear expectations could lead to demotivation or resistance. And lastly, hospitals with a centralised DHT-desk or coordination team were regarded as particularly effective in supporting implementation, connecting relevant stakeholders, and avoiding duplication of efforts. In contrast, its absence was perceived as a shortfall to unburden the HCP.
Role of the professional
Clarity about roles and responsibilities was viewed as a prerequisite for sustained engagement with DHTs. Ambiguity around who is responsible for particular tasks or decisions was said to cause inefficiency, frustration, and reduced motivation for the HCP. Conversely, clear implementation plans in which responsibilities are explicitly defined were perceived as facilitating smooth adoption, positively reflecting on the HCP. Participants stressed that DHT should be designed to make work easier rather than creating additional (administrative) burden.
Communication
Participants highlighted the role of departmental leads, such as head nurses, as crucial intermediaries who translate organisational information into practically relevant messages for the frontline staff. Timely updates were described as motivating, whereas lack of communication was associated with uncertainty and resistance. As one professional noted: “That’s already a first step in creating motivation: giving people a little stimulus by showing: we’re working on this. (…) Then you already have some awareness of what’s going on and what’s coming. (…) If you’re informed at an earlier stage, (…) that really contributes to motivation.” (P8).
Training
Participants stressed that training should be structurally embedded in the organisation, for example, offered during working hours and incorporated into onboarding programmes, to ensure that all professionals are adequately supported. Crucially, participants distinguished between two types of competences: technical skills, such as navigating an application, which can be taught relatively easily, and clinical competences, such as deciding how to act on remotely monitored patient data, which require more context-specific discussion and role clarity. Without support across these domains, HCPs will likely fall back on old routines or avoid the technology altogether.
Cross-cutting observation: Difficulty articulating HCP-focused impacts
Across themes, participants found it challenging to articulate how DHTs affected their well-being, even when directly prompted to reflect on it. Discussions often shifted toward patient benefits or workflow efficiency rather than personal or collective impacts on staff. This difficulty was unexpected, as one of the main aims of the focus-groups and interviews was to explore well-being more explicitly. The finding itself is therefore meaningful: it illustrates how the well-being of HCPs remains a more implicit, under-discussed topic in digital transformation processes. Participants reflected on this imbalance, noting that data and evaluation mechanisms predominantly focus on patients rather than professionals. The cardiologist in our focus-group observed: “See, we measure a lot for patients. It’s a bit funny right? Because (…) we ask healthcare professionals far less.” (P1).
This underscores both the need and the challenge of systematically integrating HCP well-being into DHT-implementation. It also helps explain why the resulting tool emphasises work-related factors influencing staff experience, rather than well-being outcomes.
Results from the tool development step
Checklist for evaluating the impact of DHT on healthcare professionals (6 themes, 14 items).
DHT: digital health technology. Note. Items are intended as prompts to document how the implementation addresses each aspect. The right-handed column can be used to document how each item is addressed in the implementation process.
Discussion
In this study we developed a reflective tool to support systematic consideration of implementation conditions of DHTs on HCPs. Building on a re-analysis of existing literature, priority-setting among stakeholders, and qualitative exploration, six themes were identified: acceptance, champions, process and development, role of the professional, communication, and training. These themes were integrated into a practical tool designed to address a key gap in the field. While existing frameworks describe determinants of DHT implementation, they provide limited guidance on how to structurally incorporate HCPs’ perspectives into decision-making processes. Although our tool focuses on implementation-related factors, it is important to distinguish these from intrinsic technology characteristics, such as usability, which require separate, complementary evaluation approaches.
Our results align with and extend implementation science. Acceptance was described not as a static attitude but as a trajectory: professionals weigh early time costs (e.g., training) against credible long-term gains. This is consistent with literature that adoption depends on perceived usefulness and workflow fit, beyond usability alone.15,35,36 A related mechanism is the workload paradox: a DHT designed to reduce workload may shift tasks and intensify monitoring or clerical burden, particularly early in implementation, ultimately creating a higher workload. 15 Such shifts are well-documented around electronic health records and are associated with burnout and lower professional satisfaction. 37 This mechanism is consistent with the Job Demands–Resources model, which posits that elevated workload constitutes a job demand associated with negative outcomes for professional well-being. 38 These insights highlight the need to address shifting workload demands early, to support both effective adoption and professional well-being.
Participants described marked variation in implementation policies and processes across hospitals. Some hospitals centralised innovation within specialist teams, whereas others devolved responsibility to individuals within departments, yielding variability and duplicated effort. Participants expressed a preference for a coordinated ‘single-front-door’ model, in analogy to central ethics committees approving research protocols across hospitals. Participants proposed standardised, transferable criteria for core domains (e.g., legal compliance, safety, technical requirements) to accelerate upscaling. Embedding the tool within coordinated governance could help ensure that workforce considerations are routinely considered alongside patient outcomes. This is important, because patient outcomes and cost-effectiveness dominate considerations in the implementation process, and workforce outcomes remain implicit or absent. 39
Our findings highlight a conspicuous blind spot for the impact of DHTs on HCP well-being. During our focus-groups, HCPs found it difficult to reflect on what impact DHTs had on them, as they tend to prioritise patient satisfaction over their own well-being. A striking finding was the difficulty participants had in articulating impacts on their own well-being, even when explicitly asked. This could suggest that workforce outcomes remain largely implicit in digital transformation, reflecting cultural and organisational barriers to discussing well-being at all. It is also therefore, that we were unable to incorporate well-being outcomes into the checklist, and remain with implementation conditions that can be of influence on the well-being of the HCP. International guidance has begun to stress routine monitoring and evaluation of DHTs, including the impact of DHT on work and workforce. 40 However, evaluations of HCP well-being rarely use standardised measures, as a standardised outcome set that together represents a construct of HCP well-being, is lacking, which leaves evaluations to ad-hoc measures and limits comparability across projects. Without an agreed framework for what to measure, targeted policy responses remain challenging. Developing a concise set of well-being indicators, could provide the foundation for cumulative learning and earlier detection of unintended harms or benefits. Work towards such a set is underway and may enable a more consistent assessment in the future. 41
Strengths and limitations
A key strength of this study is the integration of multiple data sources into a coherent development process. The collaborative, multi-institutional setting also enhanced the relevance of the findings for our institutions. Limitations include the small survey sample size and limited participation of actively practicing HCPs in our qualitative steps, potentially restricting the bandwidth of perspectives captured. Our study must therefore be seen as exploratory, and as a first step towards structural inclusion of the impact of DHT on the HCP, and furthermore of HCPs’ perspectives in DHT-implementation. The limited sample may as well reflect the current status of DHT-implementation, where the HCP is often overlooked. Finally, the tool has not yet been validated, and its feasibility, reliability, and impact remain to be evaluated. It should therefore be viewed as a starting point, rather than a final product.
Practical implications and future research
In practical terms, the tool prompts teams to assess workload implications before implementation, to identify credible peer champions early, to embed training into onboarding structures, to ensure role clarity within implementation plans, and to establish feedback loops during deployment. These steps can be integrated into existing governance structures such as DHT committees or innovation desks. The checklist can be used at multiple decision points in DHT-implementation as a process tool for responsible implementation. Funders could request its inclusion with business cases, covering a brief note to better understand possible implications of the DHT-implementation on the HCP. Hospital boards or programme leads can use the checklist at key stages to consider communication routes, and onboarding needs of involved HCPs. Implementation teams and department leads could co-design with the HCP, confirm appropriate champions across disciplines, and adjust workflows where technology risks adding burden. Training should be embedded into onboarding pathways to ensure consistency and role clarity. Next steps would include piloting the checklist within ongoing implementation programmes to assess feasibility, followed by refinement through structured feedback. Furthermore, the reliability of interpretation across users and whether checklist-informed implementation planning is associated with improved implementation processes (e.g., better training uptake) and with routine monitoring of workforce outcomes using complementary measures (e.g., job satisfaction) should be evaluated. Multi-site and international testing will be important to assess transferability across contexts.
Conclusion
This mixed-methods study developed a 14-item reflective checklist that identifies where implementation conditions could impact HCPs. By synthesising literature, integrating stakeholder priorities, and exploring qualitative insights, we derived six themes that translate professional considerations into practical prompts for use during implementation, and post-deployment monitoring. The checklist offers a pragmatic approach to incorporate implementation conditions that influence HCP well-being into DHT-implementation. Future work should test the tool in real-world settings, align it with standardised workforce outcome measures, and evaluate whether its use improves implementation processes and mitigates unintended workload and engagement harms.
Supplemental material
Supplemental material - Towards responsible digital health implementation: A mixed-methods exploratory study developing a tool to assess workforce experience
Supplemental material for Towards responsible digital health implementation: A mixed-methods exploratory study developing a tool to assess workforce experience by Bazuin Tom, Michiel Sebastiaan Oerbekke, Pauline Heus, Mike Petrus Theodora Kusters, Dave Anton Dongelmans, Annelies Visser, Arie Franx, Johann Klaus Götz Wietasch, Lotty Hooft and van der Laan Maarten Jurriaan in Digital Health.
Supplemental material
Supplemental material - Towards responsible digital health implementation: A mixed-methods exploratory study developing a tool to assess workforce experience
Supplemental material for Towards responsible digital health implementation: A mixed-methods exploratory study developing a tool to assess workforce experience by Bazuin Tom, Michiel Sebastiaan Oerbekke, Pauline Heus, Mike Petrus Theodora Kusters, Dave Anton Dongelmans, Annelies Visser, Arie Franx, Johann Klaus Götz Wietasch, Lotty Hooft and van der Laan Maarten Jurriaan in Digital Health.
Footnotes
ORCID iDs
Author contributions
T. Bazuin: Conceptualisation, Data Curation, Formal analysis, Investigation, Methodology, Project administration, Validation, Visualisation, Writing – original draft.
M. S. Oerbekke: Conceptualisation, Data Curation, Formal analysis, Investigation, Methodology, Validation, Visualisation, Writing – review & editing, Supervision.
P. Heus: Conceptualisation, Data Curation, Formal analysis, Investigation, Methodology, Validation, Writing – review & editing.
M. P. T. Kusters: Data Curation, Investigation, Methodology, Validation, Writing – review & editing.
D. A. Dongelmans: Conceptualisation, Writing – review & editing.
A. Visser: Conceptualisation, Writing – review & editing.
A. Franx: Conceptualisation, Writing – review & editing.
J. K. G. Wietasch: Conceptualisation, Writing – review & editing, Supervision
L. Hooft: Conceptualisation, Writing – review & editing, Supervision.
M. J. van der Laan: Conceptualisation, Writing – review & editing, Supervision.
Funding
The authors disclosed receipt of the following financial support for the research, authorship, and/or publication of this article: The authors received no specific funding for this work. This publication is an extension from a project by the Dutch Federation for University Medical Centres, together with the Dutch Healthcare Institute. They had no role in study design, data collection, data analysis, data interpretation, or writing of the report. A report of this project was made publicly available in February 2025 through the Dutch Federation for University Medical Centres’ website. This report can be found using the citation below Bazuin T, Oerbekke M, Heus P, Wietasch G, Hooft L, van der Laan M. De impact van digitale zorgtechnologie op de zorgprofessional. Eindrapportage academische werkplaats. Groningen: Universitair Medisch Centrum Groningen; 2025 Feb.
Declaration of conflicting interests
The authors declared no potential conflicts of interest with respect to the research, authorship, and/or publication of this article.
Data Availability Statement
The data that support the findings of this study are available from the corresponding author, upon reasonable request.
Declaration of generative AI and AI-assisted technologies in the manuscript preparation process
During the preparation of this work, the authors used ChatGPT to support language editing, improve clarity and flow, and help refine the structure of the manuscript. After using this tool, the authors reviewed and edited the content as needed and take full responsibility for the content of the published article.
Supplemental material
Supplemental material for this article is available online.
References
Supplementary Material
Please find the following supplemental material available below.
For Open Access articles published under a Creative Commons License, all supplemental material carries the same license as the article it is associated with.
For non-Open Access articles published, all supplemental material carries a non-exclusive license, and permission requests for re-use of supplemental material or any part of supplemental material shall be sent directly to the copyright owner as specified in the copyright notice associated with the article.
