Motivation and performance within a collaborative computer- based modeling task:

1. Motivation and performance within a collaborative computer- based modeling task: Relations between students' achievement goal orientation, self-efficacy, cognitive processing, and achievement Presenter: Hsiao-lan Lee Professor: Ming-Puu Chen Date: 07 / 22 / 2008 Sins, P.H.M., Joolingen, W.R. van, Savelsbergh, E.R., & Van Hout-Wolters, B.H.A.M. (2008). Motivation and performance within a collaborative computer-based modeling task: Relations between students' achievement goal orientation, self-efficacy, cognitive processing, and achievement. Contemporary Educational Psychology, 33(1), 58-77.

2. Introduction (1/6) • The goal of the present study is to investigate the relationships among students’ (1)achievement goal orientation (mastery-approach goal orientation and performance-avoidance goal orientation), (2) self-efficacy, (3) cognitive processing, and (4) achievement within a particular collaborative computer-based modeling task setting. • The variables will be measured at the level of collaborating students (i.e., dyads) rather than at the individual level. • Instead of using self-report questionnaires which are traditionally employed within the field of achievement motivation, students’ cognitive processing will be assessed by means of an online measure, based on inter-student communication.

3. Introduction (2/6) • Two motivational factors that are presumed to be important predictors of students’ cognitive processing are: (a)achievement goal orientation and (b)self-efficacy. • Two distinct types of achievement goal orientation： 1.mastery goal orientation (1) a mastery-approach goal orientation: pure approach motivation (2) a mastery-avoidance goal orientation 2.performance goal orientation (1) a performance-approach goal orientation (2) a performance-avoidance goal orientation: pure avoidance motivation

4. Introduction (3/6) • The influential role of self-efficacy on task performance must be taken into account. • It is ineffective for students to be striving to master a task, if they are less convinced that they have the necessary ability and competence to do so. • Students who are highly mastery-approach goal oriented attempt to gain rich insight in the given learning material, will therefore engage in deep cognitive processing to increase their comprehension and tend to attribute learning success to invested effort. • Two types of cognitive processing: • deep cognitive processing • surface cognitive processing

5. Introduction (4/6) • Both self-efficacy and mastery-approach goal orientation are indirectly related to achievement via a direct relationship with the employment ofdeep processing strategies. • As the goal of our study is to investigate whether the consistent relationships found in literature reproduce at the level of actually observed processes, performance-approach goal orientation and mastery-avoidance goal orientation were excluded.

6. Introduction (5/6) • Computer-based models are executable external representations of the behavior of complex scientific phenomena. • The act of modeling is the activity in which models are constructed, evaluated and revised with the help of a computer-based modeling tool, such as STELLA and Powersim. • The benefits of the models: • offer students with the opportunity to think scientifically about the behavior of these phenomena • provide a platform for understanding how these variables interact • help students to externalize their ideas

7. Introduction (6/6) • The conceptual model of the current study: 動 機 認知歷程 學習成就

8. Method • Participants • 60 students / 30 dyads from 11th grade pre-university education • major in science • no prior knowledge of dynamic modeling • heterogeneous group composition • Material • perform the modeling task within the computer-based learning environment Co-Lab • asked to extend a simple pre-build model that could give an explanation and prediction of the temperature on earth

9. Method - Instruments(1/4) • Achievement goal orientation • measured on the individual level as well as on the dyad-level, employing questionnaires • Individual level: items from corresponding subscales of the Goal-Orientation Questionnaire of Seegers and Boeckaerts (1993) • The first scale: mastery-approach goal orientation • Ex: I like to work hard on a physics task. • The second scale: performance-avoidance orientation • Ex: I want to avoid doing poorly in physics class. • Principal-components analysis with varimax rotation(所使用的因素抽取法為「主要成分析」，採直交轉軸法中的最大變異法 ) supported the presence of two factors. • The two primary factors accounted for 71% of the total variance. • Alpha was .80 for mastery-approach goal orientation and. Alpha was .79 for performance-avoidance goal orientation.

10. Method- Instruments (2/4) • Achievement goal orientation • Dyad-level: • Principal-components analysis with varimax rotation showed that the two factor solution accounted for 69% of the total variance. • Coefficient alphas for mastery-approach goal orientation and performance-avoidance goal orientation are respectively .69 and .72. • Self-efficacy • adopt the translated General Self-efficacy questionnaire of Schwarzer (1992) • Internal consistencies were found to be .70 and .68 for the individual self-efficacy questionnaire and the group self-efficacy questionnaire, respectively.

11. Method- Instruments (3/4) • Cognitive processing • measured by analyzing the inter-student chat, taken from the log files of the students’ sessions • The unit of analysis is the process-episode level. • employ the protocol analysis scheme of Sins, Savelsbergh, and Joolingen (2005) • The chat logs were scored employing two categories: (a) students’ reasoning processes during modeling (b) type of reference made by students during reasoning • also individually measured using a self-report questionnaire in order to investigate the correspondence between results from such questionnaires and the online log-file measure • The two primary factors accounted for 42% of the total variance. Coefficient alpha was .46 for surface processing and alpha was .59 for deep processing.

12. Method- Instruments (4/4) • Achievement • measured on the dyad-level and operationalized as a model quality score • The students’ final model was awarded with points for each variable which name and specification was correct. • In addition, awarded with a point for: • correct links between variables • correct specifications for these relations • Each incorrect relation between quantities a point was subtracted from the total score.

13. Method- Procedure (1/2) • Two sessions: • each of about two and a half hours on two separate days • In the first session: • give a plenary introduction to the Co-Lab environment • provid with an individual modeling tutorial • asked to complete the individual self-efficacy questionnaire and the individual achievement goal-orientation questionnaire • Dyads were composed and a training task was given. • Students were asked to collaboratively extend a pre-build model involving the inflow and outflow of water from a water tank. • asked to complete the group measures of self-efficacy and achievement goal orientation

14. Method- Procedure (2/2) • In the second session: • present with a modeling task • Students’ goal was to extend the model so that it could give an explanation and prediction of the temperature on earth. • Co-Lab provided support: • consult background information • work with a simulation of a black sphere • work for 2 h on the modeling task • Members of a dyad each worked on one computer communicating through a chat channel. • The individual self-report questionnaire of students’ processing was administered and completed.

15. Result (1/7) • Validity of group measures for mastery-approach goal orientation, performance-avoidance goal orientation, and self-efficacy • The zero-order correlations for mastery-approach goal orientation (r = .56, p < .01), performance-avoidance orientation (r = .77, p < .01), and self-efficacy (r = .68, p < .01) are significant and positive. • The averaged individual measure for self-efficacy per dyad and the group measure for mastery-approach goal orientation are significantly related (r = .38, p < .05).

16. Result (2/7) • Correspondence between the online log-file measure and the self-report measure of cognitive processing • Results reveal little or no correspondence between the retrospective self-reporting on the one hand and the online log-file measure of students’ cognitive processing on the other (r = .18, p = .32 for deep processing and r = .06, p = .74 for surface processing). • Result shows that a small proportion of time was spent on either surface processing (M = 12.93%) or on deep processing (M = 15.84%). • Dyads spend the remaining time on: • talking about modeling actions (M = 43%) • reading the learning material in Co-Lab (M = 8.58%) • off-task communication (M = 7.69%) • other processes that did not fall under our conceptualization of deep and surface processing (M = 11.96%)

17. Result (3/7) • Testing the conceptual model • Relations between the variables of our conceptual model were first examined with Pearson product-moment correlations between variables (Table 3). • The relation between self-efficacy and mastery-approach goal orientation is significant. • Both self-efficacy and mastery-approach goal orientation are significantly correlated with deep processing. • The correlation between performance-avoidance goal orientation and surface processing is not significant. • Deep processing is significantly positive related to achievement on the modeling task. • The correlations between mastery-approach goal orientation and achievement and between self-efficacy and achievement are significant.

18. Result (4/7) • Testing the conceptual model • The result of Pearson product-moment correlations:

19. Result (5/7) • Testing the conceptual model • A series of multiple hierarchical regression analyses were performed (Table 4). • The first set of regression analyses: • None of the motivational variables significantly predicts surface processing. • The second set of regression analyses: • Achievement as dependent variable, show that self-efficacy, mastery-approach goal orientation, and deep processing are significant predictors of achievement. • The positive influence of mastery-approach goal orientation on achievement is not significant after controlling for the mediating influence of deep processing. • For surface processing, no such path from performance-avoidance goal orientation can be found.

20. Result (6/7) • Testing the conceptual model • The result of multiple hierarchical regression analyses :

21. Result (7/7) • Testing the conceptual model • The resulting path model:

22. Discussion (1/7) • From the conceptual model: • Mastery-approach goal orientation and self-efficacy were both positively related toachievement and that these relationships were mediated by dyads’ employment of deep cognitive processes. • Performance-avoidance goal orientation was not significantly related to dyads’ employment of surface processes. • No significant relation was found between surface processing and achievement. • An indication of the validity of the group measures for mastery-approach goal orientation, performance-avoidance goal orientation, and self-efficacy was reflected in the finding that these measures were significantly positively related to the corresponding scores on the individual questionnaires, aggregated per dyad.

23. Discussion (2/7) • From the self-report questionnaire: • The group scores on the self-report questionnaire were not significantly related to the scores obtained from the online log-file measure. • Deep processingpositively contributed toachievement, whereas surface processing showed a negative, but non-significant correlation with achievement. • This finding may indicate that the online log-file measure is a valid indication of processing quality.

24. Discussion (3/7) • From previous research within the field of achievement motivation • Self-efficacy and mastery-approach goal orientation are significantly positively related to students’ use of deep cognitive processes. • The hypothesis that self-efficacy is related tomastery-approach goal orientation was supported. • Achievement (i.e., model quality score) is positively affected by self-efficacy and mastery-approach goal orientation, but the effects of these variables are indirect, operating through the observed use of deep processes (i.e., mediation). • We lack detailed data on the origin of the knowledge students’ employed during these episodes, as we did not administer a detailed domain knowledge test. • It should be possible to determine whether and to what extent prior knowledge about the domain has an independent contribution to the occurrence of deep reasoning processes.

25. Discussion (4/7) • From the path: • The paths between the variables performance-avoidance orientation and surface processing and between surface processing and achievement were not significant. • With a larger sample size these coefficients could turn out to be significant. • However, recent studies also found that the paths between performance-avoidance goal orientation and surface processing and between surface processing and achievement were not significant.

26. Discussion (5/7) • The important contributions of the present study: • It is important to consider not only cognition as an important determinant of collaborative computer-based learning, but also to take into account the important impact of motivational factors, such as students’ achievement goal orientation and self-efficacy. • The conceptual model is also applicable to particular collaborative tasks using an online log-file measure of students’ cognitive processing.

27. Discussion (6/7) • An educational implication of this study: • Strategies that promote a mastery-approach goal orientation and advance students’ self-efficacy lead to deep reasoning during modeling and ultimately to a higher achievement. • A mastery-approach orientation can be encouraged when knowledge development is emphasized instead of evaluation of learning. • Mastery-approach goal orientation may be stimulated when an assignment provided to students is made interesting and challenging for them. • Although one of the strongest ways for students to build self-efficacy is to experience success in accomplishing tasks themselves, external support and encouragement can also be provided.

28. Discussion (7/7) • An educational implication of this study: • Collaborative computer-based modeling tasks • Mastery-approach goal orientation and self-efficacy may be promoted by presenting students with modeling tasks that interests them, by avoiding normative comparisons with other students, and by having students exchange their model and ideas with other dyads. • Collaborative learning activities • Such as the assignment employed in our study, have also been found to promote students’ achievement goal motivation.