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Instructional characteristics in mathematics classrooms: relationships to achievement goal orientation and student engagement

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Abstract

This longitudinal study examined relationships between student-perceived teaching for meaning, support for autonomy, and competence in mathematic classrooms (Time 1), and students’ achievement goal orientations and engagement in mathematics 6 months later (Time 2). We tested whether student-perceived instructional characteristics at Time 1 indirectly related to student engagement at Time 2, via their achievement goal orientations (Time 2), and, whether student gender moderated these relationships. Participants were ninth and tenth graders (55.2% girls) from 46 classrooms in ten secondary schools in Berlin, Germany. Only data from students who participated at both timepoints were included (N = 746 out of total at Time 1 1118; dropout 33.27%). Longitudinal structural equation modeling showed that student-perceived teaching for meaning and support for competence indirectly predicted intrinsic motivation and effort, via students’ mastery goal orientation. These paths were equivalent for girls and boys. The findings are significant for mathematics education, in identifying motivational processes that partly explain the relationships between student-perceived teaching for meaning and competence support and intrinsic motivation and effort in mathematics.

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Notes

  1. The ICC1 values were calculated from the 46 classrooms (average cluster size: 15.96).

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Acknowledgements

We wish to acknowledge the helpful and detailed comments on our manuscript, from Professor Helen Watt, Monash University.

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Correspondence to Rebecca Lazarides.

Appendices

Appendix 1

Table 3 Model Fit Indices for Measurement Invariance Testing (Full Sample/Girls/Boys)

Appendix 2

Table 4 Multiple-Group Analyses with Gender as the Grouping Variable

Appendix 3: Mean Level Differences

With the condition of partial scalar invariance met, latent factor mean differences between girls and boys could be estimated. Because the latent means were set at zero for boys, the estimated latent means for girls represented their latent mean differences relative to boys. The Simes procedure was used to correct for the inflated risk of falsely rejecting the null hypothesis that results from multiple comparison procedures (Benjamini and Hochberg 1995). The kappa values of the model represent the latent mean parameters (Brown 2015). The latent mean differences provide information that exceeds the information from the later reported structural equation model as no other variables are considered in the model. Girls and boys did not statistically significantly differ in their mastery goal orientation (Time 1: κ = 0.14, p = .15; Time 2: κ = 0.18, p = .06), performance-approach goal orientation (Time 1: κ = −0.16, p = .09; Time 2: κ = −0.14, p = .08), effort (Time1: κ = 0.13, p = .02; Time 2: κ = 0.08, p = .22), and perceived teaching for meaning (Time1: κ = 0.17, p = .02) and competence support (Time1: κ = 0.21, p = .05). Girls reported statistically significantly lower autonomy support at Time 1 (κ = −0.19, p = .01) and lower intrinsic motivation (Time 1: κ = −0.38, p < .001; Time 2: κ = −0.33, p < .001). Girls’ (M = 4.08, SD = 0.99), and boys’ (M = 4.01, SD = 1.08) self-reported mathematics achievement did not statistically significantly differ, t (724) = −.92, p = .36.

Appendix 4: Intercorrelations among the independent variables

The following significant (p < .05) correlations among the independent variables are not depicted in Fig. 1: Int1 with Gender φ = −.24; EffT1 with Gender φ = .11; Mast T1 with Gender φ = −.12; PerfT1 with Gender φ = −.09; Achievement with Effort T1 φ = .16; Achievement with Perf T1 φ = .06; Int T1 with Eff T1 φ = .51; Int T1 with Mast T1 φ = .63; Int T1 with Perf T1 φ = .20; Eff T1 with MastT1 φ = .47; Eff T1 with Perf T1 = .22; Mast T1 with Perf T1 = .36.

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Lazarides, R., Rubach, C. Instructional characteristics in mathematics classrooms: relationships to achievement goal orientation and student engagement. Math Ed Res J 29, 201–217 (2017). https://doi.org/10.1007/s13394-017-0196-4

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