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Assessment of organizational readiness to implement an electronic health record system in a low-resource settings cancer hospital: A cross-sectional survey

  • Johnblack K. Kabukye ,

    Roles Conceptualization, Data curation, Formal analysis, Funding acquisition, Investigation, Methodology, Project administration, Writing – original draft, Writing – review & editing

    jkabukye@gmail.com

    Affiliations Uganda Cancer Institute, Kampala, Uganda, Department of Medical Informatics, Amsterdam Public Health research institute, Amsterdam UMC—Location AMC, Amsterdam, The Netherlands

  • Nicolet de Keizer,

    Roles Conceptualization, Formal analysis, Methodology, Supervision, Writing – original draft, Writing – review & editing

    Affiliation Department of Medical Informatics, Amsterdam Public Health research institute, Amsterdam UMC—Location AMC, Amsterdam, The Netherlands

  • Ronald Cornet

    Roles Conceptualization, Formal analysis, Methodology, Supervision, Writing – original draft, Writing – review & editing

    Affiliation Department of Medical Informatics, Amsterdam Public Health research institute, Amsterdam UMC—Location AMC, Amsterdam, The Netherlands

Abstract

Background

Organizational readiness for change is a key factor in success or failure of electronic health record (EHR) system implementations. Readiness is a multifaceted and multilevel abstract construct encompassing individual and organizational aspects, which makes it difficult to assess. Available tools for assessing readiness need to be tested in different contexts.

Objective

To identify and assess relevant variables that determine readiness to implement an EHR in oncology in a low-and-middle income setting.

Methods

At the Uganda Cancer Institute (UCI), a 100-bed tertiary oncology center in Uganda,we conducted a cross-sectional survey using the Paré model. This model has 39 indicator variables (Likert-scale items) for measuring 9 latent variables that contribute to readiness. We analyzed data using partial least squares structural equation modeling (PLS-SEM). In addition, we collected comments that we analyzed by qualitative content analysis and sentiment analysis as a way of triangulating the Likert-scale survey responses.

Results

One hundred and forty-six clinical and non-clinical staff completed the survey, and 116 responses were included in the model. The measurement model showed good indicator reliability, discriminant validity, and internal consistency. Path coefficients for 6 of the 9 latent variables (i.e. vision clarity, change appropriateness, change efficacy, presence of an effective champion, organizational flexibility, and collective self-efficacy) were statistically significant at p < 0.05. The R2 for the outcome variable (organizational readiness) was 0.67. The sentiments were generally positive and correlated well with the survey scores (Pearson’s r = 0.73). Perceived benefits of an EHR included improved quality, security and accessibility of clinical data, improved care coordination, reduction of errors, and time and cost saving. Recommended considerations for successful implementation include sensitization, training, resolution of organizational conflicts and computer infrastructure.

Conclusion

Change management during EHR implementation in oncology in low- and middle- income setting should focus on attributes of the change and the change targets, including vision clarity, change appropriateness, change efficacy, presence of an effective champion, organizational flexibility, and collective self-efficacy. Particularly, issues of training, computer skills of staff, computer infrastructure, sensitization and strategic implementation need consideration.

Introduction

Electronic health record (EHR) systems are postulated and have been demonstrated to improve healthcare safety, efficiency and overall quality through improved care coordination, reduction of medical errors, saving time and costs and enhancement of collection of quality healthcare data to support clinical research and healthcare management [13].

However, EHR implementation is a complex and challenging organizational change which is often resisted with planned or actual boycotts, and workarounds by medical staff to state-of-the-art systems [3,4].Although failures are not commonly reported in literature [3], it is estimated that 50–75% of implementations of EHRs and other health information technologies fail–i.e. they overrun budgets or implementation time, do not provide end user satisfaction, or are completely abandoned [37].Implementation of EHRs is difficult because it is not merely a technological change, but rather a socio-technical change process that affect many aspects of the organization [810]. It often results into changes or disruptions in clinical workflows, introduction of extra tasks, or shifting of tasks from one cadre to another [35,11,12] e.g. patients entering clinical history via patient portals or medical assistants and front desk refilling prescriptions, a task usually done by physician and pharmacists [13]. In addition, EHR implementation often requires learning of new (computer) skills or applications, and comes with actual or perceived changes in the power structure and legal responsibilities within healthcare, such as threat to doctors’ autonomy when computerized clinical decision support functionality is implemented [37,12].

Organizational readiness for change is a well-known factor that influences success of organizational changes in general, and in EHR implementation in particular [3,7,12,1420,2126]. It is a multifaceted and multilevel construct, and therefore can be difficult to measure. Holt et al. [14]discuss four facets of readiness covering (i) the change process, i.e. the steps and strategies followed during implementation of the change, e.g., extent of stakeholder involvement, (ii) the content of the change, i.e. the particular initiative being implemented such as the EHR system and its characteristics, (iii) the context of the organization including the conditions and environment under which staff work, e.g., dynamic, learning organizational culture, financial and human resource capacity, and (iv) individual attributes of the staff or those affected by the change, e.g., their skills, biases and prejudices. Different forms of readiness have been described in literature with some overlap in meaning. Examples include core (need/motivational) readiness, technological (infrastructural) readiness, societal readiness, engagement readiness and learning (IT skills) readiness [1618,26].The relative importance of each of these forms of readiness varies between organizational contexts. For example, poor IT infrastructure and lack of IT skills are often a barrier for EHR implementation in LMICs making technological readiness relatively more important for LMICs [18,19,2629].

Weiner [17] conceptualizes organizational readiness as the extent to which organization staff are psychologically and behaviorally prepared. That is, the extent to which they are willing (change commitment) and able (change efficacy) to make and maintain the change. Weiner’s unified view of readiness at the organizational level is motivated by the premise that healthcare improvement interventions such as EHR implementation “entail collective behavior change in the form of systems redesign–that is, multiple, simultaneous changes in staffing, work flow, decision making, communication, and reward systems”. According to Weiner, the above mentioned forms of readiness are antecedents to organizational readiness. Change commitment, and thus motivation to take the change action, comes when staff feel that they want–i.e. they value the change–as opposed to when they feel that they have to–i.e. when they feel they have no option and are obliged to take the action [17].For staff to want to make the change, they must be dissatisfied with the current state, and appreciate or be convinced about the advantage of the future state. Change efficacy (i.e. organization staff’s belief in their capabilities to accomplish the change action or belief that successful change is possible, e.g., from stories of success from similar organizations) depends on staff’s understanding and judgment of the task demands (what it takes to effect the change) and the available resources such as finances or IT infrastructure [17].

Kotter [15] argues that half of large organizational changes fail because of lack of readiness. Organization staff seek to maintain a state of affairs that provides them a sense of psychological safety, control and identity; and any attempts to change this status quo is resisted [1417]. A process of “unfreezing” must occur in which mindsets are changed and motivation for change created [16]. Shea et al note that “when organizational readiness is high, members are more likely to initiate change, exert greater effort, exhibit greater persistence, and display more cooperative behavior, which overall results in more effective implementation of the proposed change” [20].

Early perceptions and beliefs about the change play a central role in shaping future attitudes and behaviors such as negative rumors, involvement in the planning and design phases, and resistance to change [24]. It is thus crucial to assess readiness prior to major organizational change such as EHR implementation in order to ensure higher chances of success [7,17,18,20,24]. Conducting a readiness assessment helps uncover action points or issues that threaten success and these can be addressed early in the project lifecycle when change management is most efficient [17,18,24]. Moreover, the readiness assessment process itself can increase the readiness as it introduces the impending change to the organization staff and spurs discussion.

Several tools have been published for measuring readiness both at organizational level as well as at individual level in different contexts. Kamisah and Yusof [21] have reviewed tools and models for measuring readiness in information system adoption and conclude that measuring readiness at the organizational level is more advantageous than at individual level, and also that there is no single best model or measure for all circumstances. Gagnon et al. [22] have conducted a systematic review of tools (models and questionnaires) for assessing readiness in healthcare where they found that many lacked information on reliability and validity, and needed to be tested in diverse clinical contexts.

In this study we aimed to determine which factors within the model by Paré et al. [24] underlie perceived organizational readiness to implement an EHR in oncology in Low and Middle Income Countries (LMICs). We chose the Paré model because it measures readiness at organizational level compared to, for example, tools by Khoja et al [18] which measure readiness at the level of antecedent constructs [17]. Moreover, the Paré model was developed and validated within the same context of cancer care as the Uganda Cancer Institute, where this study was conducted.

Materials and methods

Study design

We conducted a cross-sectional survey based on the model and questionnaire developed by Paré et al. [24] which is open access under a Creative Commons (CC-BY) license. As shown in Fig 1, the Paré model consists of ten latent constructs or variables: Vision clarity, Change appropriateness, Change efficacy, Top-management support, Presence of an effective champion, Organizational history of change, Organizational politics and conflicts, Organizational flexibility, Collective self-efficacy and Organizational readiness. In the model, Organizational readiness is referred as an endogenous latent variable because it is essentially an outcome variable which the other nine (referred to as exogenous latent variables) measure. The nine exogenous variables fall under 4 facets similar to those discussed by Holt [14].

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Fig 1. Research model.

Solid arrows show paths from indicator variables (questionnaire item) to the latent variables. Dashed arrows show paths from exogenous latent variable to the endogenous latent variable. See Paré et al. [24] for definitions of the constructs.

https://doi.org/10.1371/journal.pone.0234711.g001

All latent variables are measured on four Likert-scale questionnaire items (referred to as manifest or indicator variables), except Presence of a champion which is measured on three items. This makes a total of 39 questionnaire items. In our study, the scale was 5-point, with 5 = strongly agree, 4 = agree, 3 = neither agree nor disagree, 2 = disagree, 1 = strongly disagree.

We also added sections for comments to encourage participants to give more details to explain why they scored the organization the way they did. Respondent characteristics including age, gender, tenure, computer usages, and prior EHR experience were also collected since these affect readiness [18,23]. S1 File shows the questionnaire.

Setting

The study was conducted at the Uganda Cancer Institute (UCI) [30], a 100-bed tertiary public cancer hospital in Kampala, Uganda. The UCI receives about 5000 new cancer patients per year from Uganda and neighboring countries. Clinical documentation is done on paper. However, three years ago the UCI procured an off-the-shelf EHR called Clinic Master which currently is only being used for patient registration, appointments scheduling, and retrospective capture of some clinical details such as diagnosis and treatment, as well as for tracking paper files. Only a few of the staff directly interact with the EHR, mostly the biostatisticians and data entry clerks. The system has provisions for capturing free-text clinical notes, as well as billing, ordering of lab investigations, etc., but these functionalities are not yet being used. Efforts are ongoing to customize Clinic Master to suit the exact needs of the users with regards to cancer care workflow, as well as considerations to switch to a different system altogether.

Participants selection and questionnaire distribution

Eligible participants were all UCI staff who are directly involved in patient care or directly use the EHR. There are approximately 250 of these staff. Printed questionnaires were used for data collection, and they were distributed by the first author who is one of the clinical staff at the UCI. Additionally, staff who were not on site during the survey period (September to October 2018), e.g. due to study leave or other travels, were excluded since paper questionnaire were used. Online questionnaires were discouraged by the research ethics committee because there was no way to stamp them and assure the participants of official approval.

To minimize ordering effect [31], we made five versions of the questionnaire containing exactly the same items but with their order randomly shuffled using the free online list randomizer [32]. The questionnaires were in English. One hundred and seventy-five questionnaires were distributed and 146 were returned (83.4% response rate).

Using G*Power [33] v3.1.9.2, the calculated minimum sample size required to detect a small effect size (R2 of 0.3) in our model where the maximum number of predictors (or arrows pointing at a latent variable) is 9, at a significance level 5% and statistical power of 80%, is 62 cases. Alternatively, following the rule of thumb [34], the minimum sample size for our model is 90 –i.e. 10 times the maximum number of predictors.

Data analysis

Double data entry was done using Epi Data v4.4.2.1 [35]by two independent data clerks and any transcription errors were resolved. We performed descriptive statistics using SPSS v24 [36].

For model analysis, we used the R statistical environment [37], specifically theplspm package v0.4.9 [38], to perform structural equation modeling (SEM) using the partial least squares (PLS) method. We reverse-coded negatively phrased indicator variables to correct their direction with respect to the latent construct, and removed all cases with missing values in any of the 39 indicator variables (questionnaire items, S1 File) since the PLS algorithm requires complete cases. Details of SEM and PLSare provided in S2 File, and the Data and R code in S4 File.

We tested our model using measures as described in Hair et al. [34]. Table 1shows the measures for validating the measurement model, i.e. loadings or communalities for indicator reliability, cross loadings for discriminant reliability, Dillon-Goldstein’s rho for composite reliability, and average variance extracted (AVE) for convergent validity.

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Table 1. Performance measures for model validation as described by Hair et al [34].

https://doi.org/10.1371/journal.pone.0234711.t001

We tested the structural model using the R2 (also called the coefficient of determination) for the endogenous latent variables, as well as the path coefficients for the exogenous latent variables. The R2indicates the amount of variance in the endogenous latent variable that is explained by the exogenous latent variables. R2values <0.3 are considered low, between 0.3 and 0.6 moderate, and above 0.6 are high [39].

We also conducted sentiment analysis of the comments from the survey using the R package sentiment [40], to determine the overall polarity i.e. how negative or positive respondents felt about the UCI’s readiness for change.

As a way of triangulation, we used the mean score of each indicator variable and the sentiment score of the corresponding comment to calculate as correlation (Pearson’s r).Similar to model analysis, we also reverse-coded negatively phrased indicator variables for correlation analysis.

Lastly, we conducted deductive content analysis of the comments [41]using the R package RQDA [42] to derive perceived benefits or reasons to implement the EHR as well as action points to get the organization ready.

Ethics and consent to participate

The study was reviewed and approved by the UCI Research Ethics Committee #UCIREC 12–2018, and by Uganda National Council of Science and Technology #IS14ES. Each participant was given an informed consent form to read and sign before filling in the questionnaire.

Results

Respondents

One hundred and forty-six respondents completed the questionnaire, which is 58.4% of the target population and 83.4% response rate. Table 2 shows the participant characteristics.

About 72% were 40 years or younger, 59% were female, and 75% had worked at the organization for 1–10 years. Eighty-three percent of respondents were clinical (oncologists, general doctors, nurses and allied health workers), 89% reported using computers at least on a weekly basis, with 80% rating their computer skills as intermediate to advanced. Fifty-six percent reported experience using an EHR, but only 40.4% reported ever receiving EHR training.

Model analysis

Thirty cases (20%) had missing values in at least one of the indicator variables needed for model analysis, so they were removed from the analysis, leaving 116 cases. The pattern of missing values was random.

Twenty-five of the 39 indicator variables had loadings above the cutoff of 0.708 which implies good indicator reliability. The loadings are shown in Table 3 along with communalities and weights. Only change appropriateness, presence of an effective champion, and top-management support, had all indicator variables with loadings above the cutoff. The remaining six latent variables had at least one indicator variable with a loading above the cutoff.

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Table 3. Mean scores, standard deviations, loadings, communalities and weights for the indicator variables (Questionnaire items) across all respondents, and sentiment scores for comments made against each item.

Item scores are: 1 = Strongly disagree, 2 = Disagree, 3 = Neither agree nor disagree, 4 = Agree, 5 = Strongly agree. Items in italics were reverse-code before mean and SD was calculated to correct their direction with respect to the latent construct. Mean score of 3 (“neither agree nor disagree”) or above,Loadings and Communalities above the cutoff, and Positive sentiments are bolded. Variables adapted from [24].

https://doi.org/10.1371/journal.pone.0234711.t003

The cross loadings show good discriminant validity as evidenced by all indicator variables loading highest on their respective latent variables (see S3 File)

All latent variables had good internal consistency as indicated by Dillon-Goldstein’s rho of 0.7 or higher, although Organizational history of change was borderline (Table 4).Vision clarity, change appropriateness, top-management support, presence of a champion, and collective self-efficacy, showed good convergent validity, i.e. AVE above the cut-off value of 0.5.For organizational readiness, the only endogenous latent variable in the model, R2 = 0.67.

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Table 4. Results of performance measures for model validation.

Values in bold are significant or above threshold. Cronbach’s alpha is provided for comparison with Paré et al [24].

https://doi.org/10.1371/journal.pone.0234711.t004

Path coefficients for vision clarity, change appropriateness, change efficacy, presence of an effective champion, organizational flexibility, and collective self-efficacy, were statistically significant at p< 0.05 (Table 4).

Qualitative analysis

Results for sentiment analysis of the comments on each of the items (indicator variable) and one general comment are shown in Table 3, along with the mean and standard deviation for each indicator variable. The sentiment scores ranged from -0.113 to +0.4, but generally were positive. Comments for TMS3 (Top-management support), OCP2, OCP4 (Organizational conflicts and politics), OF4 (Organizational flexibility) and CSE1 and CSE3 (Collective self-efficacy) had negative sentiment; while the rest had positive sentiment. The general comment had a sentiment score of +0.23. The sentiment scores for the comments were strongly correlated with the mean scores of the corresponding indicator variable, Pearson’s r = 0.73.

Table 5 shows reasons for implementing an EHR and action points/considerations according to content analysis of the comments from the respondents. The respondents consider the EHR important for improving clinical data quality, security and accessibility; for improvement of communication and care coordination, save time, reduce errors, improve accountability and stock management, while others say an EHR should be implemented because it is the trend and other hospitals are implementing one. Key considerations for successful implementation suggested by the respondents include advocacy and sensitization about the change, training of staff on computer skills and specifically on the EHR, and addressing the issues of understaffing and inadequate computer infrastructure needed for implementing the EHR.

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Table 5. Reasons for implementing an EHR and Action points/Key considerations.

https://doi.org/10.1371/journal.pone.0234711.t005

Discussion

In this study we assessed the variables within the Paré model [24] that contribute to organizational readiness for change in the context of EHR implementation in oncology in LMICs. We also gained insights on the level of readiness of the study organization, the UCI, to implement an EHR. The Paré model, originally developed and tested within the context of oncology and mental health in Canada, consists of 9 theory-based variables associated with organizational readiness for change. These relate to the attributes of the change, attributes of the change targets, leadership support and internal context of the organization.

Besides our study being done in an LMIC, our participants were more diverse in terms of profession compared to Paré et al., which largely involved nurses. Additionally our participants were relatively younger and had had shorter tenures.

Despite the above differences, our results were similar to those of Paréet al. in showing that, based on the R2, generally the model performs well in measuring organizational readiness, and the questionnaire has good validity and reliability as shown by the loadings and cross loadings, Dillon-Goldstein’s rho and AVE.

However, 14 of the 39 indicator variables showed poor reliability. Specifically, 3 of the 4 indicator variables in change efficacy (i.e. CE1, CE2, and CE3) and in organizational conflicts and politics (i.e. OCP2, OCP3 and OCP4), had low loadings. If indicator variables with low reliability are eliminated from the final model and questionnaire, these latent variables will remain with only one indicator variable, and the whole questionnaire will have25 items instead of 39 which makes it shorter. Paré’s final questionnaire had 35 items after eliminating OHC2, OHC4 (Organizational history of change), OCP2, and OF4 (Organizational flexibility).

The change efficacy variable concerns staff being inspired by EHR implementation projects from other organizations similar to theirs. The low reliability for change efficacy in our study is likely due to the fact that the study site, the UCI, is the only oncology center in the country, and therefore respondents did not have similar hospitals to compare with or get inspiration. Organizational conflict and politics had low reliability yet from the qualitative findings (comments). This was a frequently mentioned point to consider. This is likely due to the high-context culture of Uganda [43]–i.e. people prefer to avoid conflict, do not give direct feedback and hesitate to discuss issues around organizational conflicts, staff frustration, corporation and trust even when these issues are a reality.

In addition, only 6 of the theorized 9 latent variables are supported by our findings as significantly contributing to measurement of organizational readiness based on p-values <0.05. These are: vision clarity, change appropriateness, change efficacy, presence of an effective champion, organizational flexibility, and collective self-efficacy, which fall under attributes of the change and attributes of the change targets.

These findings suggest that change management during EHR implementation at this organization, and others similar to it, should focus on making sure that all staff understand why the EHR being implemented (vision clarity), convincing the staff that the EHR is appropriate and will improve their work (change appropriateness), and ensuring that staff, individually and collectively, have the required skills, motivation, inspiration and resources for successful EHR implementation (change efficacy and collective self-efficacy). It is also important that there is an influential and respected person to champion the implementation process. Champions are important for success of EHR implementation because, as early adopters with positive attitude and enthusiasm towards the impending change, they help in communicating the expected benefits to their peers and encourage them to adopt the change [4447]. Organizational flexibility, which is also significant, might not be very actionable since it is historical, but measures can be put in place to improve it, for example, having smaller units within the organization which might accelerate change processes compared to rolling out an EHR in the entire organization.

The above impression is also supported by our qualitative findings, in that many of the action points/considerations relate to issues of sufficient staff, computer infrastructure, training and computer skills by the staff (efficacy), advocacy and sensitization of staff about the change (vision clarity), and careful execution of the change (change appropriateness).

The qualitative findings also show that the UCI is ready to implement an EHR, considering the fact that the staff understand what it will take to effect the change, and appreciate its benefits. The generally positive sentiments triangulate this conclusion.

The findings from this study have practical importance to both the study organization and other organizations. The UCI is in the process of EHR implementation albeit slow and with challenges. Whereas the decision whether to implement an EHR or not may not be solely based on the readiness assessment, findings from this study can give reassurance to the managers and EHR implementation team that the organization staff are ready for the EHR, and the action points or considerations suggested by the staff will help managers and project leaders to decide where to focus their efforts. Organizations similar to the UCI could use our findings to inform their own organizational change processes, either focusing on the variables in the model and the action points that we considered crucial for the UCI, or by testing the model in their own organizations to further confirm generalizability, as well as the predictability of implementation success by organizational readiness.

Strength of the study

Collecting qualitative data provided a means to triangulate the quantitative data in the model, as well as giving it actionable meaning.

Weakness of the study

The large proportion of missing values meant that about 20% of the responses were eliminated from model analysis. However, missing values were random, and the size of the remaining set was still larger than required according to sample size estimations. Another limitation is the use of data from one oncology center which might undermine generalizability.

Conclusion

In this study we identified variables that are relevant for measurement of organizational readiness to implement an EHR in an oncology center in a low-income setting. These are: vision clarity, change appropriateness, change efficacy, presence of an effective champion, organizational flexibility, and collective self-efficacy. In addition, we assessed organizational readiness and identified action points and considerations for enhancing readiness at a specific institution, UCI. We found that the UCI, while ready to implement an EHR, should pay attention to staff’s computer skills, training of staff on EHR, available computer infrastructure, and should devise a strategic implementation plan. Whereas staff have a good understanding of the benefits of EHR implementation, which is important for high readiness, sensitization is also needed since some staff want to implement the EHR “just because everyone else is doing it”.

Acknowledgments

We thank Uganda Cancer Institute staff for filling in the survey. We also greatly appreciate Martine R. Groen, PhD, for her assistance with data analysis.

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