Abstract
CONTEXT
To compare the responses of rural independent and health system primary care practices with urban practices to external practice facilitation support in terms of recruitment, readiness, engagement, retention, and change in quality improvement (QI) capacity and quality metric performance.
METHODS
The setting consisted of 135 small or medium size primary care practices participating in the Healthy Hearts Northwest quality improvement initiative. The practices were stratified by geography, rural or urban, and by ownership, independent (physician-owned) or system owned (health/hospital system). The quality improvement capacity assessment (QICA) survey tool was used to measure QI at baseline and after 12 months of practice facilitation. Changes in three clinical quality measures (CQMs), appropriate aspirin use; blood pressure (BP) control; and tobacco use screening and cessation, were measured at baseline (2015) and follow-up (2017).
RESULTS
Rural practices were more likely to enroll in the study, with one out of 3.5 rural recruited practices enrolled, compared to one out of 7 urban practices enrolled. Rural independent practices had the lowest QI capacity at baseline, making the largest gain in establishing a regular QI process involving cross-functional teams. Rural independent practices made the greatest improvement in meeting the BP control CQM, from 55.5% to 66.1% (p<0.001) and the smoking cessation metric, from 72.3% to 86.7% (p<0.001).
CONCLUSIONS
Investing practice facilitation and sustained QI strategies in rural independent practices, where the need is high and resources are low, will yield benefits that outweigh centrally prescribed models.
Keywords: Primary Care, Quality Improvement, Rural, Practice Ownership, Practice Facilitation
Introduction (Study Purpose/Relevance)
One out of five Americans lives in a rural community1 where resources are limited and needs are high.2,3 As compared to their urban counterparts, rural residents are generally older, often in poor health, have higher mortality rates for chronic conditions, have decreased life expectancy, and are more likely to experience socioeconomic deprivation and a lack of health insurance.4–8 When combined with primary care workforce shortages in rural areas, these factors contribute to the designation of rural residents as a priority population.9
Improving the quality of health care in rural settings has been challenging.10 Rural primary care practices have difficulties reporting quality measures and implementing quality improvement (QI) initiatives.11 In addition to an absence of a QI infrastructure, rural providers report a lack of time and personnel to participate in value-based compensation programs.12,13
Over the past three decades ownership and control of rural primary care practices has shifted14,15 as physician-owned rural practices have aligned with health systems and regional hospitals.16–18 Although the percentage of U.S. physicians who own their practice has been declining at approximately 2% annually for the past 25 to 30 years,16 independent practices continue as a usual source of care for up to fifty percent of people in urban and rural areas.19,20 In rural areas, independent practices, often a solo or small practice (2–5 providers),21 may be the sole source of care for a community. However, the impact of both rural status and practice ownership on efforts to support building primary QI capacity and improving clinical quality is not well understood.
Practice facilitation is an effective strategy used to support primary care practices in efforts to improve the quality of care.22–24 Facilitation is an activity delivered by a facilitator, who employs different facilitation skills to enable implementation and improvement.25 It is a relationship-oriented activity based on trust and effective communication skills. The remote location and isolation of rural practices suggest that this relationship approach might be especially effective. However, little is known about how primary care practices respond to external practice facilitation based on their rural or urban location and ownership status.
Practice facilitation was the foundational approach for building QI capacity and improving the quality of cardiovascular disease care within small and medium size primary care practices in a recent initiative, EvidenceNOW, funded by the Agency for Healthcare Research and Quality.26,27 Healthy Hearts Northwest (H2N), the Pacific Northwest regional cooperatives, enrolled 209 practices across Washington, Oregon, and Idaho.28,29 The rural geography of this three-state region provided a unique opportunity for H2N to focus recruitment on rural practices where clinicians might view the project as a priority and as highly relevant to their daily work.
This paper compares practices based on both their rural/urban locations and their practice ownership status on how they responded to external practice facilitation support in terms of recruitment, engagement, and retention, as well as changes in their QI capacity and clinical quality metric performance. We hypothesized that rural practices, especially independent practices, when compared to urban practices will: 1) be more likely to participate in the study (recruitment), 2) be more likely to complete the 15 months of offered practice facilitation support (engagement and retention), and 3) demonstrate greater improvements in their QI capacity and performance on the QI measures.
Methods
Setting and Subjects
Eligibility criteria for participation in study included: small or medium size practice (fewer than 10 providers per site); delivery of primary care to adult patients; a location in Oregon, Washington, or Idaho; use of an existing Electronic Health Record (EHR); and a lack significant centralized support for data management and QI. Details on practice recruitment and enrollment have been published elsewhere.28,30
This study was determined to be exempt (category 2) by the Kaiser Permanente Washington Health Research Institute’s Institutional Review Board, waiving the requirement for informed consent but not ethics review.
Practice Facilitation Intervention
Briefly, sixteen practice facilitators (PFs), each with a cohort of practices to facilitate, provided up to 15-months of active support to each practice. PFs developed a relationship with individuals in the practice to provide a foundation for the QI work, helped develop a QI team, and worked with them to use their data and feedback to improve performance.28,29
Data Collection and Measures
Data sources for these analyses included: (1) data from baseline and follow-up practice and staff surveys; (2) baseline and quarterly clinical performance measurement from each practice on three clinical quality measures (CQMs) of cardiovascular disease risk: appropriate aspirin use, blood pressure (BP) control, and smoking cessation support; (3) a quality improvement capacity assessment (QICA) survey used by PFs to guide improvement efforts, and (4) intervention tracking records maintained by PFs, which included counts and types of major disruptions at the clinics.
Practice and patient characteristics
A baseline survey was completed by the office/practice manager in each enrolled practice to collect information about practice characteristics (size, ownership, specialty, clinician patient panel size, staffing), and patient characteristics (insurance status and age groups). Three additional assessments of QI context were assessed with the practice survey: 1) the ability to use data for improvement—customized reports and CQM reports, 2) the degree to which the practice is part of a larger organization with a centralized QI team and 3) the autonomy of the practice to choose which QI projects suited their focused efforts.
Cardiovascular Risk Factor CQMs
Three different CQMs endorsed by the Centers for Medicare and Medicaid in 2015 were collected from the EHR: appropriate aspirin use (CMS 164), BP control (CMS 165), and tobacco use screening and cessation (CMS 138).31 Each CQM was reported as the proportion of the eligible patient population meeting the quality standard. Practices were asked to report CQMs each quarter, using a 12-month rolling lookback period. The data reported here corresponded to clinical care provided for calendar years 2015 (the year prior to the 15-month study intervention) and 2017.
Quality Improvement Capacity
A validated measure of QI capacity, the QICA, was completed by practice clinicians and staff to measure seven domains, also called “High Leverage Changes,” that contribute to QI capacity: (1) embed clinical evidence; (2) utilize data to improve performance; (3) establish a regular QI process; (4) identify at-risk patients; (5) define team member roles and responsibilities; (6) improve patient self-management support; and (7) link patients to outside resources.32 The 20-item QICA survey was completed twice during the study, once at the “Kick-Off” in-person meeting in each participating practice with the PF and again during the fourth in-person quarterly visit. The QICA items guided the PFs as they worked with practice QI teams to develop practice-specific changes and engage in Plan-Do-Study-Act cycles of improvement.32 Each item was scored between 1 (poor) and 12 (excellent), reaching team consensus on each item score.
Intervention tracking records
Disruptions were defined as major changes in the 12-months prior to implementation of the QI intervention: implementing a new EHR or billing system, moving to a new location, having clinician turnover, or being purchased by another organization. Baseline disruptions were obtained from the practice survey. The PFs also documented major practice disruptions during their monthly contacts with the practice in the intervention tracking records.
Analysis
For analysis, we included independently (physician-owned) and health system/hospital owned primary care practices, excluding 22 Federally Qualified Health Centers and 10 tribal clinics, of which too few were located in rural areas (n=5 and 4, respectively) to allow for generalizations. We designated independent practices as our reference group. Practices were categorized by rural-urban commuting code (v3.1) and were considered rural if they were category 4 to 10 by zip code and urban if they were category 1 to 3 by zip code.30 After testing for differences in retention by location and ownership groups (p=0.83), we limited analysis to the 135 practices completing both a baseline QICA and a second QICA, administered following at least three quarters of practice facilitation.
Descriptive statistics are presented as number and percent for categorical variables, mean and standard deviation (SD) for continuous variables with approximately symmetric distributions, and median with the 25th and 75th percentiles for continuous variables with skewed distributions. Group differences for baseline characteristics were tested using chi squared tests for categorical variables and the non-parametric Kruskall-Wallis test for ordinal, continuous, or count variables. Changes in the QICA and CQMs were estimated using mixed effects linear regression models with the four-level rural/urban independent/system-owned categorical variable, an indicator for baseline vs follow-up measures, and an interaction between the two. The interaction allowed different rates of change among the types of practices. These models included a random intercept for practice to reflect correlation between baseline and follow-up measures. While most outcomes were approximately normally distributed, we used robust (empirical) variance estimators to compensate for slight departures from normality. After fitting each regression model, we used the regression coefficients to calculate the mean changes and their confidence intervals. For changes, a confidence interval entirely above or below zero (i.e., no change) is roughly equivalent to a p value <0.05. This approach, compared to performing regression on the calculated change scores, allowed us to use all available data, including some from practices missing clinical quality measures at either baseline or follow-up (approximately 15% of aspirin and smoking observations and 2% of BP). Compared to a complete case analysis (not shown), this influenced estimates somewhat toward the null.
Analyses were completed using Stata/IC version 15 for Windows33 and made extensive use of the user-contributed tabcount command.34
Results
Practice ownership is linked to geography with health system practices representing 63% of rural practices and independent practices making up 68% of urban practices. Family medicine is the dominate specialty across all categories (74%), ranging from 71% of rural health system practices to 80% of independent rural practices. Independent practices, in both urban and rural settings, lack central QI resources, reporting high levels of autonomy. Two or more disruptions are more common in rural settings (75% independent, 71% health system) as opposed to urban settings (44% independent, 46% health system). The total QICA score averaged 6.4 across practices, with a range of 6.0 for rural independent practices to 6.7 for urban health system practices.
Practice Recruitment and Retention
A previously published study reported on practice recruitment across two of the seven EvidenceNOW cooperatives (Pacific Northwest, Midwest).30 The Pacific Northwest Cooperative (H2N) connected with 1,388 practices successfully enrolling 258 practices. The H2N dataset showed that 30% of the recruited practices were rural and 46% of the enrolled practices were rural. Rural practices were more likely to enroll in the study, with one out of 3.5 rural recruited practices enrolled compared to one out of 7 urban practices enrolling (p<0.0001). The dropout rate was 26% for rural practices compared to 27% for urban practices (p=0.87). Ownership played a role in dropout rates. Within the health system practices, the rural dropout rate was 23.6% compared to an urban dropout rate of 26.7%. Within the independent practice groups, the rural dropout rate was 15.4% compared to an urban dropout rate of 23% (p=0.66 for location/ownership interaction).
Practice Engagement
During the 15-month H2N intervention, all practices received an average of 8.7 (SD 2.8) in-person visits lasting a minimum of 30 minutes. The number of visits did not differ by practice location or ownership type, ranging from 8.0 (SD 2.9) for rural independent practices to 9.0 (SD 3.0) for urban independent practices (p=0.57).28
Rural practices tended to have the lowest scores at baseline across all QI capacity domains and their composite score than urban practices. Although all practices improved their overall QICA score, the improvements seen by rural practices, either independent or health system practices, did not differ significantly from their urban counterparts. However, rural independent practices demonstrated notable improvement in their scores on the domains of using the established QI process and embedding clinical evidence compared to their counterparts. (See Supplemental Table S1)
Rural independent practices had the lowest performance at baseline on two of the three CQM measures, BP control and appropriate aspirin use. Across all three measures, rural independent practices made the largest gains in improving their performance compared to the other three groups, with gains of over 10 percentage points on every measure. This improvement was statistically significant for BP control and smoking cessation. Across rural independent practices, BP control improved from 55.5% of patients with controlled BP to 66.1% (p<0.0010). The smoking CQM went from 72.3% of rural independent practices meeting the performance standard at baseline to 86.7% (p<0.001).
Practice Disruptions
The practice facilitator intervention tracker reported that rural practices, both independent and health system practices experienced a higher rate (75% and 71%) of disruptions compared to urban independent (44%) and health system (46%) practices (p=0.028). These study findings are consistent with the baseline practice survey results where almost 4 out of 5 (77.9%) rural practices (independent and health system) reported multiple major disruptions compared to approximately half (48.6%) of urban practices.
Discussion
Compared to rural health system or urban practices, rural independent practices were more willing to participate, engage with and make changes leading to improvements in QI capacity and clinical performance measures with support from a facilitator. Although a few studies have shown rural practices do not perform as well as urban practices,35,36 the response of these practices to the external practice facilitation support offered suggests that it may be particularly suited as a strategy to support rural practices, especially those that are independent, leading to improvements in both their QI capacity and their performance on measures of clinical quality. Why might PF be particularly suited to rural practices?
As described by Berta and colleagues, “Facilitation drives a purposeful…change that focuses on building trusting relationships and establishing and sharing common goals between the facilitator and those engaged in making the change.”23 Because the rural setting is characterized by a high need, low resource environment physically isolated from centers of power, this relational and social process of change may be an especially good fit. Leveraging practice and community strengths by investing in relationships is a necessary implementation asset.37
At the start of the intervention, rural independent practices were more likely to lack QI process and have limited ability to use data to create quality metrics and deliver population health management. A connection to a centralized QI infrastructure usually did not exist for rural independent practices. These practices also were less likely to report the ability to generate a non-standard CQM report. This may explain why rural independent practices were highly engaged in the support provided by the facilitator for improving QI data collection and management. The finding that independent practices were more likely to submit the first CQM data within the first 90 days is consistent with a recent H2N published study finding that practices with central QI support took longer to submit data compared with practices lacking centralized support.38
Creating structural change in practice is foundational to creating QI capacity.39 We used the QICA to measure structural change. Compared to other practices, rural independent practices excelled at improving their QI processes and embedding evidence into clinical practice. Their self-assessed score in both domains at the end of the intervention was higher than rural health system practices, even though they were lower at baseline. Across the seven HLCs most practice facilitation touches and communications focused on supporting HLC 3: “Establish a regular QI process, involving cross-functional teams.” Facilitators reported that these practices either generally started from no QI meetings or meeting on an ad hoc basis. Participation in the QI committee was a new experience for many of the practice staff. Utilizing data to understand and improve CQM performance measures (HLC 2) was a challenge for most practices. Rural independent practices, although making improvement, continued to struggle with data management; continued work is needed to develop competency with data management and population health.
Compared to other practices, rural independent practices demonstrated the largest percentage improvement across all three CQMs. The BP control CQM showed significant improvement (p<0.001), closing the gap with urban practices and outperforming rural health system practices.41 These changes are even more remarkable considering that major disruptions were more common in rural practices both at baseline and throughout the study intervention. Their ability to make such large improvements in performance on all three CQMs in spite of this high rate of disruptions suggests that these practices have a high degree of resiliency.
Several limitations are to be noted. No control group of practices was available. We are only able to report on outcomes among practices that received external practice facilitation support. However, the purpose of the study was not to test the effectiveness of PF, rather to compare the relative effectiveness of PF across practice location and ownership status. The number of practices, especially rural independent practices, is relatively small and from one geographic region of the United States. We were unable to fully explain the impact of health system ownership on the ability of rural practices to improve. We are only able to state that these findings suggest that rural health system practices were less likely to make the gains in QI capacity and performance than those observed in rural independent practices. The impact of health system ownership on the ability of a primary care practice to innovate and make changes necessary to improve quality requires additional study.
Implications for improving rural primary care
The findings of this study suggest rural health system practices are less likely to improve QI capacity and performance on quality metrics compared to rural independent practices with support from a practice facilitator. Practice facilitators are viewed as trusted practice allies who understands that practice context is critical to implementing health delivery transformation and that QI projects as “one-size” interventions do not often fit. Frameworks for dissemination and implementation of evidence-based practice improvements have emphasized the importance of adapting and tailoring interventions to the practice context.37,40–45 A recent article on medical home functionality and quality suggests tailored technical assistance facilitates primary care transformation.46 Practice facilitation as an implementation strategy is uniquely capable of this type of tailoring approach to supporting improvement.
It has been suggested the shift away from rural independent practices is driven more by market and business considerations than a motivation to improve quality of care in rural areas.47 It is unusual to find a new independent practice in a rural community. Graduates of family medicine residencies do not see independent practice as a viable option, with 89.7% of graduates seeking an employed position as opposed to 5.7% pursuing practice ownership.48 As a result, existing physician-owned practices struggle to recruit physicians, especially as older physicians retire or leave practice.49 The loss of these independent practices may have an adverse impact on our ability to improve the quality of care in rural communities. If these practices are to exist in the future, providing them with support from a practice facilitation program may be needed to improve their viability.
In conclusion, finding from this study indicate that for rural practices, especially independent practices, practice facilitation is an especially effective strategy for building QI capacity and improving the quality of care they provide to their rural community. In addition, these data suggest that primary care practices, regardless of location and ownership, may benefit from additional QI facilitation.27 This recognition led to the inclusion of the Primary Care Extension Program in the Affordable Care Act passed in 2010, however no funding for this program was provided.50 If we are to ensure high quality equitable care for everyone, regardless of where they live, this issue may need to be revisited.
Supplementary Material
Table 1.
Rural | Urban | ||||||||
---|---|---|---|---|---|---|---|---|---|
Independent (N=20) |
Health System (N=34) |
Independent (N=55) |
Health System (N=26) |
||||||
N | % | N | % | N | % | N | % | P | |
Practice size (n clinicians), n (%) | |||||||||
1 (solo) | 3 | (15) | 1 | (3) | 18 | (33) | 2 | (8) | 0.01 |
2–4 | 12 | (60) | 19 | (56) | 20 | (36) | 14 | (54) | |
5+ | 5 | (25) | 14 | (41) | 17 | (31) | 10 | (38) | |
Specialty: Family Medicine, n (%) | 16 | (80) | 24 | (71) | 41 | (75) | 19 | (73) | 0.9 |
Clinicians assigned panels, n (%) | 16 | (80) | 31 | (91) | 41 | (75) | 25 | (96) | 0.047 |
Panel size (in practices with panels), median (quartiles) | 1175 | (494 to 2000) | 1000 | (600 to 1171) | 1550 | (675 to 2478) | 1000 | (676 to 1466) | 0.053 |
% Medicaid, mean (SD) | 22 | (19) | 24 | (12) | 19 | (26) | 28 | (20) | 0.011 |
% Medicare, mean (SD) | 30 | (19) | 30 | (15) | 21 | (17) | 26 | (19) | 0.049 |
No central QI support, n (%) | 15 | (75) | 8 | (24) | 43 | (80) | 5 | (19) | <0.001 |
Complete/a lot of autonomy to choose QI projects, n (%) | 16 | (80) | 23 | (68) | 49 | (91) | 15 | (58) | 0.005 |
Number of major disruptions during study period, n (%) | |||||||||
2+ | 15 | (75) | 24 | (71) | 24 | (44) | 12 | (46) | 0.028 |
1 | 1 | (5) | 5 | (15) | 13 | (24) | 6 | (23) | |
0 | 4 | (20) | 5 | (15) | 18 | (33) | 8 | (31) | |
Ever run nonstandard CQM report, n (%) | 4 | (20) | 19 | (56) | 15 | (29) | 10 | (40) | 0.069 |
Confident (4 or 5 out of 5) generating CQM report, n (%) | 7 | (35) | 10 | (30) | 27 | (53) | 7 | (30) | 0.12 |
Baseline QICA, mean (SD) | 6.0 | (1.8) | 6.2 | (1.0) | 6.6 | (1.5) | 6.7 | (1.4) | 0.21 |
Number of in-person visits by practice facilitation staff, mean (SD) | 8.0 | (2.9) | 8.6 | (2.1) | 9.0 | (3.0) | 8.7 | (3.2) | 0.57 |
Table 2.
Baseline | Final | Change | ||||||
---|---|---|---|---|---|---|---|---|
CQM | Mean | (SD) | Mean | (SD) | Mean | (95% CI) | p | |
Blood pressure | R-I | 55.5 | (11.6) | 66.1 | (10.2) | 10.6 | (6.2, 15.0) | <0.001 |
R-HS | 61.2 | (10.0) | 63.5 | (10.1) | 2.3 | (−1.9, 6.6) | 0.29 | |
U-I | 65.8 | (13.0) | 64.7 | (11.3) | −0.7 | (−4.3, 2.9) | 0.71 | |
U-HS | 62.4 | (11.0) | 68.5 | (12.3) | 6.1 | (3.6, 8.7) | <0.001 | |
Aspirin | R-I | 57.4 | (20.6) | 67.8 | (14.1) | 10.3 | (−1.0, 21.6) | 0.08 |
R-HS | 69.6 | (9.1) | 72.5 | (10.7) | 2.9 | (−1.7, 7.4) | 0.22 | |
U-I | 63.7 | (17.9) | 69.6 | (13.9) | 6.0 | (1.2, 10.9) | 0.015 | |
U-HS | 76.9 | (13.9) | 76.3 | (8.5) | −1.4 | (−6.9, 4.1) | 0.62 | |
Smoking | R-I | 72.3 | (24.6) | 86.7 | (11.9) | 16.4 | (6.9, 26.0) | <0.001 |
R-HS | 81.8 | (12.7) | 84.9 | (11.1) | 4.3 | (−0.1, 8.8) | 0.054 | |
U-I | 65.9 | (28.1) | 77.4 | (24.1) | 9.3 | (2.1, 16.4) | 0.011 | |
U-HS | 75.0 | (24.4) | 79.7 | (24.0) | 5.1 | (−4.0, 14.2) | 0.27 |
R-I: Rural independent (n=20 clinics)
R-HS: Rural health system (n=34)
U-I: Urban independent (n=55)
U-HS: Urban health system (n=26)
Acknowledgments:
The authors are grateful to the primary care practices who participated in our study to improve the quality of care to their patient populations. The practice facilitators from Qualis/Comagine Health Oregon Rural Practice Research Network (ORPRN) the research teams at the MaColl Center for Health Care Innovation, Qualis/Comagine Health and Oregon Health & Sciences University. The authors gratefully acknowledge the editing and publication assistance from Ms. LeNeva Spires, Portland, Oregon.
Financial Support:
This project is supported by grant numbers R18HS023908 and R18HS023921 from the Agency for Healthcare Research & Quality (AHRQ).
List of Abbreviations:
- BP
Blood Pressure
- CI
Confidence Interval
- CQM
Clinical Quality Measure
- EHR
Electronic Health Record
- PF
Practice Facilitator
- H2N
Healthy Hearts Northwest Study
- HLC
High Leverage Change
- QI
Quality Improvement
- QICA
Quality Improvement Capacity Assessment
- SD
Standard Deviation
Footnotes
Conflict of Interest Statement: None declared.
NOTE TO NIH: Please add that the published version of this manuscript is available for free access at: www.jabfm.org/content/34/4/753
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