Literature DB >> 28219957

Evaluating investment in quality improvement capacity building: a systematic review.

Gustavo Mery1, Mark J Dobrow1, G Ross Baker1, Jennifer Im1, Adalsteinn Brown1.   

Abstract

PURPOSE: Leading health systems have invested in substantial quality improvement (QI) capacity building, but little is known about the aggregate effect of these investments at the health system level. We conducted a systematic review to identify key steps and elements that should be considered for system-level evaluations of investment in QI capacity building.
METHODS: We searched for evaluations of QI capacity building and evaluations of QI training programmes. We included the most relevant indexed databases in the field and a strategic search of the grey literature. The latter included direct electronic scanning of 85 relevant government and institutional websites internationally. Data were extracted regarding evaluation design and common assessment themes and components.
RESULTS: 48 articles met the inclusion criteria. 46 articles described initiative-level non-economic evaluations of QI capacity building/training, while 2 studies included economic evaluations of QI capacity building/training, also at the initiative level. No system-level QI capacity building/training evaluations were found. We identified 17 evaluation components that fit within 5 overarching dimensions (characteristics of QI training; characteristics of QI activity; individual capacity; organisational capacity and impact) that should be considered in evaluations of QI capacity building. 8 key steps in return-on-investment (ROI) assessments in QI capacity building were identified: (1) planning-stakeholder perspective; (2) planning-temporal perspective; (3) identifying costs; (4) identifying benefits; (5) identifying intangible benefits that will not be included in the ROI estimation; (6) discerning attribution; (7) ROI calculations; (8) sensitivity analysis.
CONCLUSIONS: The literature on QI capacity building evaluation is limited in the number and scope of studies. Our findings, summarised in a Framework to Guide Evaluations of QI Capacity Building, can be used to start closing this knowledge gap. Published by the BMJ Publishing Group Limited. For permission to use (where not already granted under a licence) please go to http://www.bmj.com/company/products-services/rights-and-licensing/.

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Year:  2017        PMID: 28219957      PMCID: PMC5337696          DOI: 10.1136/bmjopen-2016-012431

Source DB:  PubMed          Journal:  BMJ Open        ISSN: 2044-6055            Impact factor:   2.692


This review represents a pioneering attempt to identify efforts to evaluate quality improvement (QI) capacity building at the healthcare system level. With the limited base of past work to draw on, we lack a shared or sufficiently broad vision of how to construct and evaluate QI capacity building efforts, and we have therefore little evidence to make judgements regarding the appropriateness of the articles identified. The review contributes a synthesis of current practices for evaluating QI capacity building efforts and represents a starting point to help close the knowledge gap at the healthcare system level.

Introduction

Evidence over the past few decades has consistently demonstrated that low-quality care places a heavy financial and human burden on healthcare systems worldwide.1 2 The problem persists despite the fact that more organisations than ever before are actively engaged in quality improvement (QI) efforts.3 4 QI can be defined as a systematic approach to making changes that lead to better patient outcomes, stronger system performance and enhanced professional development. Improving healthcare quality requires active participation and interdisciplinary collaboration of a workforce skilled in QI, complemented by patients, families, academics and policymakers.5–7 However, evidence shows that healthcare professionals are often ill-prepared to promote QI efforts and reluctant to change.8 9 This gap may partly explain why QI activity does not reliably improve performance.10 11 A systematic approach to capacity/capability building for improvement has been identified as one of the key characteristics of healthcare systems that deliver high performance in cost and quality.12–14 QI capacity building increases the self-sustaining ability of organisations and systems to recognise, analyse and improve quality issues by controlling and allocating available resources more effectively.15 16 For the purpose of this study, we defined ‘QI capacity building’ as the planned development of knowledge, skills and other capabilities of a system or an organisation to improve quality.17 Following Bevan's12 definition, ‘capacity’ refers to having the right number and level of people who are actively engaged and able to conduct improvement, while ‘capability’ refers to the confidence, knowledge and skills to lead the improvement. Although we refer to capacity building throughout this article, our focus is inclusive of capacity and capability. Even though substantial investments in healthcare quality have focused on building capacity, there is a significant research gap in terms of assessment of these efforts. In addition, numerous research studies have evaluated specific QI initiatives and programmes, but little is known about the impact of QI capacity at the healthcare system level.7 18 By system level, we mean the governance, leadership, resources and service delivery arrangements that together enable a health system (encompassing healthcare providers, managers and other stakeholders) to design, implement and evaluate QI activities. This ‘system-level’ definition includes national or subnational systems (such as state, provincial or regional systems depending on the jurisdiction) and can represent autonomous healthcare systems serving specific populations (such as military services) or larger healthcare organisations that provide a range of services to specified but geographically dispersed populations (eg, Kaiser Permanente). Capacity building assessments have been largely restricted to evaluations of specific training programmes,7 rather than system-wide studies. As Shortell et al19 noted, part of the difficulty of assessing the impact of QI activity and investments1 lies in the fact that most studies focus on a single site of care, condition or process that represents only one particular organisational problem. In healthcare, the costs of poor quality and the benefits of improved care are spread among multiple stakeholders and settings, yet organisational initiatives often focus on short-term results that are within the exclusive control of a single organisation.20 Furthermore, while building QI capacity has been a key component of system transformation efforts, it generally coexists with other capacity building activities, such as leadership training and professional development, making it hard to separate out and to assess the importance of QI capacity investments. In the current context, little is known about how QI capacity can be produced most effectively and efficiently from a system-level perspective. While there are a number of approaches for evaluating efforts in QI capacity building and training,21–23 we sought system-level economic evaluations to understand the impact of capacity building efforts on health-system performance and the associated return on investment (ROI). ROI is a simple expression of economic evaluation that is intuitive and effective in allowing estimations of the value generated from healthcare investments. The use of ROI in QI allows the comparison of multiple inputs of an intervention on a common metric (cost). By monetising benefits (better care and better health), the intervention's value can be calculated relative to cost,24 complying with broadly accepted ‘value’ frameworks, such as the Institute for Healthcare Improvement's Triple Aim.25 The purpose of this study was to identify key steps and elements that should be considered for system-level evaluations of investment in QI capacity building, summarised in a framework that can be used to guide such evaluations. Accordingly, we conducted a systematic review of the healthcare services and policy literature with the following three objectives: first, to identify system-level evaluations of QI capacity building/training; second, to identify existing evaluations of the investment in QI capacity building/training (ROI or other types of economic evaluation), even if these were at a programme or initiative level, rather than the system level; and third, to identify any other evaluations or analyses of QI capacity building that would address the purpose of our study.

Methods

We conducted a systematic review of the healthcare services and policy literature to identify two types of studies: (1) evaluations of QI capacity building; and (2) evaluations of QI training programmes. The search included the most relevant indexed databases in the field and a targeted search of the grey literature. The following eight indexed databases were searched: MEDLINE, EMBASE, Social Work Abstracts, HealthSTAR, Health and Psychosocial Instruments, Cumulative Index to Nursing and Allied Health Literature (CINAHL), Social Sciences Abstracts and Scopus. We used the following search terms: Quality Improvement/Assurance and Capacity Building/Assessment/Evaluation or Training Assessment/Evaluation. We included the term quality assurance (QA) to ensure that no relevant articles were missed due to imprecise index term use. The full search strategy for EMBASE is provided in online supplementary appendix 1. Given the nature of our search, we anticipated that a substantial proportion of relevant articles would not be captured by indexed sources. Therefore, an extensive grey literature search was conducted, which included: Google Scholar; direct scanning of relevant government and institutional websites; reference searches of identified articles and additional targeted searches based on research team input. The search terms used for Google Scholar were combinations of the same terms used for indexed databases, in addition to ‘healthcare/health care’. Our scan of institutional websites included 85 organisations in Canada, the USA, the UK, Australia, New Zealand, South Africa and organisations with an international mandate (full list available). All searches were completed between November 2014 and January 2015. A study investigator (GM) supported by a Research Assistant (JI) conducted all searches, screening and data extraction. Identified articles were screened based on their title and abstract. The 143 articles identified through MEDLINE were double screened at the beginning of this process to ensure inter-rater reliability (94% agreement). This was followed by regular meetings to monitor screening criteria. All articles describing the following types of study were identified for retrieval of full-text articles: QI/QA assessments/evaluations; QI/QA training assessments/evaluations and QI/QA capacity building initiatives. All full-text articles retrieved were then double screened, applying the following exclusion criteria: QI/QA initiatives or training without an assessment or evaluation; assessments or evaluations of QI/QA initiatives not primarily focused on QI/QA capacity building; and training in areas other than QI/QA (eg, training in clinical skills). Only articles written in English were included, with no restrictions on publication date or type. Data extracted from the selected articles included study type, context, evaluation design, common assessment themes and components.

Results

A total of 1562 references were initially identified through indexed databases and an additional 663 through Google Scholar. After title/abstract screening, 65 articles were retrieved for full-text screening. Forty-five additional articles were identified through institutional website scanning and recommendations from the research team. A total of 110 full-text articles were screened, and a further 16 articles were identified through reference list searches. Ultimately, 48 articles met the inclusion criteria and were included in the study. Figure 1 presents a flow chart summarising this process.
Figure 1

Searching and screening process and number of articles identified.

Searching and screening process and number of articles identified. Table 1 pairs our research objectives with the number of articles identified, and shows general characteristics of the 48 articles selected. We did not identify any system-level QI capacity building/training evaluations (ie, evaluations targeting efforts that have broad system-wide, cross-sectoral, multiprofessional focus). All evaluations identified in our search had narrower foci on specific initiatives within particular sectors, professions or programmes. Two studies included economic evaluations of QI capacity building/training, specifically evaluations of ROI, which coincided with our second research objective. Forty-six articles representing other evaluations or analyses of QI initiatives or training were identified in relation to our third research objective. A synthesis of this general evidence is presented next.
Table 1

General characteristics of studies included

Objective
NumberCountryNumberLevel of capacityNumber
1System-level evaluations (economic or not) of QI capacity building/training0
2Initiative level economic evaluations of QI capacity building/training2USA1Organisational2
UK1
3Initiative level evaluations (non-economic) of QI capacity building/training46USA33Individual19
Canada8Organisational11
 - Evaluations of QI training programme(19)UK3Interorganisational16
- Evaluations of QI capacity building programme/initiative(6)Ethiopia1
- QI capacity evaluations(5)Uganda1
- Assessment or analysis-related to QI capacity building(16)

General evidence on QI capacity building evaluation

As shown in table 1, only 30 articles represented studies directly evaluating QI capacity, QI capacity building initiatives or QI training. The other 16 articles were assessments or analyses related to QI capacity building, but not direct evaluations of it (eg, inclusion of QI in curriculum guidelines for healthcare professional education or accreditation, description of QI training programmes, analysis of how to build and evaluate QI capacity). Table 2 summarises the main content of the 46 initiative-level (non-economic) evaluations included.
Table 2

Findings from included articles, organised by theme

Numbers in brackets categorize findings through thematic grouping, according to the following 17 evaluation components and five overarching dimensions.
Characteristics of QI training

QI projects as part of QI training programme

Coaching/mentorship as part of QI training programme

Use of e-learning resources

QI training partnerships

QI training during residence or undergraduate healthcare studies

Characteristics of QI activity

Opportunities to apply QI skills

Informal QI training and coaching as part of the working environment

Patient and community participation in QI

Individual capacity (enablers/barriers)

QI skills and knowledge

Motivation and interest in QI activity

Individual barriers to QI training

Organisational capacity (enablers/barriers):

Organisational culture and leadership support to QI

Teamwork, team empowerment and resources for QI

Monitoring of and accountability for quality

Spread/diffusion of QI activity

QI strategy and work with health regulatory body

Impact (outcomes)

Patient and care outcomes

Continued

Characteristics of QI trainingCharacteristics of QI activityIndividual capacity (enablers/barriers)Organisational capacity (enablers/barriers)Impact (outcomes)
Evaluations of QI training programme
Cornett et al26Experiential learning through QI intervention (1). Use of coaching (2) and distance learning (3)QI training at the working site (6). QI coaching from trainees to others in the organisation (7)Confidence to conduct QI activities (9)Achievement of project goals, as measurable outcomes or processes (17)
Davis et al27Webcast participants had high receptivity to QI training (3)Receptivity to learning about and implementing QI activities (10)
Riley et al28QI project as part of QI training (1). Full distance learning (3). Programme developed in partnership (4)QI training at the working site (6)Kirkpatrick model,21 including ‘learning’ and ‘behaviour’ (9). QI programme relevance rating (10). Self-efficacy and willingness to conduct a future QI project (9)Management support (12) and availability of resources (13)Project outcome metrics (17)
Ruud et al29QI project as part of QI training (1). Programme developed in partnership (4)Transfer of knowledge and skills gained back to the work setting (7)Kirkpatrick model,21 including ‘learning’ and ‘behaviour’ (9)
Ng and Trimnell30QI project as part of QI training (1). Coaching and mentorship as part of QI training (2)Assessment of the spread of QI knowledge (7)Kirkpatrick model,21 including ‘learning’ and ‘behaviour’ (9)Meeting patient outcomes targeted by QI projects (17)
Daugherty et al31 (Emory Healthcare)QI project as part of QI training (1). Coaching and mentorship from previously trained staff (2). Programme developed in partnership (4)QI training at the working site (6)Support from supervisor and from senior leadership and ongoing institutional support (12). Improved teamwork (13). Barriers included financial resources (Rask et al) (13)Participant perception of impact on processes and outcomes, including patient satisfaction, access or safety (17)
Rask et al32 (Emory Healthcare)Ability in the use of data (9)
Blake et al33 (Emory Healthcare)Confidence to train others (9)
Lavigne34QI training in pharmacy curriculum (5)Assessed motivation, importance, usefulness, awareness impact on patient health (10). Self-reported ability to identify quality issues and knowledge of and ability to implement QI methods (9)
Warholak et al35QI training during pharmacy education (5)
Diaz et al36Impact after QI training during family medicine residency (5)QI training during residency increases subsequent family physician QI involvement (10)
Canal et al37QI project as part of QI training (1). QI training during surgery residency (5)QI training at the working site (6)Self-assessed QI efficacy (9)Sponsorship and involvement from team leaders on improvement initiatives (13)
Djuricich et al38QI project as part of QI training (1). QI training during internal medicine and paediatric residency (5)QI training at the working site (6)Self-assessed QI efficacy (9). Interest scale (10)
Ogrinc et al39QI project as part of QI training (1). PBLI training during internal medicine residency (5)QI training at the working site (6)Self-assessed confidence and proficiency in PBLI (9)Sponsorship and involvement from team leaders of improvement initiatives (13)
Didic et al40Assessment of training programme directed at board member and executive leaders of healthcare organisations. Includes questions on board relationship with CEO and clinical leadership, culture, information and measurement (12)
Robert Wood Johnson Foundation7Training must be experiential (1). Importance of QI in clinical curricula (5)Importance of QI coaches and mentor at the organisation (7)Cost of QI training as barrier (11)Key enablers: organisational support (12), infrastructure for QI and effective incentives (13)
Robert Wood Johnson Foundation41Importance of opportunities to apply new skills (6)Key enablers: organisational culture, leadership support and clear sponsorship of QI projects (12)
Morganti et al42Training reinforcement and coaching (7). Measures of QI training dosage included informal coaching (7). Patient-centred QI, involvement of family and friends at all levels (8)Understanding of QI principles and ability to apply QI skills (9). Importance of QI training (10)Organisational culture of QI and excellence, and leadership involvement (12). Team empowerment and financial resources; team effectiveness; end-user involvement (13). Information technology systems; performance monitoring (14) and diffusion (15)QI progress achieved in interventions following the QI training programme, using outcomes variables from the organisations (Kirkpatrick l4: ‘results’21) (17)
Morganti et al43
Evaluations of QI capacity building programmes/initiatives
Stover et al44QI coaching from supervisors (2). Partnership between the Ministry of Health, international and local universities, and research and training institutes (4)Involvement of community stakeholders (8)Self-assessed capacity for improvement work (9). Motivation for participation in improvement work: deaths, achieving health goals and positive experience with QI (10)Perception of district culture and leadership commitment and support for QI (12). Local team empowerment (13). Use of QI data; results-oriented accountability (14) and diffusion across teams (15)
Matovu et al45QI project as part of QI training (1). Coaching and mentorship as part of QI training (2). In collaboration with local university (4)QI training at the working site (6)
Runnacles et al46QI project as part of QI training (1). Coaching and mentorship as part of QI training (2). Programme directed at physicians during residency (5)QI training at the working site (6)Organisational culture receptive to change, senior executive support, and engagement of operational and improvement managers (12)
Adler et al3Inhospital QI training (4). Efforts to integrate QI training into medical education (5)Participatory from top and lower management to physicians (12). Key QI capability factors: teamwork, communication, specialised QI staff and committees and HR management (13). Information infrastructure, performance measurement, oversight and accountability (14); incentives to cross-unit collaboration (15). QI strategic priority (16)
Davis et al47Barriers to QI: lack of time, resources, perceived low relevance, poor leadership and teamwork commitment to QI, and insufficient QI training and experience (11). Mandatory QI for accreditation may be a QI driver (10)Leadership support (12). Number of staff trained in QI and regular contact between teams and decision-makers (13). Data collection and monitoring (14). National QI initiative (16)
Health Quality Ontario48 (Learning Community programme)QI coaching is a key element of this improvement programme (2). Virtual workspace and knowledge sharing (3)QI training at the working site (6)Motivation included positive past experience with QI, example from other organisations, need to meet specific improvement goals and external pressures (10)
QI capacity evaluations
Weiner et al49Extent of organisational deployment; senior management (12), hospital staff and physician participation (13). Diffusion across units (15)Hospital level outcomes quality measures (17)
Gagliardi et al50Education and training as key QI role (7)Role of accreditation as a QI driver (10)Senior management and board involvement, fostering QI culture (12). Communication and teamwork (13). Data analysis and monitoring (14). Strategic planning (16)Adverse events and patient satisfaction (17)
Ontario Hospital Association51Frequent partnership to develop QI plans (4).Growing involvement of patient and community in QI (8)Insufficient opportunities for formally training staff in QI (11)Leadership involvement in QI (12)
British Columbia Patient Safety and Quality Council52Distance learning to increase QI training feasibility (3)Importance of QI training and coaching at work and through personal study (7)Tuition fees as a barrier to QI training (11)Support of their organisations is critical for QI trainees (12)
Lawrence and Tomolo53Assessment tool for QI during medical education (5)Self-efficacy in QI plan development and implementation, developing a data collection plan, and teaching QI principles (9)
Assessment or analysis related to QI capacity building
Batalden et al54Practice-based learning and improvement (PBLI) as one of six general competencies of graduate medical education (5)
Butterworth et al55Undergraduate QI training for nurses and doctors (5)
Headrick et al56Use of web-based resources (3). Partnership between IHI, universities and healthcare organisations (4). Interprofessional QI training for undergraduate nurses and doctors (5)Focus on application in care setting (6)Evaluation on knowledge and skills (9); and perceived importance of QI (10)Focus on interprofessional communications and teamwork (13)Minimal though recognised importance of evaluating changes in behaviour and outcomes (17)
American Academy of Family Physicians57Family medicine resident should have knowledge in specific QI tools (5)Family medicine resident should have hands-on experience leading performance improvement initiatives (6)
Saskatchewan Health Quality Council58Lectures in QI to students in various health science programmes (5)
Hutchison et al59Partnership with provincial medical associations for QI training in primary care (4)Performance measurement (17)
Farley et al60Integration of patient perspective into QI (8)
Headrick et al61QI training for medical students (5)Learners engaging in care and improvement (6). Health professionals engaged in and teaching QI (7). Patient and family engagement (8)Leadership involvement in QI (12). Data transforming into useful information (14)
American Association of Colleges of Nursing62Knowledge and skills in leadership, quality improvement and patient safety among nursing educational standards (5)Effective working relationships and open communication and cooperation within the interdisciplinary team; use of information and communication technologies to enhance care and improve outcomes (13). Employ data for QI and safety (14)Use performance methods to assess and improve outcomes (17)
Cronenwett et al63 (Quality and Safety Education for Nurses (QSEN))QI competency should be developed during prelicensure nursing education (5)QI competency skill on seeking information about QI projects (6)QI competency requires skills on the use of QI methods, tools and quality measurement (9) QI competency requires knowledge and skills on reviewing and improving outcomes of care (17).
Cronenwett et al64 (QSEN)QSEN competencies are appropriate for advance practice nurses, including QI (5)
Batalden and Davidoff5Domains of QI interest include knowledge of customer/beneficiary and the social context (8). Knowledge of particular contexts is involved in QI (6)Knowledge on improvement methods (9)Domains of QI interest include leading and following, collaboration (13); measurement, variation and accountability (14). Strategy as driver of change is involved in QI (16)Performance measurement to assess the effect of changes (17)
Bevan12Capability building needs to be ‘hard-wired’ into the practice (6). Train initially those who can spread the skills most widely (7). Enable service users to drive and influence change (8)Importance of assessing knowledge and skills in improvement (9) and interest (10). Performance management should include incentives (10). Insufficient time as barrier (11)Key elements highlighted relate to culture and leadership support (12); teamwork and human resources management (13); measurement, use of evidence and benchmarks (14). Capability building strategies (16) need to take account of how change spreads in complex adaptive systems (15)Connect skill building to results and realising benefits. Importance of evidence from economic assessments (17)
Batalden et al65 (Veterans Administration National Quality Scholars (VAQS))Mentoring is a critical part of the programme (2). Use of distance learning technologies (3). Collaborative programme between universities and VA care sites (4)Most important venues for learning are the programme sites themselves (6). Physicians trained by this programme should be able to teach QI (7)
Splaine et al66 67 (VAQS)Curriculum domains include: leading and following, collaboration (13); measurement, variation and accountability (14)
Curriculum knowledge domains include customer/beneficiary knowledge and social context (8)

Merged cells indicate that the same content was included in more than one related article.

General characteristics of studies included Findings from included articles, organised by theme QI projects as part of QI training programme Coaching/mentorship as part of QI training programme Use of e-learning resources QI training partnerships QI training during residence or undergraduate healthcare studies Opportunities to apply QI skills Informal QI training and coaching as part of the working environment Patient and community participation in QI QI skills and knowledge Motivation and interest in QI activity Individual barriers to QI training Organisational culture and leadership support to QI Teamwork, team empowerment and resources for QI Monitoring of and accountability for quality Spread/diffusion of QI activity QI strategy and work with health regulatory body Patient and care outcomes Continued Merged cells indicate that the same content was included in more than one related article. We identified wide variation in the approach and measures used to evaluate QI capacity and programmes or initiatives to build QI capacity. While evaluations of QI training programmes are mostly focused on measuring the incremental improvement in participant QI knowledge and skills, broader evaluations of QI capacity or capacity building initiatives are mainly focused on organisational enablers and barriers, although this pattern is inconsistent. It is worth highlighting that only 9 (30%) of the 30 direct QI evaluations identified assessed the impact of QI capacity/training in terms of patient or programme outcomes (table 2). The process of identifying the evaluation components started with the identification of all components evaluated in the 46 articles, which were grouped according to common themes. Given the diversity of approaches, we identified 17 evaluation components that fit into 5 overarching dimensions, which are presented in table 2 and figure 2. These dimensions and components should be considered for inclusion in QI capacity building evaluations, and eventually adapted to system-level QI capacity building evaluations. Figure 2 also provides examples of how these evaluation components can be used.
Figure 2

Framework to guide evaluations of quality improvement capacity building.

Framework to guide evaluations of quality improvement capacity building.

Evaluations of ROI in QI initiatives

Given the limited evidence, we paid special attention to evaluations of ROI in QI initiatives that could inform our study objectives. We used Phillips' ROI Model in Training and Performance Improvement Programs,68 a commonly referenced work in this discipline, to analyse the alignment with the two studies that evaluated ROI in QI initiatives. Table 3 compares the approaches used in these studies and identifies elements used to calculate ROI specifically in QI capacity building initiatives.
Table 3

Alignment of return on investment in quality improvement capacity building assessments

Phillips’ ROI in Training and Improvement Model68The Productive Ward Rapid Assessment69Value of QI Educational Intervention24Common Elements
Planning

Develop evaluation plan and baseline data

Gather relevant material

Collate existing work.

Investigate ROI approaches adopted elsewhere.

Decide on which perspective we need to address.

Clarify the aims and objectives of the improvement initiative.

Define the time period for the ROI analysis.

Who Benefits: the value of outcomes depends on the stakeholder perspective.Timing of Analysis: prospective vs. retrospectivePlanning

Stakeholder perspective of the economic assessment

Temporal perspective of the economic assessment

Define the elements of economic appraisalCost Analysis: consider all costs used in service provision.Discerning Benefits: a tangible measure of value is needed. Determine if changes in purchasing could be attributed to the training program.Identifying costs
Data Collection

Reaction/Satisfaction

Learning

Application

Business impact

Identify dataObtain improvement evidenceIdentifying benefitsIdentifying intangible benefits that will not be included in the ROI estimation
Isolate Effects of ProgramDiscerning % attribution to each measureDiscerning attribution
Data Analysis

Convert data to monetary value

Return in investment

Identify intangible benefits

Produce ROI impact assessment

Insert data into ROI calculator.

Report an overall ROI result.

Report costs and benefits to each organization/sector.

Calculate the ROIROI calculations
Reporting

Include an assessment of the risks.

Articulate any assumptions made.

Assess the Sensitivity to changes in assumptionsSensitivity Analysis
Alignment of return on investment in quality improvement capacity building assessments Develop evaluation plan and baseline data Collate existing work. Investigate ROI approaches adopted elsewhere. Decide on which perspective we need to address. Clarify the aims and objectives of the improvement initiative. Define the time period for the ROI analysis. Stakeholder perspective of the economic assessment Temporal perspective of the economic assessment Reaction/Satisfaction Learning Application Business impact Convert data to monetary value Return in investment Identify intangible benefits Insert data into ROI calculator. Report an overall ROI result. Report costs and benefits to each organization/sector. Include an assessment of the risks. Articulate any assumptions made. The Productive Ward Rapid Impact Assessment69 represents a large-scale evaluation of investment in QI capacity building. The ROI was estimated based on case studies in nine selected hospitals in England. Although the initiative is intended to be implemented across hospitals in England's National Health Service (NHS), the Rapid Impact Assessment was limited to this initiative rather than representing a broad system-wide, cross-sectoral evaluation of QI capacity building across the NHS. A second study by McLinden et al24 depicts an ROI assessment of a QI training intervention to improve a back office process in a US hospital setting. Drawn from shared elements, as depicted in the fourth column in table 3, we identified eight key steps in ROI assessments of QI capacity building: Planning—stakeholder perspective: The magnitude and value of an economic evaluation will vary depending on the stakeholder perspective selected. In the Productive Ward, for instance, the analysis took a ‘public value perspective’, attempting to include all benefits and costs allocated to every relevant stakeholder. Planning—temporal perspective: The economic evaluation may be prospective (should the programme be undertaken?), retrospective (what were the results of the programme?) or contemporaneous (should the programme be changed?). In addition, the evaluation should allow enough consideration of midterm and long-term outcomes, especially for long-term interventions.68 Identifying costs: All relevant costs to conduct the intervention or that result from the intervention should be captured, provided they are directly attributable to the intervention. The Productive Ward assessment used national and local data sources and included indepth interviews to retrieve all relevant costs. Identifying benefits: All relevant benefits should also be identified, including monetary and non-monetary or intangible benefits. For example, the Productive Ward Rapid Assessment included: quality outcomes, productivity and efficiency outcomes, and financial benefits. Financial benefits generated by increased direct patient care time were calculated through excess bed days, length of stay, hospital readmissions, rates of staff absence and stock reduction. Identifying intangible benefits that will not be included in the ROI estimation: Non-monetary or intangible benefits should always be estimated and reported, even if sometimes they cannot or should not be converted to monetary values and included in the ROI estimation by design.68 In the Productive Ward Rapid Assessment, patient experience, staff satisfaction and harm events, although identified, were not quantified and excluded from the ROI estimation. Discerning attribution: Identified costs and benefits should only be included in the ROI estimation if attributable to the intervention, and in the proportion attributable to the intervention. This is possibly the most crucial step in the ROI evaluation, due to the challenges in clearly justifying attribution and the associated potential discretional effects on the estimation results. For example, in order to isolate the effect of training, McLinden et al24 asked a group of stakeholders to consider the multiple factors that could be responsible for the financial benefits and then to estimate the percentage attributable to training. Attribution of changes to the Productive Ward was also obtained from the judgement of managers involved in the implementation of the programme during the interviews. ROI calculations: ROI is calculated as the net benefit (benefits minus costs) divided by costs.68 For the Productivity Ward, the estimated total potential economic impact was calculated by scaling up the evidence from the 9 participating hospital trusts to all 139 wards in England. The estimation was that for every £1 spent, £8.07 would be returned. McLinden et al24 reported that for every $1 invested in training, $1.77 would be returned. Sensitivity analysis: The results of an economic evaluation are based on assumptions that bring uncertainty to the final ROI estimate. A sensitivity analysis needs to be performed in order to understand the probabilities and magnitude of the variation in evaluation results. The Productive Ward evaluation used a table of risk assessments to discuss the implications of using the wrong assumptions in the model. McLinden et al24 also explored the impact of variations in costs and benefits in the calculations of ROI.

Discussion

Research in QI capacity building assessment is limited in the number and scope of studies, as reflected in the limited findings of our systematic review. While we cast a broad net for our search, it is possible that our search strategy was not sufficiently sensitive or specific to capture all relevant QI capacity building evaluations. However, given the multiple sources searched for this review, including eight indexed databases, plus Google Scholar, Google and targeted searches of governmental and other organisational websites, recommendations from experts and reviews of reference lists of articles identified, we believe it is unlikely that we have missed a system-level evaluation. Several studies have shown improvement in quality outcomes related to building QI capacity; however, there has not been an emphasis on understanding how much we are getting from these investments. More indepth evaluations are needed to understand when learning occurs, is applied and when it has an impact on patient care. Furthermore, existing studies have substantial variation in evaluation approaches and measures, which reflects the lack of a shared or sufficiently broad vision of how to construct and evaluate QI capacity building. This issue challenges the applicability and generalisability of evidence across care settings and jurisdictions. With a limited base of past work to draw on, we have little evidence to make judgements regarding the appropriate level of QI investments, where these investments should be directed for optimal impact, and the extent and nature of costs related to QI training and projects. Therefore, although most health systems can quantify at least some of their investments in personnel and training dollars, the ROI for QI capacity building at the system level is largely unknown. Taken together, this review represents a synthesis of the most current knowledge on QI capacity building evaluation at organisation and programme levels that we cautiously used to highlight important elements that are relevant to the system level, and key gaps that need further attention. To guide future evaluation efforts at the health system level, we have consolidated the main elements identified in our review into a Framework to Guide Evaluations of QI Capacity Building, presented in figure 2. The left side of figure 2 (QI efforts) shows the 5 dimensions and 17 evaluation components identified, and the arrows represent the directional effect between them. Investments in QI capacity building produce QI training and QI activity. QI training and activity generate individual and organisational QI capacity. Organisational and individual QI capacity have an impact on patient and care outcomes. The interdependence between QI training and activity, and between individual and organisational QI capacity, is represented by bidirectional arrows. The right side of figure 2 (QI evaluations) shows how ‘evaluations of QI capacity building’ (ie, evaluations of QI training or QI programmes/intervention) typically consider characteristics of QI training and/or QI activity and evaluate their effects on organisational and individual QI capacity, and ideally also on patient and care outcomes (arrow A). ‘Evaluations of QI capacity’ may explore the effect of organisational and individual QI capacity in outcomes (arrow B), or be limited to the assessment of the level of QI capacity in an organisation, region or healthcare system (arrow C). Distinctively, ‘evaluations of ROI in QI capacity building’ should start by taking into account the investments in QI capacity building and then evaluate all five dimensions in the framework, including outcomes (arrow D). The framework also incorporates the 8 identified key steps of a QI ROI assessment, advancing Phillip's framework by focusing on QI capacity building through examples provided for each of the 17 evaluation components. These examples show how the components relate to evaluations of ROI in QI capacity building. These evaluation questions are only examples of the many aspects that need to be considered when planning and executing economic assessments of QI capacity building, especially on a large scale. Although not specifically focused on QI evaluation, a prior systematic review by Kaplan et al70 identified contextual factors that might influence QI success which coincide with our findings, such as leadership from top management, organisational culture, data infrastructure and information systems. Subsequently, Kaplan et al71 used an expert panel to prioritise these findings in a model to understand contextual factors affecting the success of QI projects. Although they identified external factors influencing QI success, these were from the organisational perspective and not at the health system level. The extensive use of ROI evaluations in many industries contrasts with their slow introduction in health and social care evaluations. Direct transactions between customer and provider normally help quantify value in other industries. However, third-party payment systems in the delivery of healthcare make it difficult to identify opportunities for increasing ROI.24 Another key issue is converting intangible benefits to monetary value to be included in economic evaluations, given the central importance in healthcare of non-monetary outcomes, such as patient experience or health outcomes. This is especially critical in QI at the health system level and for population health, where targeted outcomes can be as ‘non-monetary’ as wait times or quality of life and as ‘intangible’ as innovation, leadership or culture. Phillips68 notes that ‘there is no measure that can be presented to which a monetary value cannot be assigned’, yet the key issues are making credible estimates that are stable over time and at a reasonable cost. Failing to address these issues has the inherent risk of misjudging the real value of QI capacity building investments. Isolating the effect and discerning attribution of capacity building and training interventions is challenging, even more if doing so at the system level. Typical approaches include the use of control groups and time-series analysis, techniques that are not always plausible when multiple initiatives and programmes are implemented simultaneously. Alternatively, estimation of training impact can be obtained through focus groups or questionnaires, as shown in the examples identified through this review. The important point is to always carefully discern costs and benefits attributable to the intervention. Depending on the robustness of the estimation, error adjustments should be large enough to show reliable evaluation results.68 From the findings of this review, we can conclude that there is an important gap in QI capacity building knowledge and assessment, particularly at the system level. However, the techniques and necessary expertise to start addressing this research gap exist and the necessary resources could be made available. Even based on limited experience in this field, a more extensive use of ROI or other types of economic evaluation of QI capacity building can help close this knowledge gap. After all, ROI assessments are no more than evaluations of the balance between costs and benefits, which is coincidental with widely accepted ‘value’ frameworks in health, such as the Triple Aim. Therefore, a high policy priority going forward is to broaden the vision to pursue more comprehensive system-level evaluation and monitoring of advances in QI capacity building and the impact of investments, in order to truly achieve a better healthcare system for all.
  44 in total

1.  Development and preliminary evaluation of a practice-based learning and improvement tool for assessing resident competence and guiding curriculum development.

Authors:  Renée H Lawrence; Anne M Tomolo
Journal:  J Grad Med Educ       Date:  2011-03

2.  Measuring success for health care quality improvement interventions.

Authors:  Kristy G Morganti; Susan Lovejoy; Amelia M Haviland; Ann C Haas; Donna O Farley
Journal:  Med Care       Date:  2012-12       Impact factor: 2.983

3.  The triple aim: care, health, and cost.

Authors:  Donald M Berwick; Thomas W Nolan; John Whittington
Journal:  Health Aff (Millwood)       Date:  2008 May-Jun       Impact factor: 6.301

4.  Still crossing the quality chasm--or suspended over it?

Authors:  Susan Dentzer
Journal:  Health Aff (Millwood)       Date:  2011-04       Impact factor: 6.301

5.  The Model for Understanding Success in Quality (MUSIQ): building a theory of context in healthcare quality improvement.

Authors:  Heather C Kaplan; Lloyd P Provost; Craig M Froehle; Peter A Margolis
Journal:  BMJ Qual Saf       Date:  2011-08-10       Impact factor: 7.035

Review 6.  A systematic review of evaluation in formal continuing medical education.

Authors:  Jing Tian; Nancy L Atkinson; Barry Portnoy; Robert S Gold
Journal:  J Contin Educ Health Prof       Date:  2007       Impact factor: 1.355

7.  A two-pronged quality improvement training program for leaders and frontline staff.

Authors:  Kimberly J Rask; Richard S Gitomer; Nathan O Spell; Steven D Culler; Sarah C Blake; Susan S Kohler; Jonathan N Hawley; William A Bornstein
Journal:  Jt Comm J Qual Patient Saf       Date:  2011-04

8.  Teaching and assessing resident competence in practice-based learning and improvement.

Authors:  Greg Ogrinc; Linda A Headrick; Laura J Morrison; Tina Foster
Journal:  J Gen Intern Med       Date:  2004-05       Impact factor: 5.128

9.  Results of an effort to integrate quality and safety into medical and nursing school curricula and foster joint learning.

Authors:  Linda Ann Headrick; Amy J Barton; Greg Ogrinc; Carly Strang; Hanan J Aboumatar; Myra A Aud; Paul Haidet; Deborah Lindell; Wendy S Madigosky; Jan E Patterson
Journal:  Health Aff (Millwood)       Date:  2012-12       Impact factor: 6.301

10.  Strengthening health workforce capacity through work-based training.

Authors:  Joseph K B Matovu; Rhoda K Wanyenze; Susan Mawemuko; Olico Okui; William Bazeyo; David Serwadda
Journal:  BMC Int Health Hum Rights       Date:  2013-01-24
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  11 in total

1.  Understanding Factors Influencing Quality Improvement Capacity Among Ambulatory Care Practices Across the MidSouth Region: An Exploratory Qualitative Study.

Authors:  Allyson L Varley; Sunil Kripalani; Thomas Spain; Amanda S Mixon; Erin Acord; Russell Rothman; Heather M Limper
Journal:  Qual Manag Health Care       Date:  2020 Jul/Sep       Impact factor: 1.147

2.  Public Spending on Health Service and Policy Research in Canada, the United Kingdom, and the United States: A Modest Proposal.

Authors:  Vidhi Thakkar; Terrence Sullivan
Journal:  Int J Health Policy Manag       Date:  2017-11-01

3.  Evolving quality improvement support strategies to improve Plan-Do-Study-Act cycle fidelity: a retrospective mixed-methods study.

Authors:  Chris McNicholas; Laura Lennox; Thomas Woodcock; Derek Bell; Julie E Reed
Journal:  BMJ Qual Saf       Date:  2019-03-18       Impact factor: 7.035

4.  Assessing quality improvement capacity in primary care practices.

Authors:  Michael L Parchman; Melissa L Anderson; Katie Coleman; Le Ann Michaels; Linnaea Schuttner; Cullen Conway; Clarissa Hsu; Lyle J Fagnan
Journal:  BMC Fam Pract       Date:  2019-07-25       Impact factor: 2.497

5.  Organizational Support in Healthcare Redesign Education: A Mixed-Methods Exploratory Study of Expert Coach and Executive Sponsor Experiences.

Authors:  Pieter J Van Dam; Phoebe Griffin; Gregory M Peterson; Nicole S Reeves; Lea Kirkwood; Sarah J Prior
Journal:  Int J Environ Res Public Health       Date:  2020-07-23       Impact factor: 3.390

6.  Capability building for large-scale transformational change: learning from an evaluation of a national programme.

Authors:  Iain M Smith; Elaine Bayliss; Felix Mukoro
Journal:  BMJ Open Qual       Date:  2021-01

7.  Factors influencing measurement for improvement skills in healthcare staff: trainee, and trainer perspectives.

Authors:  Zuneera Khurshid; Aoife De Brún; Eilish McAuliffe
Journal:  BMC Med Educ       Date:  2022-04-02       Impact factor: 2.463

8.  An "All Teach, All Learn" Approach to Research Capacity Strengthening in Indigenous Primary Health Care Continuous Quality Improvement.

Authors:  Karen McPhail-Bell; Veronica Matthews; Roxanne Bainbridge; Michelle Louise Redman-MacLaren; Deborah Askew; Shanthi Ramanathan; Jodie Bailie; Ross Bailie
Journal:  Front Public Health       Date:  2018-04-30

9.  Multi-method evaluation of a national clinical fellowship programme to build leadership capacity for quality improvement.

Authors:  Madalina Toma; Avril Blamey; Dawn Mahal; Nicola M Gray; Laura Allison; Shobhan Thakore; Paul Bowie
Journal:  BMJ Open Qual       Date:  2020-10

10.  How to sustainably build capacity in quality improvement within a healthcare organisation: a deep-dive, focused qualitative analysis.

Authors:  Peter D Hibbert; Martin Basedow; Jeffrey Braithwaite; Louise K Wiles; Robyn Clay-Williams; Robert Padbury
Journal:  BMC Health Serv Res       Date:  2021-06-18       Impact factor: 2.655

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