Abstract:Few studies have used exploratory factor analysis (EFA) and exploratory bifactor factor analysis (EBFA) to define a baseline factor structure model checking the construct-relevant psychometric multidimensionality of student engagement. This study was conducted on a sample of 3,374 students in France, Wallonia-Brussels Federation, and Luxembourg by using EFA and EBFA, and by comparing four confirmatory factor models of student engagement in the classroom. Results indicated the relevance of a bifactor model to d… Show more
“…Wang et al (2016), for example, found that student engagement in maths and science could be best represented by a bi‐factor model with a general student engagement factor and specific factors of behavioural, cognitive, emotional and social engagement. Similar findings were also reported by Stefansson et al (2016) and Dierendonck et al (2020) who converged on a bi‐factor model of student engagement at the school and classroom levels respectively, with a general engagement factor and three specific components of behavioural, cognitive and affective engagement. However, these studies were conducted in school contexts with face‐to‐face learning modes and did not account for the concern about the conceptual ambiguity among student engagement components to which the next discussion turns.…”
Enhancing student engagement plays a critical role in reducing student drop‐out rate in online learning as students usually feel isolated and disconnected in this learning environment. This requires a clear conceptualization of the student engagement construct and its underlying structure. However, the conceptual understanding of the student engagement construct has long been impeded by the inconsistency in its multidimensional structure and the conceptual ambiguity among its components. This study aims to examine the underlying structure of student engagement in online learning based on the bi‐factor exploratory structure equation modelling framework (B‐ESEM). Four competing models representing the underlying structure of student engagement in online learning were compared based on their degree of fit to survey data from 363 students in an online undergraduate program. Students' responses to the online learning engagement questionnaire were best represented by a B‐ESEM model that provided simultaneous assessment of a global engagement factor and specific factors of behavioural, cognitive, affective and social engagement while controlling for item cross‐loadings. However, behavioural engagement only retained limited specificity once the global engagement factor was taken into account. The study findings offer a solution to reconcile the inconsistency in the multidimensional structure of student engagement and reduce the conceptual ambiguity among its components, thus contribute to better measuring student engagement in online learning.
“…Wang et al (2016), for example, found that student engagement in maths and science could be best represented by a bi‐factor model with a general student engagement factor and specific factors of behavioural, cognitive, emotional and social engagement. Similar findings were also reported by Stefansson et al (2016) and Dierendonck et al (2020) who converged on a bi‐factor model of student engagement at the school and classroom levels respectively, with a general engagement factor and three specific components of behavioural, cognitive and affective engagement. However, these studies were conducted in school contexts with face‐to‐face learning modes and did not account for the concern about the conceptual ambiguity among student engagement components to which the next discussion turns.…”
Enhancing student engagement plays a critical role in reducing student drop‐out rate in online learning as students usually feel isolated and disconnected in this learning environment. This requires a clear conceptualization of the student engagement construct and its underlying structure. However, the conceptual understanding of the student engagement construct has long been impeded by the inconsistency in its multidimensional structure and the conceptual ambiguity among its components. This study aims to examine the underlying structure of student engagement in online learning based on the bi‐factor exploratory structure equation modelling framework (B‐ESEM). Four competing models representing the underlying structure of student engagement in online learning were compared based on their degree of fit to survey data from 363 students in an online undergraduate program. Students' responses to the online learning engagement questionnaire were best represented by a B‐ESEM model that provided simultaneous assessment of a global engagement factor and specific factors of behavioural, cognitive, affective and social engagement while controlling for item cross‐loadings. However, behavioural engagement only retained limited specificity once the global engagement factor was taken into account. The study findings offer a solution to reconcile the inconsistency in the multidimensional structure of student engagement and reduce the conceptual ambiguity among its components, thus contribute to better measuring student engagement in online learning.
“…The multidimensional framework applied in this study affords researchers and practitioners alike an easy‐to‐administer and validated measure to move beyond solely focusing on students' behavioral engagement in afterschool spaces. It is important to note that students' experiences of engagement are best understood in a bifactor model, which resembles prior work around engagement in formal school settings (Bae et al, 2020; Dierendonck et al, 2020; M. T. Wang, Fredricks, et al, 2019), and in mathematics and science contexts more specifically (Bae & DeBusk‐Lane, 2019; Wang et al, 2016). Further, in alignment with Dierendonck and colleagues' (2020) interpretation of classroom engagement, our results highlight how student engagement in afterschool spaces includes a unidimensional construct that also consists of small specific latent dimensions (i.e., cognitive engagement) that need to be identified to achieve a well fitting model solution (see Brown, 2015, p. 301).…”
Section: Discussionmentioning
confidence: 84%
“…It is important to note that students' experiences of engagement are best understood in a bifactor model, which resembles prior work around engagement in formal school settings (Bae et al, 2020; Dierendonck et al, 2020; M. T. Wang, Fredricks, et al, 2019), and in mathematics and science contexts more specifically (Bae & DeBusk‐Lane, 2019; Wang et al, 2016). Further, in alignment with Dierendonck and colleagues' (2020) interpretation of classroom engagement, our results highlight how student engagement in afterschool spaces includes a unidimensional construct that also consists of small specific latent dimensions (i.e., cognitive engagement) that need to be identified to achieve a well fitting model solution (see Brown, 2015, p. 301). This similarity in the modeling of engagement suggests that the structure of adolescent engagement experiences in afterschool spaces parallel those in more formal educational settings, a helpful understanding to keep in mind when applying the bifactor engagement framework in informal learning spaces.…”
Though student engagement is hypothesized to be a factor in explaining student level differences in afterschool programs, the measurement of student engagement in this context is inconsistent, and findings from the small number of studies about how engagement impacts developmental and academic outcomes are mixed. In this study, we tested the factor structure of Wang and colleagues' school engagement scale with a sample of middle school students (N = 197) who attended an afterschool program in an urban setting. Results suggest that a bifactor model of engagement best fits the data, meaning that engagement consists of four specific factors (affective, behavioral, cognitive, social) and a global factor. We then used structural equation modeling to examine the relationship between engagement, academic outcomes, and positive youth development (PYD). Results also showed positive associations with student mathematics achievement and PYD, but no significant associations were found between engagement and English achievement. This study provides a theoretically aligned way to measure engagement and evidence to support engagement as a key factor in predicting youth outcomes in an out‐of‐school context.
“…For instance, students endorse expectancy and task value for school and adopt these constructs for particular subjects and tasks (Bong, 2004;Parrisius et al, 2021). Similarly, students engage with school work in general while simultaneously displaying engaged activities in specific classes (Sinatra et al, 2015;Dierendonck et al, 2020). It is therefore conceivable that generation status can influence school expectancy, task value, and engagement and moderate their effects on learning outcomes.…”
IntroductionWe investigated differences in domain-general expectancy, value, and engagement in school by generation status and how the relationship among these constructs and academic performance differ by generation status.MethodsA total of 573 college students enrolled in introductory psychology courses participated in the study. We collected data on generation status, expectancy-value beliefs, school engagement, and official GPA data from participants, tested measurement invariance of expectancy-value beliefs and engagement between first-generation college students (FGCS) and continuing generation college students (CGCS), and conducted multigroup modeling to understand the differential relations of expectancy-value, engagement, and GPA between the two groups.ResultsWe discovered that the latent mean of expectancy beliefs differed significantly by generation status, with FGCS reporting higher expectancy than CGCS. There were no differences in the latent mean of task value. Multigroup structural equation modeling revealed that the effect of expectancy-value motivation on behavioral engagement was similar across groups, but its effect on cognitive engagement was greater for the FGCS than for the CGCS. For both groups, expectancy impacted academic performance via behavioral engagement. Finally, neither expectancy-value motivation nor cognitive engagement directly predicted academic performance for either group.DiscussionThe findings have important theoretical implications for understanding motivation and achievement of FGCS and CGCS and critical practical implications regarding undergraduate education.
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