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Erschienen in: BMC Health Services Research 1/2017

Open Access 01.12.2017 | Research article

A network perspective on patient experiences and health status: the Medical Expenditure Panel Survey 2004 to 2011

verfasst von: Yi-Sheng Chao, Hau-tieng Wu, Marco Scutari, Tai-Shen Chen, Chao-Jung Wu, Madeleine Durand, Antoine Boivin

Erschienen in: BMC Health Services Research | Ausgabe 1/2017

Abstract

Background

There is a growing emphasis on the need to engage patients in order to improve the quality of health care and improve health outcomes. However, we are still lacking a comprehensive understanding on how different measures of patient experiences interact with one another or relate to health status. This study takes a network perspective to 1) study the associations between patient characteristics and patient experience in health care and 2) identify factors that could be prioritized to improve health status.

Methods

This study uses data from the two-year panels from the Medical Expenditure Panel Survey (MEPS) initiated between 2004 and 2011 in the United States. The 88 variables regarding patient health and experience with health care were identified through the MEPS documentation. Sex, age, race/ethnicity, and years of education were also included for analysis. The bnlearn package within R (v3.20) was used to 1) identify the structure of the network of variables, 2) assess the model fit of candidate algorithms, 3) cross-validate the network, and 4) fit conditional probabilities with the given structure.

Results

There were 51,023 MEPS interviewees aged 18 to 85 years (mean = 44, 95% CI = 43.9 to 44.2), with years of education ranging from 1 to 19 (mean = 7.4, 95% CI = 7.40 to 7.46). Among all, 55% and 74% were female and white, respectively. There were nine networks identified and 17 variables not linked to others, including death in the second years, sex, entry years to the MEPS, and relations of proxies. The health status in the second years was directly linked to that in the first years. The health care ratings were associated with how often professionals listened to them and whether professionals’ explanation was understandable.

Conclusions

It is feasible to construct Bayesian networks with information on patient characteristics and experiences in health care. Network models help to identify significant predictors of health care quality ratings. With temporal relationships established, the structure of the variables can be meaningful for health policy researchers, who search for one or a few key priorities to initiate interventions or health care quality improvement programs.
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Hinweise

Electronic supplementary material

The online version of this article (doi:10.​1186/​s12913-017-2496-5) contains supplementary material, which is available to authorized users.
Abkürzungen
CAHPS
Consumer Assessment of Healthcare Providers and Systems
K6
Kessler index
MCS
Mental Component Summary
MEPS
Medical Expenditure Panel Survey
PCS
Physical Component Summary
PHQ-2
Patient health questionnaire
SAQ
Self-administered questionnaire
SF12v2
Short-form 12 version 2

Background

Engaging patients is an important element of healthcare, as it improves patient experience and thus leads to improved health outcomes [1]. For example, experiences in the timeliness and perceived quality of health care and communication with physicians are measured with the Consumer Assessment of Health Plans Study (CAHPS) questionnaire [2]. The perceived quality of primary care has been linked to outcomes, such as emergency room visits [3] and other health care use [4]. The recent focus on patient experience and patient-oriented practice, especially engagement, aims to improve health care quality and patient health [5, 6]. However, there are several problems in studying the relationship between patient experience and health outcomes. One of the issue is that patient experiences may be simplified into a single dimension [7]. This may oversimplify the complexity of patient experiences in health care and overlook the opportunities that we can take advantage of to improve healthcare quality and patient health [7]. On the contrary, there is no common measure or universally agreed - upon definition of patient engagement [8] or patient satisfaction, each an important aspect of patient experience [7]. In fact, there are various experience measures and definitions proposed to identify important components or priorities that we can adapt to improve patient centeredness or engage patient effectively [8]. Only a few of them show promising results in validity or reliability, including the CAHPS [9]. Furthermore, the input of all types of health professionals may not be properly measured in questionnaires. For example, the communication with providers other than doctors may not be considered while assessing patient experience [7]. This can underestimate the input and effectiveness of patient-provider communication to improve patient health [7].
Occasionally, the objective of improving patient experience and subsequently health outcomes may be in conflict [7]. One reason is that the priorities identified via various methods may not be compatible with each other [10]. There isn’t enough evidence to help us understand whether there are pathways or networks to link individual characteristics or experiences to better outcomes in health care. Whether multiplicative benefits through changes in upstream policies or interventions can be achieved remains unclear [11, 12]. This problem is aggravated by the fact that there are few studies with sufficient samples to systematically identify the key factors for patient experience improvement [8].
To address these problems, we adopt a network approach to examine all possible inter-dependence of these measures of patient experience and health outcomes in a large population, while also taking into account individual characteristics. This can help us to identify potential intervention priorities as well as avoid incurring undesirable or adverse interactions between them. This study aims to 1) construct a Bayesian network model with individual characteristics and commonly used measures of patient experience, especially quality of care in the CAHPS, and 2) illustrate the relationships between patient experience and health outcomes through graphics and probability distributions.

Methods

This study uses data from the Medical Expenditure Panel Survey (MEPS) that was implemented with a focus on both self-perceived health status and patient experience with health care [13]. The MEPS staff interviewed non-institutionalized civilians in the United States since 1996 [14]. The MEPS provided a nationally representative sample with an oversample of blacks and Hispanics [14]. The interviewees were followed up for 2 years during each MEPS panels [14].
The questions about patient-perceived health and experience in health care were asked once per year or twice in the two-year panels [14]. The questionnaires were modified and new variables were added over time. To ensure the consistency of the variables in the MEPS panels, only data from two-year panels initiated between 2004 and 2011 were used. Because of the lack of adequate tools to adjust for complex survey design under graphic models, all statistics in this study were unweighted and not nationally representative. The flowchart of data processing and analysis is in Fig. 1.

Inclusion and exclusion criteria

This study included those age 18 years and over. Only those who made an appointment with a doctor or clinic for health care were included. Those with missing data in the following section were not included: the self-administered questionnaire (SAQ) that contained questions on patient experience of care (Consumer Assessment of Healthcare Providers and Systems, CAHPS) and three types of self-reported physical or mental health status: 1) Short-Form 12 Version 2, SF-12v2 along with the Physical Component Summary (PCS) and the Mental Component Summary (MCS) of the SF-12v2, 2) the Kessler Index (K6) of non-specific psychological distress; and 3) the Patient Health Questionnaire, PHQ-2 [15]. Missing data were defined as the following answer categories: no data in round, refused, don’t know, or not ascertained. If subjects were not eligible for specific questions, their replies were coded as not applicable (see Additional file 1: Appendix 1 for proportions of ineligibility). For example, interviewees were asked whether they had experienced an illness or injury that had required immediate care. This question might not apply to all surveyed individuals.

Variable inclusion

The list of variables regarding patient experience, especially health care ratings, and patient-reported outcomes were selected and categorized according to the MEPS documentation (see Additional file 1: Appendix 1 for details) [15]. The patient-reported rating of health care ranging from zero to 10 was provided by those who had visited health care professionals (variable name: adhecr2 and adhecr4 for the first and second years respectively). Individual health status, measured by SF-12v2 (adgenh2 and adgenh4 for the first and second years respectively), were reported in five categories: poor, fair, good, very good, and excellent. The labels for variables imported from the MEPS documentation were also listed in Table 1. Moreover, sex, age, race/ethnicity, regions (Northeast, Midwest, South and West regions of the United States) and years of education were also included in the network analysis.
Table 1
The definitions variables from the Medical Expenditure Panel Survey (MEPS) between 2004 and 2011
Variables
 
Labels
Categories
died
 
Died during MEPS panels
meps
 
Entry year to the MEPS
racex
 
Race
 
agey1x
 
Age as of 12/31
regiony1
 
Census region as of 12/31
ttlpy1x
 
Person’s total income
educyr
 
Years of education when first entered MEPS
sex
 
Sex
 
First-year variables
Second-year variables
 
adappt2
adappt4
Last 12 months: numbers of visits to medical office for care
CAHPS
adcape2
adcape4
Last 4 weeks: felt calm/peaceful
SF-12v2
adclim2
adclim4
Health limits climbing stairs
SF-12v2
addaya2
addaya4
Health limits in moderate activities
SF-12v2
addown2
addown4
Last 4 weeks: felt downhearted or depressed
SF-12v2
addprs2
addprs4
Last 2 weeks: felt down/depressed/hopeless
Patient Health Questionnaire
addrbp2
addrbp4
Last 2 years: whether physician checked blood pressure
General Health
adefrt2
adefrt4
Last 30 days: how often everything was an effort
Non-specific Psychological Distress
adexpl2
adexpl4
Last 12 months: doctor explained in a way that was understandable
CAHPS
adgenh2
adgenh4
Health in general
SF-12v2
adhecr2
adhecr4
Last 12 months: rating of health care
CAHPS
adhope2
adhope4
Last 30 days: how often felt hopeless
Non-specific Psychological Distress
adilcr2
adilcr4
Last 12 months: illness/injury needing immediate care
CAHPS
adilww2
adilww4
Last 12 months: got care when needed in case of illness/injury
CAHPS
adinsa2
adinsa4
Do not need health insurance
Attitudes about Health
adinsb2
adinsb4
Health insurance not worth cost
Attitudes about Health
adintr2
adintr4
Last 2 weeks: little interest in things
Patient Health Questionnaire
adlist2
adlist4
Last 12 months: doctor listened to you
CAHPS
admals2
admals4
Last 4 weeks: as result of mental problems, accomplished less than you would like
SF-12v2
admwlm2
admwlm4
Last 4 weeks: as result of mental problems, did work or other activities less carefully than usual
SF-12v2
adndcr2
adndcr4
Last 12 months: need any care, test, treatment
CAHPS
adnerv2
adnerv4
Last 30 days: how often felt nervous
Non-specific Psychological Distress
adnrgy2
adnrgy4
Last 4 weeks: had a lot of energy
SF-12v2
adnsmk2
adnsmk4
Last 12 months: doctor advised to quit smoking
General Health
adover2
adover4
Can overcome illness without medical help
Attitudes about Health
adpain2
adpain4
Last 4 weeks: pain limits normal work
SF-12v2
adpals2
adpals4
Last 4 weeks: as result of physical health, accomplished less than would like
SF-12v2
adprtm2
adprtm4
Last 12 months: doctor spent enough time with you
CAHPS
adprx2
adprx4
Relationship of proxy to adult
adpwlm2
adpwlm4
Last 4 weeks: as result of physical health, limited in kind of work or other activities
SF-12v2
adresp2
adresp4
Last 12 months: doctor showed respect
CAHPS
adrest2
adrest4
Last 30 days: how often felt restless
Non-specific Psychological Distress
adrisk2
adrisk4
More likely to take risks
Attitudes about Health
adrtcr2
adrtcr4
Last 12 months: made appointment for routine medical care
CAHPS
adrtww2
adrtww4
Last 12 months: got medical appointment when wanted
CAHPS
adsad2
adsad4
Last 30 days: how often felt sad
Non-specific Psychological Distress
adsmok2
adsmok4
Currently smoke
General Health
adsoca2
adsoca4
Last 4 weeks: health stopped social activity
SF-12v2
adspec2
adspec4
Last 12 months: needed to see specialist
General Health
adwrth2
adwrth4
Last 30 days: how often felt worthless
Non-specific Psychological Distress
k6sum2
k6sum4
Last 30 days: overall rating of feelings
Kessler Index
mcs2
mcs4
Mental component summary
SF-12v2
pcs2
pcs4
Physical component summary
SF-12v2
phq22
phq24
Last 2 weeks: overall rating of feelings
Patient Health Questionnaire
Note: CAHPS consumer assessment of Healthcare Providers and Systems, SF-12 short-form 12
There were five rounds of data collection in each two-year panel. The SAQ was administered during the second and fourth rounds that were approximately in the middle of the years [15]. Therefore, each outcome or experience measure was numbered with one or two to represent first and second-year information.

Bayesian network

Bayesian networks consist of nodes and arcs that represented variables of interest and the relationships between them [16]. The relationships between variables were described in conditional dependencies and tested with Chi-square tests or other score-based methods [17]. Given its advantage of visual presentation and network structures that were more appropriate to describe interactions between variables, Bayesian networks were used in medical [18], biological [19], and social [20] research to study the conditional dependencies between random variables.

Layers of variables

The directions between variables were regulated in layers [21]. The higher-layer variables were allowed to be directed to variables of other layers. However, variables of other layers were not permitted to be directed to higher-layer variables. The highest layer was one, and included the following variables: years of entry to the MEPS panels, races, ages in years, regions, education, and sex. The second-layer variables were income, health status, and experience in health care in the first years of the panels. The third-layer variables were deaths in the second years, and the health status and experience in health care in the second years of the panels (see Additional file 1: Appendix 1). In other words, some of the directions between variables were blacklisted in the network modeling [17].

Model development process

The network modeling followed a previously published development process to review and revise the process [22]. The initial Bayesian network models were developed after data cleaning and missing data assessment [23]. The following steps were taken to finalize the model. First, data-driven models were built and assessed for adequacy according to expert opinions by all authors. This led to some adjustments in the variables to be specified in different layers. The performance of different algorithms was also compared. Second, the expert panel made decisions about 1) the retaining of essential variables for further model selection, 2) the identification of important links between variables, and 3) the validation of the conditional probability distributions based on prior knowledge on the research of patient experience and engagement. After discussion and model re-specification, the Bayesian network models were rerun to obtain stable network structures based on 10-fold cross-validation.
The temporal relationships between first-year and second-year variables in the MEPS panels were considered in the model development process. In some of the complex time series studies based on network modeling, the relationships among variables of different time points were assumed to be similar. For example, the relationships between insulin adjustment and other related variables were assumed similar across different time points [24]. However, we considered that there was limited evidence to justify imposing similar network structures to the first-year and second-year variables, given this to be one of the first studies using Bayesian network modeling with patient experience data.

Bayesian network implementation

The bnlearn package [25] available within R environment (v3.20 released in April 2015) was used to 1) apply several of the best heuristic algorithms, including Max-Min Hill Climbing that obtained the best scores in network modeling with the MEPS data [21] (see Additional file 2: Appendix 2 for the scores), 2) verify the stabilities and strengths of network arcs through averaging 200 bootstrapped networks, and 3) query the conditional probability distributions in the finalized network, and 4) illustrate the final networks with visualization tools [17]. If the Bayesian network models were found to be inadequate by expert opinions in any step of the development process, these procedures were rerun to obtain finalized network models.

Correlations between variables and cross-group comparisons

In addition to Bayesian network modeling, the associations between variables were also determined by the correlation coefficients in Spearman’s correlation tests. The differences in continuous and categorical variables across countries or parent variables were also tested with Student’s t and Chi-square tests, respectively. The level of significance was at 0.05 level at two tails.

Results

The demographic characteristics of the MEPS participants are listed in Table 2. Between 2004 and 2011, there were 51,023 MEPS participants aged 18 to 85 years (mean = 44.1, 95% CI = 43.9 to 44.2). The years of education ranged from 1 to 18 years (7.4, 95% CI = 7.40 to 7.46). The proportion of female participants was 55% and did not change significantly across MEPS panels. The majority of those sampled were white, at 76%, with the largest sample, 38%, being from the South.
Table 2
The demographic characteristics of the MEPS interviewees
Year
N
Age (years)
(95% CI)
Education (years)
(95% CI)
Female (%)
Race/ethnicity (%)
   
Regions (%)
  
       
White
Black
Asian
American Indians/Alaska natives
Native Hawaiian/Pacific islanders
Multiple races
Northeast
Midwest
South
West
2004
6414
43.80
(43.40 to 44.20)
7.41
(7.32 to 7.50)
54.58%
81.03%
11.83%
0.86%
4.23%
0.44%
1.62%
14.76%
21.02%
39.87%
24.35%
2005
6246
44.51
(44.10 to 44.92)
7.47
(7.39 to 7.56)
54.00%
79.35%
14.35%
0.78%
3.86%
0.26%
1.41%
14.49%
21.81%
36.95%
26.75%
2006
6182
44.49
(44.08 to 44.90)
7.48
(7.40 to 7.57)
53.87%
79.25%
13.52%
0.74%
4.63%
0.37%
1.49%
14.17%
22.45%
37.53%
25.85%
2007
4542
44.11
(43.63 to 44.59)
7.52
(7.42 to 7.61)
52.77%
78.49%
12.53%
0.59%
6.36%
0.37%
1.65%
15.24%
21.07%
37.98%
25.72%
2008
7231
42.91
(42.53 to 43.28)
7.45
(7.37 to 7.53)
53.93%
72.67%
17.78%
1.02%
6.60%
0.25%
1.67%
14.58%
20.20%
38.45%
26.77%
2009
6597
44.59
(44.19 to 45.00)
7.41
(7.33 to 7.49)
52.87%
73.44%
16.77%
0.97%
7.49%
0.24%
1.09%
14.22%
21.56%
38.08%
26.15%
2010
5979
44.23
(43.81 to 44.66)
7.38
(7.30 to 7.46)
53.05%
71.57%
17.41%
0.92%
7.88%
0.74%
1.49%
15.52%
21.34%
37.18%
25.96%
2011
7832
44.12
(43.75 to 44.50)
7.38
(7.31 to 7.45)
53.20%
72.50%
17.71%
0.00%
7.12%
0.00%
2.67%
15.12%
21.02%
37.12%
26.75%
All
51,023
44.07
(43.93 to 44.22)
7.43
(7.40 to 7.46)
53.56%
75.80%
15.44%
0.73%
6.05%
0.32%
1.67%
14.75%
21.28%
37.89%
26.08%
Note: MEPS years = the years of entry to the Medical Expenditure Panel Survey. N = sample size

Network overview

There were nine networks identified and 17 variables were not linked to any others, including death in the second years, sex, entry years to the MEPS, and relations of proxies (see Additional file 1: Appendix 1 for details; see Additional file 3: Appendix 3, Additional file 4: Appendix 4 and Additional file 5: Appendix 5 for all networks). Variables of different categories tended to group in various networks. The largest network contained 42 variables, of which 22 were the health status measured by the SF12v2 and 12 measures of non-specific psychological distress (Figure 2a). The second largest network consisted of ten CAHPS variables (Figure 2b). The third and fourth largest networks each had seven variables: one was related to the interactions between different types of attitudes toward health and the other was related to health care needs and appointment making (Fig. 2c and d respectively). The other networks contained three variables or less (see Additional file 3: Appendix 3, Additional file 4: Appendix 4 and Additional file 5: Appendix 5 for all networks).

Patient experience: rating of healthcare

The healthcare ratings in the first years of the MEPS panels was directly linked to whether health professionals listened to patients (marked by an arrow, p 6 in Additional file 3: Appendix 3). Healthcare was rated higher when professionals listened to the patients more frequently. The same figure indicated that patients found professionals more understandable when the professionals listened to them more frequently.
In contrast, the patient-reported healthcare ratings in the second years was linked to whether the health professionals explained their conditions in a way that they understood (the arc marked by an arrow, Fig. 2b and p 2 in Additional file 3: Appendix 3). The probability distributions of the healthcare ratings were shown in Fig. 3. The more frequently the health providers explained things in a way that was easy to understand, the more likely the patients were to rate health care higher.

Health status

The health status in the first and second years was directly linked to one another in Fig. 2a, the arc marked with a arrow. The probability distributions of general health status in the first and second years were shown in Fig. 4. More than 47% of the individuals maintained the same categories of health status throughout the two-year panels. There were two variables linked to health status in the first years: how often individuals felt everything was an effort and whether health status limited moderate activities. How often individuals felt everything an effort is a question to assess non-specific psychological stress. If patients felt everything an effort more often or more limitation on moderate activities due to health, they were more likely to report a worse health status in the first year. The probability distribution of the health status in the second years was related to health status in the first year and whether their health limited climbing stairs in the second years.

Connection between first-year and second-year variables

There were limited connections between the first-year and second-year variables. In addition to the link between health status in the first and second years, there were ten other arcs linking first-year and second-year variables. First, if individuals had a lot of energy for a majority of the time during the first year, they tended to feel the same in the second year. Second, if patients were able to make medical appointments when desired in the first year, they were more likely to report having blood pressure checked by health professionals in the second year. Third, the degree to which pain limited normal work in the first year was related to the same variable in the second years. Fourth, the more frequently health professionals showed respect to patients in the first year, the more likely patients were to report more respect to them in the second years. Another three variables were related to the association with the number of visits to medical officers for care in the second years. The last three were the linkages between attitudes about health. Patients’ attitudes about whether they needed insurance, whether insurance was worth costs, and whether they could overcome illness without medical help were consistent in the first and second years.

Discussion

This study shows that network modeling is both feasible and useful for further policy or academic research. The measures of patient experience and physical or mental health are interconnected across time. The results not only show the complexity in patients’ interactions with healthcare systems, but also point to possible approaches to navigating the intricacies of these interactions. The first important finding is that measures of patient experiences and health status are interconnected, but only to a certain degree. The largest network consists of 42 variables that are predominantly dimensions of mental and physical health measured by SF12v2, non-specific psychological distress, and Kessler scale, along with three measures of patient experience and two general health questions. In this network, self-rated health status in the first and second years is linked. The temporal associations of health status across different time points is verified by previous studies [26].
Second, 13 patient experience variables measured by the CAHPS are included in two separate networks, while seven others are included in two other networks that include measures of health status and SF12v2 functional status. The association between health care rating and understandable explanation by providers [7] can be found in the first or second years. The networks in this study show that age, education or income may not have extensive connection with patient experience in health care, if conditional dependencies taken into account. This is different from previous studies that use regression models and show the associations between patient experience and individual characteristics especially age and sex [7, 27]. Other researchers find that the degree to which patients engage in their care could be explained predominantly by income, with race/ethnicity playing a lesser role [28]. The differences in the results from various methods are expected and the network perspective shows that the inter-dependencies between patient experience measures may need to be considered in regression models as well.
Third, there seem to be key arcs that link health status and patient engagement across time. The first- and second-year variables of health status, how often providers show respect to what patients have to say, whether pain limits normal work, and attitudes about insurance in the first and second year, are connected. The other measures are not well connected across time.
In addition, this study highlights some of the undervalued associations and opportunities to improve both patient experience and health status. For example, there are extensive interactions between functional status and psychological stress. The importance of mental status has been well demonstrated, [29] and the findings suggest that some measures of the psychological stress may be more important than others. For example, feeling everything is an effort is directly linked to self-reported health status.

Strengths and limitations

This network approach is useful to handle a large number of variables with or without prior knowledge in the interactions or interdependencies between them [30]. The visual presentation is appealing for the audience, who are interested in exploring interactions between variables or measures of patient experience.
Despite the large sample size and standardized questionnaires used in the MEPS, there are several limitations in the newly identified networks. First, the MEPS is designed to produce nationally representative statistics for the civilians in the United States through the adjustment of the survey design [14]. However, it is not feasible to account for the survey design in the Bayesian network models [17] and certain population groups may be overrepresented. This can limit the generalizability of the results. Second, the research tools, Bayesian networks and graphic models, may not be widely known to health policymakers or researchers, who are familiar with regression models that summarize the significance and associations of all predictors towards a single outcome.
Third, one inherent difficulty in health care quality research with observational data is that potential interventions were not randomly assigned and healthcare is rated only by those with any exposure to health care systems [15]. It is unclear how the causes of health care consumption, chronic or acute, will relate or influence the ratings of health care, whether through self-selection, lack of insurance coverage, [31] or other mechanisms. Fourth, the purpose of the MEPS is to understand the health status of populations on a yearly base. The measurement of patient experiences of the last 1 year may be subject to recall bias. The CAHPS questionnaire may be widely used, but remains unspecific to events, such as specialty visits or hospitalization [7]. Fifth, there was no information about whether patients switched health providers that might be important to patients’ experience in health care. Lastly, causal relationships cannot be established with cross-sectional data [17]. This is to be studied and analyzed with trials or interventions in the future.

Research implications

These findings are important for the planning of future research. First, the identified networks are meaningful for health policy researchers, who search for one or a few priorities to design and initiate interventions on patient experience in health care in order to improve health status and health care quality. For example, there are several variables linked to more than three measures of patient experience and could serve as intervention priorities, such as making doctors’ explanations understandable or improving appointment-making procedures for routine care.
Second, the network also contrasts two distinctive approaches to improve patient experience and health status. The first one is to use immediate parent variables in the network as the targets of intervention. The other is the trickle-down approach [32] that may focus more on the upstream factors that may not have immediate influence on patient experience or health. Instead, it may be of interest for policy makers who aim to improve the overall well-being extensively, through one of the beginning variables in the network, such as whether health professionals spend enough time with patients.

Conclusion

Bayesian network modeling is feasible with health experience data. A network perspective highlights the interactions between the measures of patient experience in health care. This can be used to identify potential priorities for interventions that aim to improve health status or experience in health care. Researchers evaluate potential interventions by using this model to identify immediate parent variables or distinct upstream-factors. The effectiveness of these two dissimilar concepts will require further testing.

Acknowledgements

Not applicable.

Funding

YSC is financed by the Fonds de recherche du Québec – Santé (FRQS) fellowship.

Availability of data and materials

All data sets can be freely assessed via the Agency for Healthcare Research and Quality website (https://​meps.​ahrq.​gov/​data_​stats/​download_​data_​files.​jsp).
No applicable. The MEPS data is publicly available and there is no patient consent form available for download.
Not applicable.
This secondary data analysis study was approved by the ethics committee of the Centre hospitalier de l’Université de Montréal (number: 2016–6095).

Competing interests

The authors declare that they have no competing interests.

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Additional files

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Metadaten
Titel
A network perspective on patient experiences and health status: the Medical Expenditure Panel Survey 2004 to 2011
verfasst von
Yi-Sheng Chao
Hau-tieng Wu
Marco Scutari
Tai-Shen Chen
Chao-Jung Wu
Madeleine Durand
Antoine Boivin
Publikationsdatum
01.12.2017
Verlag
BioMed Central
Erschienen in
BMC Health Services Research / Ausgabe 1/2017
Elektronische ISSN: 1472-6963
DOI
https://doi.org/10.1186/s12913-017-2496-5

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