Abstract
Keywords
Introduction
Qualitative Comparative Analysis (QCA) was originally developed by Ragin (1987) in his book, “The Comparative Method”, as a comparative case-oriented research method, based on combining Boolean algebra and fuzzy-set theory. The aim of QCA is to help a researcher understand the configuration or pathway through which a condition can impact an outcome, by testing for necessary and sufficient conditions (Sager and Thomann, 2017). To do this, QCA believes in causal complexity, which includes three main assumptions, conjunctural causation, equifinality, and causal asymmetry (Ragin 1987, 2000, 2008, 2014; Rihoux and Ragin, 2009; Schneider and Wagemann 2012; Ragin and Fiss, 2017; Ragin and Fiss, 2019; Sager and Thomann, 2017; Schneider and Maerz 2017; Dusa 2021; Oana, Schneider, and Thomann 2021; Mello 2021.
Though initially applied to analyze cross-sectional data, in the last few years, researchers have started to apply QCA while analyzing panel data, as well. One of the most common approaches is Garcia-Castro and Arino’s (2016) panel data QCA model. In their article, “A General Approach to Panel Data Set-Theoretic Research”, Garcia-Castro and Arino (2016), describes the theoretical and mathematical assumptions behind panel data QCA.
Despite this, there are no clear guidelines regarding how to apply Garcia-Castro and Arino’s (2016) panel data QCA model, including the testing for necessary and sufficient conditions, and interpreting the data analysis results, in a panel data QCA model. In this methodological note, I address this gap, by discussing the steps that a researcher is expected to follow, while building and analyzing a panel data QCA model. I have applied the R packages SetMethods package (Oana et al., 2021) and QCA package (Dusa, 2019) to demonstrate these steps. In the following sections, I will first briefly review the assumptions of panel data Qualitative Comparative Analysis. Second, I will discuss the different steps of a panel data QCA research process. In section III, I will apply my research data to demonstrate the testing of necessary and sufficient conditions, and how to interpret the data analysis results. In section IV, I will discuss the importance of panel data QCA as a method of data analysis. And, in section V, I will conclude my methodological report, by briefly summarizing the main steps of Garcia-Castro and Arino's (2016) panel data QCA model. Through this, I hope to guide current and future research scholars in their own work on panel data QCA.
Assumptions of QCA, including panel data QCA
There are six main assumptions of QCA. First, in QCA, independent variables are known as conditions and dependent variables are known as outcomes (Ragin, 1987: XXIII). Second, QCA emphasizes the effect of the combination of conditions, through multiplication (logical AND), instead of focusing on the average effect of each condition on an outcome (Schneider and Wagemann, 2012: 105; 70–71). Third, QCA emphasizes equifinality or multiple causation (Schneider and Wagemann, 2012: 94–95). According to this assumption, there might be many different pathways to the same outcome. Each of these pathways are joined through addition, also known as logical OR. Each pathway might also consist of INUS or SUIN conditions (Schneider and Wagemann, 2012: 70–71; 94–95).
Fourth, a QCA model analyzes causality by testing for necessary and sufficient conditions. In panel data QCA, the results from the testing of these conditions are interpreted with the help of cross-sectional consistency and coverage, and across time consistency and coverage (Garcia-Castro and Arino, 2016). The across-time consistency and coverage act as a robustness check for cross-sectional consistency and coverage, and helps a researcher understand whether the impact of conditions varies over the time-period and across cases studied (Garcia-Castro and Arino, 2016: 63). So, in a panel data QCA model, there are three main types of consistency and coverage scores (Furnari, 2018; Garcia-Castro and Arino, 2016). I have described each of these consistency and coverage scores below and summarized it in Table 1.
Types of panel data consistency and coverage scores.
Fifth, QCA believes in the set-theoretic assumptions of asymmetric relations (Schneider and Wagemann, 2012: 93–94). The reasons for the occurrence of an outcome are different from the non-occurrence of an outcome (Schneider and Wagemann, 2012: 93–94). As a result, the reasons for the occurrence and the non-occurrence of an outcome should be studied separately Mello 2021, pp. 69-73; Ragin 1987, Schneider and Wagemann, 2012; pp. 93-94) (Ragin, 1987; Schneider and Wagemann, 2012: 93–94).
Finally, in a panel data QCA model, the unit of analysis is country_year.
Consistency types in a panel data QCA model
As shown in Table 1, there are three main types of consistency scores in a panel data QCA model. The within consistency (WICONS) can be defined as the longitudinal consistency of the set-subset relation, for each case in the panel over time, by holding the time as constant (Garcia-Castro and Arino, 2016). The between consistency (BECONS) can be defined as the cross-sectional consistency of the set-subset relation, for each year in the panel, by holding the case as constant (Garcia-Castro and Arino, 2016). The pooled consistency (POCONS) refers to the overall consistency, when the country or time is not taken in account (Garcia-Castro and Arino, 2016). In a panel data QCA model, the number of WICONS depends on the number of cases/countries studied, the number of BECONS depends on the number of years, and there is one single POCON value (Garcia-Castro and Arino, 2016).
To interpret the results of a panel data QCA model, a researcher needs to first determine the value of POCON (Garcia-Castro and Arino, 2016). If country and time do not play a key role in determining the set-subset relation, then the value of POCON is one (Garcia-Castro and Arino, 2016). In case the value of POCON is not equal to one, it shows that there are inconsistencies (Garcia-Castro and Arino, 2016). These inconsistencies might be due to cases (BECONS) or years (WICONS; Garcia-Castro and Arino, 2016). Hence, a researcher needs to study all the values in the model, to understand whether the model shows inconsistent BECONS or WICONS (Garcia-Castro and Arino, 2016).
A researcher can also study the BECONS distance and WICONS distance. These distances range from zero to one (Garcia-Castro and Arino, 2016). The BECONS and WICONS distance needs to be closer to zero to show that the set-subset relation is not time or case dependent (Garcia-Castro and Arino, 2016). There are four different options while analyzing the BECONS and WICONS distances (Garcia-Castro and Arino, 2016). I have tabulated these options in Table 2 (Garcia-Castro and Arino, 2016: 67).
Options while analyzing the BECONS and WICONS.
Coverage types in a panel data QCA model
If a panel data QCA model shows time (WICONS) or case (BECONS) inconsistency, we then need to analyze whether these inconsistencies are empirically relevant. We can analyze this relevance with the help of the coverage scores (Garcia-Castro and Arino, 2016). There are three main types of coverage scores, POCOV, BECOV, and WICOV (Garcia-Castro and Arino, 2016). The
In the next section, I have first summarized the main steps in building a panel data QCA model, and in sections III and IV, I have applied my own research data, to demonstrate how researchers can test for necessary and sufficient conditions in a panel data QCA model.
Steps in building a panel data QCA model
There are five main steps in building a panel data QCA model (Rihoux and Lobe, 2009). These five steps are case-study knowledge, theory specification, set-calibration, specifying the directional expectations regarding the impact of conditions on an outcome, testing for necessary conditions, testing for sufficient conditions, and if necessary, theory-evaluation.
Amongst these five steps, the testing of necessary and sufficient conditions in Garcia-Castro and Arino’s panel data QCA model is a little bit different, as compared to cross-sectional QCA. Hence, in this research note, I have just focused on describing the steps required for testing necessary and sufficient conditions in a panel data QCA model. I have applied my own research data to demonstrate each of these steps, in sections III and IV, below.
Testing necessary conditions in a panel data QCA model
In panel data QCA, a necessary condition is a condition that must be present for the outcome to occur (Ragin, 1987: 99). A condition (X) is necessary for Y, if X is always present when Y occurs, Y does not occur in the absence of X, and X is a superset of Y (Dusa, 2019). The statement X is necessary for Y can be written as “X≤Y” (Dusa, 2019). In QCA, a condition X is necessary for Y, if its consistency value is at least equal to 0.9, along with a high coverage and a RoN score of greater than 0.5 (Oana, Schneider, and Thomann 2021, pp. 74-75) (Dusa, 2019; Schneider and Wagemann, 2012).
After measuring the consistency, a researcher can also measure the coverage value of a condition. Coverage is a measure of how trivial or relevant a condition X is for an outcome Y (Dusa, 2019: 110–118). A necessary condition should have a high coverage value, along with a higher Relevance of Necessity (RoN) score as compared to the coverage score (Dusa, 2019: 112). If a condition X is necessary for Y, then following QCA’s assumption of causal asymmetry the absence of condition X cannot lead to the presence of outcome Y. Hence, the presence and absence of a condition needs to be tested separately (Schneider and Wagemann, 2012: 155–159).
How to test for necessary conditions in a panel data QCA model?
In the next few paragraphs, I am going to apply my own research data (Bhattacharya 2020), to demonstrate the testing of necessary conditions in panel data QCA. In my research, I have analyzed how microfinance institutions lead to an increase the economic participation of women at the level of the national economy. My research shows that microfinance institutions combine with factors, like the presence of human rights treaties, high life expectancy for females, high female literacy rate, high government control of corruption, high access to basic facilities like sanitation, unemployment benefits, and becoming a member of the European Union, to increase the economic participation of women (Bhattacharya, 2020). The effect of these factors varies across the three countries and the years that I have studied, Bosnia and Herzegovina (BiH), Croatia (HRV), and Montenegro (MNE), 1999–2015, further emphasizing the importance of contextual factors.
I have tested two main hypotheses:
First, I have hypothesized that microfinance institutions, by itself, will be able to increase the economic participation of women, at the level of the national economy. So, I have tested the extent of microfinance institutions as a necessary condition. According to this hypothesis, we will not be able to increase the economic participation of women, in the context of newly independent post-conflict countries, without applying microfinance.
Second, I have hypothesized that the presence of other political, economic, and social freedoms, along with the presence of microfinance institutions, might be able to increase the economic participation of women, at the level of the national economy. In this case, the extent of microfinance institutions becomes a sufficient condition. According to this hypothesis, microfinance will be able to increase the economic participation of women, only in the presence of basic political, economic, and social freedoms, as mentioned in Sen’s
My necessary condition is the presence of microfinance institutions. I have created this macro-condition, by combining three variables, through fuzzyand() My sufficient conditions are access to political freedom (measured through high political rights and civil liberty scale, Freedom House Report), economic facilities like economic growth (measured through high GDP, World Bank [2023b]), social opportunities like access to education and health care (measured through high percentage of literate females and high life expectancy at birth for females, World Bank [2023c]), transparency guarantees like high control of corruption (Control of Corruption Scale, World Bank), and access to protective security measures, measured through high government effectiveness (World Governance Indicators; World Bank 2023d, 2023e, 2023f). I have also measured whether my cases are members of the European Union, and whether they have signed the 18 international human rights laws (measured through the UN Human Rights Office of the High Commissioner), as sufficient conditions, that might impact the economic participation of women.
My dependent variable is economic participation of women. I have created this variable by combining the four main economic sectors of own-account workers (informal economy), family workers (informal economy), employees (formal economy), and employers (formal economy), as mentioned in the 2016 International Labor Organization’s Key Indicators of Labor Market report (ILO KILM, 2016). These four sectors are interconnected, and sometimes, employees tend to move from one sector to the other. Hence, I have combined these four sectors into one macro-condition. I have tabulated my conditions and outcome variables in Table 3.
Causal analysis model (conditions and outcome variables).
Table built based on concepts, as defined by Goertz (2006).
Interpreting the results from the testing of necessary condition
My data analysis results show that microfinance, by itself, is not able to increase the economic participation of women, Table 5. Though the between-consistency scores (2008-2014) are greater than 0.9, the coverage score is less than 0.5, and the absence of microfinance still led to the presence of the outcome, for these between-consistency scores. Similarly, my other political, economic, and social conditions, like access to education, health care, economic growth, and availability of political and civil liberties, are also not able to increase the economic participation of women, independently. As seen in Table 4, the pooled consistency scores (inclN) for the presence of each of the conditions are less than 0.9. Hence, none of the conditions, including the presence of microfinance institutions, can increase the economic participation of women, by itself.
Testing each condition as a necessary condition.
I have applied the cluster () function from the QCA package, to achieve these results (Dusa, 2019).
If a researcher uses this cluster () function in the R software, then the result from the testing of necessary condition looks like Table 5. Researchers then need to restructure this into Table 4. This restructured table only reports the pooled consistencies and coverage scores, with the absence of conditions denoted with a tilde sign (∼). To test the Relevance of necessity, I have applied the parameters of fit, pof () command, from the QCA package (Dusa, 2019). Researchers can also apply the QCAfit () function in setMethods package (Oana and Schneider, 2018. We can visualize the results through the pimplot(), xyplot(), xy.plot(), and Venn diagrams (Oana and Schneider 2018, Dusa 2019). I have applied the xyplot () function to visualize the data analysis result from the testing of HPM as a necessary condition (Figure 1).
Necessary condition (presence of MFIs) and outcome (economic participation of women).

High Presence of Microfinance (HPM) as necessary condition for Outcome (High Economic Participation of Women, NWE)
In a panel data QCA model, we can also understand how the impact of a condition has changed over time, by interpreting the pooled, within, and between consistency scores. If the pooled consistency is not equal to one, then the data results show time or case effects. The between consistency (BECONS), shows the effect of the condition “MFIS” on the outcome for each year, holding the cases/countries studied constant. The within consistency (WICONS), shows the effect of the condition “MFIS” on the outcome holding the years constant (shown in brackets, Table 5). The results for the presence of MFIs (Table 5), show that the pooled consistency is 0.601 (not equal to one). Hence, there are time or country effects on the set–subset relationship between the condition “MFIS” and the outcome. The between-consistency score changes drastically for the year 2008 (increase from 2007, Table 5). The distances of between and within consistency scores show that the overall within case consistency (Within to pooled, 0.408) is greater than the between case consistency (Between to pooled, 0.098), meaning that the effect of microfinance institutions on the economic participation of women, depend on the country/cases more, as compared to the years studied (Table 5).
Since HPM is not a necessary condition, we do not need to interpret the coverage and the relevance score of necessary condition. But, just to demonstrate, the overall coverage score is 0.307, as seen in Table 4 and 5. This indicates low coverage. While testing for necessary conditions, we also need to analyze the relevance of necessary (RoN) score. If the relevance of necessary condition (RoN) score is higher than the coverage score, then it shows that the variable is a relevant necessary condition. In this case, HPM is neither a necessary condition nor is it relevant for economic participation of women, at the level of the national economy, HNWE (Bhattacharya, 2020), as the RoN score is less than the coverage score (Table 4). This can be seen in Figure 1, as there are a few data points which are below the diagonal, but below the y-value of 0.5 (lower right quadrant) (Oana, Schneider, and Thomann 2019, pp.75-77).
Testing sufficient conditions in a panel data QCA model
In QCA, researchers can also analyze causality by testing for sufficient conditions. This can help a researcher understand if a combination of conditions causes an outcome. According to Ragin, a cause can be defined as sufficient if it can produce the outcome but is not the only cause to do so (Ragin, 1987: 99). As an example, X is a sufficient condition for Y, if X is present when Y occurs, X does not occur in the absence of Y, and X is a subset of Y (Dusa, 2019). In sufficiency, X can be a single condition or a combination of conditions (*) and is denoted by “X => Y”. For a sufficient condition, consistency score should be at least 0.75, along with high coverage and a PRI score of greater than 0.50, to avoid simultaneous subset relations (Oana, Schneider, and Thomann 2021, pp.93-96) (Schneider and Wagemann, 2012: 144).
There are three main steps in the testing for sufficient conditions in a panel data QCA model. The first step is to create a truth table. A truth table is the same as a data matrix but slightly different (Ragin, 1987: 87–88). In a truth table, the columns represent the variables, while each row represents the logically possible combinations for each independent variable independent variable, that leads to the presence of the outcome (Outcome, 1) (Ragin, 1987: 87-88). A truth table also shows rows with logical remainders (outcome, ?), and absence of outcome (outcome, 0) (Oana, Schneider, and Thomann 2021, p. 109) (Ragin, 1987: 87–88). (Dusa, 2019).
The second step is to simplify the results of a truth table through Boolean minimization which helps us identify redundant conjuncts and logically redundant prime implicants (Oana, Schneider, and Thomann 2021, pp. 112-114) (Ragin, 1987: 93–98). Boolean minimization helps us remove remove redundancies from the truth table. The third step is to identify and address logical remainders (with outcome, ?) (Oana, Schneider and Thomann, 2021, pp. 122-130). This step is knows as standard analysis, and it creates three types of solutions: conservative/complex, most parsimonious, and intermediate (Oana, Schneider and Thomann, 2021, pp. 122-130). The fourth step is to create enhanced standard analysis solutions by identifying and removing untenable assumptions, logical remainders which are contradictory simplifying, contradicts claims of necessity, and are implausible remainders (Oana, Schneider and Thomann, 2021, pp. 131-140). There are three different types of enhanced standard analysis solutions: enhanced conservative, enhanced parsimonious, and enhanced intermediate. In QCA, researchers are always encouraged to focus on the enhanced intermediate solution for further analysis (Dusa, 2019: 139–193; Schneider and Wagemann, 2012).
In the testing of sufficient conditions in a panel data QCA model, there is one last step, that is using the results (pathways) of the enhanced intermediate/parsimonious solution, as sufficient condition (Dusa, 2019: 139–193), to understand how the causal pathways or configurations, vary over time and across cases.
I have applied my own research data to demonstrate these steps. I have added the results from the truth table, Boolean minimization, conservative solution, parsimonious solution, intermediate solution, enhanced conservative solution, enhanced parsimonious solution, and enhanced intermediate solution, as online supplementary material.
I have tested my model for robustness, by including graphical representation of my variables (to understand change over time and across cases), a check for skewness, applying a theoretical basis to understand the directional expectation for my conditions and outcome variable, testing for necessary conditions first, then testing for sufficient conditions, using different calibration measures, and testing any change in results, and following the enhanced intermediate solution to interpret the data analysis results.
How to test for sufficient conditions in a panel data QCA model? Demonstration
To test for sufficient conditions, I have first created a Truth Table, then logically minimized it, then created the conservative, most parsimonious, intermediate, enhanced conservative, enhanced parsimonious, and enhanced intermediate solutions. As discussed above, we also need to analyze whether the impact was context dependent (countries studied, WICONS) or time dependent (years studied, BECONS). To do this, I have applied the cluster () command in the set methods QCA package (Oana and Schneider, 2018). I have then applied the smmr() function to focus on the most-typical case, as a part of my data analysis interpretation and post QCA analysis. Below, I have interpreted the results from my most typical case, Bosnia and Herzegovina, 2011.
Directional Expectation between Conditions and Outcome for the intermediate and enhanced intermediate solutions.
My data analysis results from the testing of sufficient conditions, show that microfinance institutions can increase the economic participation of women, by combining with political, economic, and social resources, as mentioned in Sen's
Sufficient Conditions that can increase the economic contribution of women.
HPM*EUM*∼HPF*∼HSO + ∼HPM*∼EUM*GDP *HPF*NEFFECT + HPM*EUM*HRT*GDP*∼HPF*NCOR -> NWE
HPM*EUM*∼HSO*∼NCOR + ∼HPM*∼EUM*GDP*HPF*NEFFECT + HPM*EUM*HRT*GDP*∼HPF*HSO*NCOR -> NWE
My most typical was Bosnia and Herzegovina, 2011. There are two different pathways through which microfinance institutions was able to increase the economic participation of women: in Bosnia-Herzegovina, for the year 2011. Pathway 1: HPM*EUM*∼HPF*∼HSO → NWE, and Pathway 2: HPM*EUM*HSO*NCOR → NWE.
These pathways show a combination between high presence of microfinance (HPM), and becoming a potential candidate for European Union membership, that increased the economic participation of women, despite women in BiH lacking access to high social opportunities (∼HSO), high government control of corruption (∼NCOR), and/or high political freedom (∼HPF), Table 7. The final step in a QCA research process is to interpret why this case turned out to be the most typical case. To do this, researchers usually apply their case study knowledge. Researchers can also adopt process-tracing to analyze which of these two pathways increased the economic participation of women, in the most typical case, Bosnia-Herzegovina, 2011 (Goertz 2017; Oana, Schneider and Thomann, 2021). Since the purpose of this article is to demonstrate how to apply Garcia-Castro and Arino's panel data QCA model, I am just going to highlight a few reasons here.
BiH had faced a negative impact of the 2008 economic crisis, which led to huge unemployment. To address this, the World Bank and European Union had started financing new microfinance projects. This further support might have increased the presence of microfinance institutions, in turn creating new employment opportunities for women. Since BiH had already become a potential candidate of EU, it has been receiving economic and political support from EU. And one of the economic development policies that has been supported by EU is the application of microfinance institutions to increase the economic participation of women.
To visualize the data analysis results from the testing of sufficient conditions, researchers can apply the XYplot(), xy.plot(), and Venn diagrams (Oana and Schneider 2018, Dusa 2019). Another crucial factor in the testing for sufficient conditions is interpreting the unique and solution coverage scores. If a data model shows more than one pathway, then the unique coverage shows the relevance of each causal pathway, while the solution coverage shows the overall relevance of the entire model. In this case, for the pathway, HPM*EUM*∼HPF*∼HSO, the overall solution coverage is 0.337, and the unique coverage of this pathway is 0.146. I have applied the XYplot() function, to visualize Model 1, in Figure 2.

Visualizing Model 1 as Sufficient Condition (Table 7)
Importance of panel data QCA as a data analysis method
In his book, “The Comparative Method”, Ragin (1987) defined Qualitative Comparative Analysis (QCA), as a comparative case-oriented research method that can be applied to study test a small to medium number of cases, to analyze whether a condition (independent variable) impacts an outcome (dependent variable), and to understand the causal pathway (how) the causal conditions impact an outcome (Ragin, 1987). Hence, in the realm of comparative research methods, panel data QCA is important because it can help us study how macro-social units have developed over time and across cases. Second, it can help us understand whether the change is due to the years (BECONS), or the countries studied (WICONS) (Verweij and Vis, 2021). Third, like cross-sectional QCA, panel data QCA can help researchers study a smaller number of cases. Fourth, a researcher can include data from various levels of analysis like micro, meso, and macro, to build a panel data QCA model.
Fifth, by combining features from both qualitative and quantitative research, panel data QCA has been able to broaden the range of data analysis approaches available to research scholars in the school of mixed methods. As an example, Garcia-Castro and Arino (2016) developed the panel data QCA model based on panel data econometrics. But, to build this model, researchers need to understand the cases studied, include variables from the case-study, calibrate variables based on the concept of relevant variation and qualitative change, and finally interpret the data analysis results based on the case study. And these are features that are usually applied in qualitative research.
But, in the last few years, scholars of QCA have pointed out a few disadvantages of this panel data QCA method. As an example, QCA usually believes in the concept of “qualitative change over time”, but, the panel data model as suggested by Garcia-Castro and Arino (2016), might not be able to capture this qualitative change over time. To address these disadvantages, researchers can apply alternatives like creating separate panel data models for equal intervals during the time studied, and applying comparative historical analysis, to understand whether condition A occurred before condition B. Researchers can also follow the guidelines of multi-method research as suggested by Goertz (2017) and Thomann (2019) and conduct a post QCA case study through process-tracing, to understand how the pathway for this impact changes over time and across cases.
Despite these disadvantages, Garcia-Castro and Arino’s (2016) panel data QCA model is an important development in the world of comparative research. This is due to its’ strengths like, focus on a small to medium number of case studies, include data from various levels of analysis, understand how the presence of conditions impacts an outcome, and how the pathway of this impact changes over time and across cases. Hence, in this research note, I have applied my own research data to highlight these advantages of panel data QCA. In the next section, I conclude my research note by briefly summarizing the main steps required to build a panel data QCA model.
Conclusion
Garcia-Castro and Arino's panel data QCA model (2016) can help us analyze how the impact of necessary and sufficient conditions, has changed over time and across cases. To do this, we include two additional columns in our data analysis, one identifying the cases (unit_id), and one identifying the years in which each case is being studied (cluster_id) (Dusa 2019, Oana, Schneider and Thomann, 2021, Bhattacharya 2020).
Second, we need to use the cluster () function, to analyze how the impact of a condition or combination of conditions has changed over time and across cases.
Moreover, while testing for sufficiency, with the cluster() function, we need to use the enhanced parsimonious or enhanced intermediate solutions, as the result or input (Dusa 2019).
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Supplemental material, sj-docx-2-mio-10.1177_20597991231179389 for How to build and analyze a panel data QCA model? A methodological demonstration of Garcia-Castro and Arino’s panel data QCA model by Preya Bhattacharya in Methodological Innovations
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Footnotes
Declaration of conflicting interests
Funding
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References
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