Abstract
Background:
No primary practice care model has been shown to be superior in achieving high-quality primary care. We aimed to identify the organizational characteristics of primary care practices that provide high-quality primary care.
Methods:
We performed a cross-sectional observational study involving a stratified random sample of 37 primary care practices from 3 regions of Quebec. We recruited 1457 patients who had 1 of 2 chronic care conditions or 1 of 6 episodic care conditions. The main outcome was the overall technical quality score. We measured organizational characteristics by use of a validated questionnaire and the Team Climate Inventory. Statistical analyses were based on multilevel regression modelling.
Results:
The following characteristics were strongly associated with overall technical quality of care score: physician remuneration method (27.0; 95% confidence interval [CI] 19.0–35.0), extent of sharing of administrative resources (7.6; 95% CI 0.8–14.4), presence of allied health professionals (15.3; 95% CI 5.4–25.2) and/or specialist physicians (19.6; 95% CI 8.3–30.9), the presence of mechanisms for maintaining or evaluating competence (7.7; 95% CI 3.0–12.4) and average organizational access to the practice (4.9; 95% CI 2.6–7.2). The number of physicians (1.2; 95% CI 0.6–1.8) and the average Team Climate Inventory score (1.3; 95% CI 0.1–2.5) were modestly associated with high-quality care.
Interpretation:
We identified a common set of organizational characteristics associated with high-quality primary care. Many of these characteristics are amenable to change through practice-level organizational changes.
A health care system is only as strong as its primary care sector,1 which provides “entry into the system for all new needs and problems, provides person-focused (not disease-oriented) care over time, provides care for all but very uncommon or unusual conditions …”2 Patient enrolment, team-based care, information technology, and funding and remuneration schemes that foster comprehensiveness and collaboration are key characteristics of effective primary care systems.3 None can be singled out as the most determining, but how they are clustered defines a limited set of organizational models that have been associated with a variety of outcomes.4 Canadian provinces have implemented different primary care models with different scopes of changes.5 Research has not yet identified a “winning” model. For example, in Ontario, community health centres deliver better chronic illness care6 but have less accessibility than fee-for-service enrolment models,7 and no model provided more comprehensive preventive care.8 Walk-in clinics achieved better quality scores than did family medicine clinics for treatment of a set of acute problems.9 How the work is organized may be as important, if not more important, than what the model is called.
These observations suggest that the challenges associated with providing high-quality services differ depending on the nature of care considered.9–11 Even if chronic illness is a major challenge, the quality of care must not be improved at the expense of accessibility, preventive or good episodic care, which are all essential components of primary care.
In this study, we report the results of the quantitative component of a multimethod observational study conducted in Quebec to determine which organizational characteristics of primary care practices are associated with high-quality care. We sought to find a quality measure of care that would encompass the comprehensive nature of primary care (episodic, chronic and preventive care), and we explored how the contribution of organizational characteristics varied based on the type of care provided.
Methods
The 3 primary care organizational models in Quebec are centres locaux de services communautaires (CLSCs) or community health centres, traditional fee-for-service practices, and family medicine groups. Community health centres provide primary care services to a geographically defined population, and the physicians are salaried. Family medicine groups are composed of 8 or more full-time equivalent family physicians (not necessarily all practising at 1 location). Family medicine groups receive funding for 2 registered nurses, an administrative assistant and a secretary, above any existing staff. Patients are enrolled, and physicians may be remunerated by fee-for-service or be salaried.5,12
Selection of practices and patients
This study involved 1 metropolitan region (region 1) and 2 regions with urban, suburban and rural communities (regions 2 and 3). We included practices with at least 3 general practitioners and that had been functioning under the current organizational model for at least 2 years. We excluded university-affiliated teaching practices because they have a distinct funding and staffing model. We used a stratified random sample to ensure representation from each of the 3 models. We aimed for a 50% response rate.
We included patients who met the following criteria: able to speak English or French; were aged 18 years or older; could self-declare as having 1 or more of the target conditions; and had been known to the practice for at least 2 years (some of the included indicators required a 2-year observation period). Patients were recruited in waiting rooms by trained research technicians. Data were collected between April 2008 and September 2010.
Definition of variables and data collection procedures
Explanatory variables: organizational characteristics
The physician in charge of each included practice completed a questionnaire on organizational characteristics related to vision, organizational structure, resources and organizational practices; the Organizational Questionnaire has been validated in French and English (available at www.biomedcentral.com/1471-2296/11/95, additional file #3).13
In addition to these organizational characteristics, we wanted to have a measure of the effectiveness of team process. Team process was measured by use of the Team Climate Inventory,14 which was completed by all professionals and staff (n = 471) in each practice. We chose this instrument because it is associated with quality of care15–17 and has been validated in many languages.18–22 We used the short version provided by the authors of the Team Climate Inventory (Professor Michael West, Lancaster University Management School, UK: personal communication, 2009).14 The Team Climate Inventory comprises 4 scales: participation safety (6 items; Cronbach α 0.84) and support for innovation (5 items; Cronbach α 0.81) are scored on a 5-point Likert scale, and vision (4 items; Cronbach α 0.86) and task orientation (4 items, Cronbach α 0.84) are each scored on a 7-point scale.
Patient-related variables
We collected patient data via use of a questionnaire. The included sociodemographic variables were age, sex and economic status. We used the 12-Item Short Form Survey (SF-12) as a measure of functional capacity.23 We computed Ambulatory Care Groups24 for each patient from the Régie de l’assurance maladie du Québec (RAMQ) databases to measure morbidity as a control variable.
We measured patients’ experiences of care using 3 scales of the Primary Care Assessment Survey25 and 1 scale of the Primary Care Assessment Tool26 (first contact access, validated in French and English; measures of access during opening hours, evenings and weekends [4 items, Cronbach α 0.68]).27 The Primary Care Assessment Survey’s organizational access measures accommodation (6 items, Cronbach α 0.83),27 contextual knowledge of patient (5 items, Cronbach α 0.90)28 and interpersonal communication (6 items, Cronbach α 0.95).29
Primary and secondary outcome variables
We assessed quality of care for specified conditions: diabetes and coronary artery disease (chronic illness care); upper respiratory tract infection, acute bronchitis, pharyngitis, gastroenteritis, cystitis and acute lower back pain (episodic care); and the interventions recommended for adults by the Canadian Task Force on Preventive Health Services (preventive care; Appendix 1, available at www.cmaj.ca/lookup/suppl/doi:10.1503/cmaj.121802/-/DC1). We selected these conditions based on prevalence and availability of validated evidence-based indicators already used in the United Kingdom30,31 and Canada.6,10,11,32,33 For episodic care, the criteria included the performance of appropriate actions and the avoidance of inappropriate ones (e.g., antibiotic prescription or diagnostic imaging). We updated the indicators based on recent guidelines; 2 panels of 6 family physicians confirmed their acceptability and relevance for the Quebec context. The indicators are described in Appendix 1.
The primary outcome measure (overall technical quality score) was computed as the average of individual disease-specific composite scores for each patient. We calculated these scores as the sum of all eligible items performed, divided by the number of eligible items for each tracer condition, multiplied by 100. To characterize chronic illness and episodic care (secondary outcome measures), we computed a technical quality score for chronic care and prevention; these were grouped together because chronic illness care must be comprehensive and include preventive care. We also calculated a technical quality score for episodic care.
We also considered as secondary outcomes the attainment of treatment targets related to the chronic conditions (blood pressure ≤ 140/90 mm Hg or 130/80 mm Hg for patients with diabetes, low-density lipoprotein cholesterol ≤ 2.1 mmol/L, and glycosylated hemoglobin [HbA1c] ≤ 0.07). Trained chart abstractors extracted data from patients’ charts. Interobserver reliability was verified throughout the project for over 10% of charts. The intraclass correlation coefficients were 0.77 for the overall technical quality score, 0.67 for the chronic and preventive care technical quality score, and 0.83 for the episodic care technical quality score.
Sample size calculation
This study was designed to draw inferences about the practices’ organizational characteristics, not their organizational models. We used data available on the means and standard deviations of the aggregated episodic care,9 chronic care6,30 and preventive care33 indicators to estimate the number of practices needed. The estimated sample size was 40 practices to ensure 90% power to detect a 10-point difference (out of 100) for the primary outcome measure and 80% power to detect differences of that magnitude for the secondary outcome measures. Improvements of the magnitude of 5% for some of our indicators (e.g., percentage of patients with controlled high blood pressure, use of acetylsalicylic acid or β-blockers among patients with coronary diseases) are cost-effective.34
Based on previous work establishing the number of cases needed to obtain a valid estimate of quality at the practice level (at least 7 cases for diabetes and coronary diseases30 and 15 cases for the episodic care score9), we aimed to recruit 30 patients with chronic conditions and 20 with episodic problems from each included practice.
Statistical analysis
We used multilevel regression modelling35 to account for the nested nature of the observations (i.e., patients nested in primary care practices). We used multilevel linear regression models to study the effect of organizational characteristics (level 2 variables) on the technical quality scores (level 1 variable) while controlling for patient characteristics (level 1 variables), and we used multilevel logistic regression models to study the attainment of treatment targets (defined as dichotomous variables). For each regression, we first estimated the organizational-level contribution to the total variance (model 1, empty model); we then entered the organizational variables (model 2), followed by the patient-level variables, using backward stepwise selection. We used SPSS version 17.0.1 (SPSS Inc.) and SAS version 9.2 (SAS Institute Inc.) software.
Ethics approval
This study was approved by the Research Ethics Committee of the Université de Montréal Hospital Research Centre and by the Commission d’accès à l’information of the province of Quebec.
Results
Of 107 randomly selected practices, 39 accepted the invitation to participate and 2 did not complete the study, giving a final sample of 37 practices. The response rate (36%) varied among models and regions (Table 1) and was lowest among small fee-for-service and walk-in clinics. The response rates for community health centres and family medicine groups and in region 3 were within our target range (50%).
Table 1:
Characteristic | Included practices, n/N (%) |
---|---|
Total sample | 39*/107 (36) |
Region | |
Region 1† | 14/45 (31) |
Region 2‡ | 15/44 (34) |
Region 3‡ | 10/18 (56) |
Type of practice | |
Community health centres | 10/18 (56) |
Traditional fee-for-service | 13/64 (20) |
Family medicine groups | 16/25 (64) |
Remuneration type | |
Mostly fee-for-service | 27/87 (31) |
Mostly hourly or salary | 12/20 (60) |
Practice size | |
Small (3 physicians) | 1/13 (8) |
Medium (4–9 physicians) | 27/65 (42) |
Very large (≥ 10 physicians) | 11/29 (40) |
Favoured consultation type§ | |
Mostly with appointment | 17/47 (36) |
Mostly walk-in | 1/13 (8) |
Mixed | 11/29 (38) |
Two practices withdrew during data collection. The final sample included 37 practices.
Metropolitan region.
Urban/suburban/rural region.
This information was not available for Region 3 (total 89 practices [region 1 plus region 2]).
Of 3206 patients who reported being eligible, 2252 (70.2%) agreed to participate. Upon chart review, we deemed 744 to be ineligible, and 51 patients could not be matched to the RAMQ database because there was an error in the RAMQ number recorded. The final sample comprised 1457 patients. Patient characteristics (n = 1457) for the eligible and included practices are shown in Table 2. Perceived economic status and exposure to interdisciplinary care are the patients’ characteristics that showed the most variability between clinics.
Table 2:
Characteristic | Mean or mean proportion (SD) |
---|---|
Age of patients per practice, yr, mean | 59.1 (6.5) |
Female, % | 56.5 (10.9) |
Perceived economic status, % | |
Comfortable | 22.2 (10.1) |
Sufficient income | 56.6 (9.3) |
Poor or very poor | 21.2 (10.0) |
No. of patients with at least 1 of the target chronic illnesses per practice, mean | 25 (11) |
No. of patients with at least 1 of the target episodic illnesses per practice, mean | 16 (7) |
Burden of comorbidity by ambulatory care group classification (out of 5) | 3.14 (0.35) |
12-Item Short Form Survey, physical | 41.0 (3.3) |
12-Item Short Form Survey, mental | 48.7 (3.8) |
Interdisciplinary follow-up at the practice (chronic-care patients only), % | 36.6 (27.9) |
Follow-up by a specialist physician, % | 42.5 (11.3) |
No. of years at the practice, no. | 12.5 (5.2) |
Visits at the practice with the regular physician, % | 81.8 (16.7) |
Note: SD = standard deviation.
Technical quality of care scores among the participating practices were skewed, ranging from 66.7 (standard deviation [SD] 7.3) to 70.1 (SD 10.5). On average, half of the patients (51.1%) reached their target for LDL cholesterol, compared with 57.0% for HbA1c and 61.8% for blood pressure.
Table 3 summarizes the results of the multilevel linear regression analyses for the 3 technical quality scores. The proportion of the variance attributable to the organizational level (model 1, empty model) varied according to the technical quality scores and was greater for the chronic and prevention technical score than for the 2 others. Physician remuneration method, extent of sharing of administrative resources (rent, staff, patients’ charts, income), presence of allied health professionals and/or specialist physicians, presence of competence-maintenance mechanisms (continuous professional development activities and chart audits) and average organizational access to the practice were strongly associated with the overall technical quality score (model 2, organizational characteristics). The number of physicians and the average Team Climate Inventory score were modestly associated with the technical quality score. Moderate level of group practice (sharing of administrative resources) was negatively associated with overall technical quality. Physician remuneration method was not associated with technical quality score for chronic and preventive care, whereas the duration of visits and the number of diagnostic and therapeutic procedures available on-site were. Physician remuneration method was closely associated with visit duration in our bivariate analysis (Spearman ρ = 0.67, p < 0.001; data not shown).
Table 3:
Model; variable* | Technical quality score, estimate (95% CI) | ||
---|---|---|---|
Episodic illness | Chronic illness plus prevention | Overall | |
Model 1 (empty model) | |||
Fixed effects | |||
Intercept | 70.0 (66.4 to 73.5) | 67.2 (64.8 to 69.5) | 68.5 (66.0 to 70.9) |
Random effects | |||
Organizational-level variance component | 84.8 (76.0 to 93.6) | 45.7 (41.6 to 49.8) | 50.5 (46.1 to 54.9) |
Patient-level variance component | 488.2 (478.7 to 497.7) | 144.7 (142.4 to 147.0) | 279.7 (276.3 to 283.1) |
Proportion of the variance attributable to the organizational level | 14.8% (13.7% to 15.8%) | 24.0% (22.6% to 25.3%) | 15.3% (14.3% to 16.2%) |
Model 2 (organizational characteristics) | |||
Fixed effects | |||
Intercept | 42.5 (31.8 to 53.2) | 50.9 (39.1 to 62.7) | 26.5 (13.8 to 39.2) |
Physician remuneration method (mostly hourly or salaried v. mostly fee-for-service) | 20.4 (13.4 to 27.4) | 27.0 (19.0 to 35.0) | |
No. of physicians (centred around the mean of the 37 practices = 7) | 0.8 (0 to 1.6) | 1.2 (0.6 to 1.8) | |
Presence of other professionals on-site (v. none) | |||
Physician specialists (with or without other health care professionals) | 9.4 (−0.9 to 19.7) | 19.6 (8.3 to 30.9) | |
Other health care professionals | 10.8 (1.1 to 20.5) | 15.3 (5.4 to 25.2) | |
Duration of follow-up/emergency visits by appointment (v. short duration [≤ 10 min]) | |||
Long (≥ 30 min) | 18.6 (8.1 to 29.1) | ||
Average (15–20 min) | |||
Diagnostic/therapeutic procedures available on-site (many v. few) | 8.0 (1.6 to 14.4) | ||
Group practice (sharing of administrative resources) (v. low) | |||
High | 8.6 (0.4 to 16.8) | 7.6 (0.8 to 14.4) | |
Moderate | −8.6 (−16.6 to −0.6) | ||
Mechanisms for continuous professional development and/or chart audits on site (v. no) | 7.7 (3.0 to 12.4) | ||
Participation in a local accessibility network | 10.2 (4.0 to 16.4) | ||
Team Climate Inventory score (centred around the mean of the 37 practices = 18) | 1.3 (0.1 to 2.5) | ||
Average organizational access (centred around the mean of the 37 practices = 5.2) | 5.7 (2.8 to 8.6) | 4.9 (2.6 to 7.2) | |
Random effects | |||
Organizational-level variance component | 8.9 (5.7 to 12.1) | 17.8 (15.4 to 20.2) | 11.3 (9.5 to 13.1) |
Patient-level variance component | 477.3 (468.0 to 486.6) | 140.8 (138.6 to 143.0) | 260.1 (256.7 to 263.5) |
Proportion of the empty-model (model 1) organizational-level variance attributable to the organizational variables entered (model 2) | 89.5% (87.1% to 92.5%) | 61.0% (59.4% to 63.0%) | 77.7% (76.1% to 79.4%) |
Note: CI = confidence interval.
Each regression model gives the estimate for only the significant variables.
In our logistic regression analyses, no organizational characteristics or patient-level variables were consistently associated with the treatment targets.
Interpretation
Our findings suggest high-quality care can be achieved by practices with different organizational models. We identified organizational factors that, beyond models, can improve care. As we had hypothesized, organizational contribution to technical quality differed according to the nature of care considered. Although the contribution of organizational factors to episodic care appears modest, their contribution to chronic illness care (24%, 95% CI 22.6–25.3) is important. Few authors have reported on the magnitude of organizational contribution to quality of care.7,36–38
Our observations about practice size agree with previous reports.6,11,16 The observed associations with visit duration and physician remuneration should, however, be viewed with caution. Research suggests that salary-based remuneration is less efficient than blended remuneration6,39 or fee-for-service schemes.40 The ratio of nurses to family physicians is smaller in Quebec models than in most primary care models in Canada,6 and none of our practices used electronic medical records. A recent study suggests that, when these 2 features are present, the influence of visit duration and remuneration on quality of care scores disappears.9 Our results suggest that longer visits may have been needed for high-quality care for chronic illnesses to compensate for the absence of electronic medical records and strong interdisciplinary support.
The relation observed between Team Climate Inventory, high intensity of group practice and the existence of mechanisms for maintaining professional skills shed more light than previous research on the mechanisms by which high-performing primary care practices develop and maintain strong connectedness, good communication, concern for quality and sustained competence and leadership.41–43 Our observation that moderate intensity of group practice (v. low-intensity group practice, where physicians behave more like solo practitioners under the same roof) is negatively associated with quality of care is interesting in light of some research suggesting that solo practitioners offer good quality of care.11 Research suggests that accessibility is associated with lower rates of emergency visits and admission to hospital,3 and we found a positive association between organizational accessibility, measured as the capacity to access the clinic for advice or an appointment, and technical quality of care. Organizational accessibility should be viewed as an inherent dimension of quality of care, much like the provision of evidence-based care.
Finally, our results suggest that the contribution of organizational characteristics to blood pressure, HbA1c and LDL cholesterol control is more complex than anticipated. Others have also reported a weak relation between technical quality scores and treatment targets as defined in clinical practice guidelines.44 Attaining these targets may depend on many factors, such as patients’ capacity for self-care.
Strengths and limitations
We are confident in the internal validity of our results. We used reliable and validated measurements. The distributions of several of our indicators — control of blood pressure45 and HbA1c,46 organizational accessibility and continuity of care11 — are comparable to what has been reported in other studies. Using a composite score encompassing care for episodic and chronic illnesses as well as prevention as the primary outcome measure was an important design consideration.47 This decision was not based on a desire to increase the power of the study; it was based on our definition of high-quality primary care and on our primary objective.
The response rate fell short of our target of 50% but was similar to rates in comparable studies.48,49 We reached our targeted response rate for community health centres and family medicine groups. Clearly, our results do not apply to small traditional fee-for-service practices and walk-in clinics; however, those types of practices are not considered models of the future.4,5 This self-selection bias would be problematic if our objective had been to draw inferences from our observations to existing organizational models; however, we focused on identifying organizational characteristics associated with quality of care. We believe that this selection bias is more likely to result in an underestimation of the contribution of organizational characteristics to quality of care by resulting in less variability between practices.
Conclusion
We identified a common set of organizational characteristics associated with high-quality primary care (e.g., effectiveness of team process, presence of competence-maintenance mechanisms, organizational access). Most of these characteristics are amenable to change, through either health policy or practice-level organizational changes. Beyond investing in new delivery models, decision-makers should invest in helping primary care practices reach a high level of functioning by fostering group practice and effective team-based care.
Supplementary Material
Acknowledgements
The authors thank Johanne Goudreau for her involvement in the project’s planning and protocol development; Professor Michal Abrahamowicz for his advice on calculating sample size and on the overall analytical strategy; Professor Michael A. West, who gave permission to use the Team Climate Inventory in this study; and Donna Riley for helping with the translation and preparation of the article.
Footnotes
Competing interests: Marie-Dominique Beaulieu is President of the College of Family Physicians of Canada (CFPC). She did not hold this position when the study was conducted and the article written. The CFPC had no involvement in the conduct of this research. The opinions expressed are those of the authors and do not represent those of the CFPC. Jean-Louis Denis has served as a consultant for the Canadian Foundation for Healthcare Improvement. No competing interests declared by any other author.
This article has been peer reviewed.
Contributors: Marie-Dominique Beaulieu, Jeannie Haggerty, Pierre Tousignant, Janet Barnsley, William Hogg, Robert Geneau, Éveline Hudon, Réjean Duplain, Jean-Louis Denis, Lucie Bonin and Claudio Del Grande contributed to the study conception and design and to the analysis and interpretation of the data. Natalyia Dragieva was the statistician in charge and contributed to the data analysis and interpretation of the data. Claudio Del Grande was the project’s research coordinator; he contributed to data acquisition and to the drafting of the manuscript. All of the authors revised the article for important intellectual content and approved the final version submitted for publication.
Funding: This study was funded by the Canadian Institutes of Health Research (CIHR; grant no. MOP-844). CIHR reviewed and approved the research protocol and had no involvement in the conduct of the study or in the writing of the manuscript.
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