| Proposal Type: | Symposium |
|---|---|
| Domain: | Learning and Instructional Technology |
| SIG: | Learning and Instruction with Computers |
| Scheduling category: | Technology in Education and Training |
| Type | Submitted Symposium |
| Title | Exploring the link between educational views and the use of ICT in the classroom |
| Abstract | Studies of the use of technology in education increasingly focus on the relation between the educational views of schools or teachers and the way ICT is being used in classrooms. This appears to be a promising approach to the investigation of the integration of ICT in the classroom, since many studies show that the meaningfulness and effectiveness of ICT use is enhanced when it fits the schools’ educational views (Kulik, 2003; Cox et al., 2004; Ten Brummelhuis, 2006, Niederhauser & Stoddart, 2001). However, many questions remain in relation to such findings. This symposium addresses questions like: How exactly do educational views and use of ICT affect each other? How can the relationship between educational views of teachers and schools on the one hand and particular types of ICT use on the other be investigated? And what are the possible implications of such a link between educational views and ICT practices for educators working with ICT in the classroom? The papers presented in this symposium cover empirical studies which investigate these issues from different angles. We invite researchers concerned with the integration and use of ICT in educational settings to explore and discuss some of these issues with us in this symposium. References: Cox, M., Webb, M., Abbott, C., Blakeley, B., Beauchamp, T., & Rhodes, V. (2004). A review of the research literature relating to ICT and attainment. London: Becta. Kulik, J. (2003). Effects of using technology in elementary and secondary schools: What controlled evaluation studies say. Arlington: SRI. Niederhauser, D.S., & Stoddart, T. (2001). Teachers’ instructional perspectives and use of educational software. Teaching and Teacher Education, 17 (1), 15-31. Ten Brummelhuis (2006). Aansluiting onderwijs en digitale generatie [Connecting education and digital generation]. In J. de Haan & C. van ‘t Hof (Eds.). Jaarboek ICT en samenleving 2006: de digitale generatie. Amsterdam: Boom. |
| Equipment |
Overhead projector Computer and data projector / beamer |
| Keywords | Computer supported Learning Environments Educational Technology Teacher thinking |
| Chairperson list | |||||
|---|---|---|---|---|---|
| First Name | Last Name/Surname | Institution | Country | EARLI Number | |
| Els | Kuiper | VU University Amsterdam | Netherlands | ej.kuiper@psy.vu.nl | |
| Organiser list | |||||
|---|---|---|---|---|---|
| First Name | Last Name/Surname | Institution | Country | EARLI Number | |
| Sandra | de Koster | VU University Amsterdam | Netherlands | s.de.koster@psy.vu.nl | |
| Discussant list | |||||
|---|---|---|---|---|---|
| First Name | Last Name/Surname | Institution | Country | EARLI Number | |
| Alfons | ten Brummelhuis | Stichting Kennisnet | Netherlands | a.tenbrummelhuis@kennisnet.nl | |
| Paper Details |
|---|
| Paper type | Empirical |
|---|---|
| Title | Curriculum goals and pedagogical practices of extensive and non-extensive ICT-using science teachers |
| Abstract | SITES 2006 is an international study about pedagogical practices and the use of ICT in math and science classrooms. One of the findings of SITES 2006 is that – across educational systems – a relevant number of math and science teachers use ICT extensively and are trying to find ways to incorporate ICT in their pedagogical practices to realize education that is considered relevant for the 21st century. Starting from this finding, a follow-up study has been carried out in which extensive and non-extensive ICT-using science teachers were compared with respect to the curriculum goals they consider important for their teaching and their involvement in curriculum-decision making in their school. Preliminary findings show that extensive ICT-using science teachers, more than their non-extensive ICT-using colleagues find curriculum goals important which are considered relevant for the 21st century and are more involved in curriculum-decision making in their school than non-extensive ICT-using science teachers. |
| Summary | SITES 2006 has been an international comparative survey (conducted under the auspices of the IEA, the International Association for the Evaluation of Educational Achievement) aimed at (1) examining the extent of ICT integration in classroom practices, and (2) identifying factors that contribute most to effective integration of ICT into learning and teaching. Schools and grade 8 math and science teachers from 22 educational systems participated in SITES 2006. Per educational system 400 schools and 4 teachers per school participated. The main international findings have been reported in Law, Pelgrum & Plomp (2008). Pedagogical practices in math and science classrooms have been an important focus in the SITES 2006 study. In the study, a distinction has been made between pedagogical practices that are traditionally important and on the other hand emerging practices, which were divided in into lifelong learning orientation and connectedness orientation. For the purpose of this paper, we label the latter two as innovative pedagogical practices. Traditionally important practices, reflect teaching and learning which is considered important in the industrial society (Voogt, 2008a; Law, Pelgrum & Plomp, 2008), while innovative pedagogical practices try to respond to challenges of the information society and aim at student outcomes that are considered relevant in the 21st century, such as communication and information handling skills (Kozma, 2003; Anderson, 2008). Voogt (2008b) argues that in educational practice a balance needs to be found between pedagogical practices which are dominant in the industrial society and practices which are considered important for the information society. Based on an analysis of the data from the SITES 2006 study where pedagogical practices of extensive and non-extensive ICT-using science teachers were compared, Voogt (submitted) had shown that the traditional important orientation is still dominant in the pedagogical practices of grade 8 science teachers. This holds for extensive ICT-using science teachers as well as non-extensive ICT-using science teachers. Based on these findings Voogt concluded that ICT contributes to both traditionally and innovative pedagogical practices. However, further analysis showed that for practices extensive ICT-using science teachers find most satisfying an increase in student outcomes and teaching practices due to ICT were reported, that can be characterized as innovative and reflecting the demands of the information society (Voogt, 2008a; Voogt, submitted). This finding indicates that nowadays a relevant number of science teachers – across educational systems - are trying to find ways to incorporate ICT, general ICT applications in particular, in their pedagogical practices to realize education that is considered relevant for the 21st century. In this paper extensive and non-extensive ICT-using science teachers are compared with respect to the curriculum goals they consider important for their teaching and their involvement in the development of their school’s vision on education. Teacher’s involvement in the development of the school’s vision on the role of ICT in education is considered important for the implementation and sustainability of ICT in educational practice (Kozma, 2003). The main research question we want to answer is: Do curriculum goals, and influence on curriculum-decision making differ between extensive ICT-using science teachers and non-extensive ICT using science teachers? Preliminary results show that extensive ICT-using science teachers differ from their non-extensive ICT-using colleagues in the importance they attach to curriculum goals that are considered important for the information society, while no difference was found for goals that traditionally are considered important. The differences are small (effect sizes vary between 0.24 - .070) but consistent. In addition extensive ICT-using science teachers are more involved in curriculum decision-making compared to non-extensive ICT-using science teachers. Also here effect sizes are small but steady (0.20 – 0.40). Further analysis of the data will be carried out and presented at the conference. References Anderson, R. (2008). Implications of the information and knowledge society for education. In J. Voogt, & G. Knezek (Eds.), International handbook of information technology in primary and secondary education (pp 5-22). New York: Springer. Kozma, R.B. (Ed.) (2003). Technology, innovation and educational change: a global perspective. Eugene (OR): ISTE. Law,N., Pelgrum, W.J. & Plomp, T. (2008). Pedagogy and ICT use in schools around the world. Findings from the IEA SITES 2006 study.. CERC Studies in comparative education. Hong Kong: Comparative Education Research Centre, The University of Hong Kong, and Dordrecht: Springer. Voogt, J. (2008a). Satisfying Pedagogical Practices Using ICT. In N. Law, W.J. Pelgrum & T. Plomp. Pedagogy and ICT use in schools around the world. Findings from the IEA SITES 2006 study (pp 221- 250). CERC Studies in comparative education. Hong Kong: Comparative Education Research Centre, The University of Hong Kong, and Dordrecht: Springer. Voogt, J. (2008b). IT and curriculum processes: Dilemmas and challenges. In J. Voogt, & G. Knezek (Eds.), International handbook of information technology in primary and secondary education (pp. 117-132). New York: Springer. Voogt, J. (submitted). How innovative are ICT-supported pedagogical practices in science education? Education and Information Technologies. |
| Keywords | Educational Technology Science Education Teacher thinking |
| Appendices | |
| Authors | ||||||
|---|---|---|---|---|---|---|
| Name | Surname | Institution | Country | EARLI Number | Presenting | |
| Joke | Voogt | University of Twente | Netherlands | j.m.voogt@utwente.nl | * | |
| Paper type | Empirical |
|---|---|
| Title | A different approach to the integration of ICT in primary education: The school's educational concept as the point of departure |
| Abstract | The fit between teachers’ educational views and the intended classroom use of ICT is increasingly emphasized as a major factor in educational ICT innovation projects. Object of this study are six primary schools that are in the process of reinforcing their use of ICT, taking their educational concepts as main directive of the innovation. We investigate whether this concept-guided approach leads to different types of ICT use and how the resulting ICT use can be characterized. In the course of one school year the schools, with views on teaching and learning that range from ‘traditional’ to ‘highly innovative’, developed and experimented with ICT-enhanced learning arrangements. A multiple descriptive case study was conducted to describe the resulting uses of ICT. Both differences and similarities were found, both between and within the different school types. In this paper we will discuss the most significant differences and similarities and their possible implications. |
| Summary | Over the past few decades large investments have been made in educational ICT infrastructure around the world, increasing the availability and use of computers. Yet many researchers find that the integration of computer use in everyday classroom practice is still rather dissatisfying. Many authors state that the implementation and integration of ICT in educational practices too often doesn’t do justice to the range of potential advantages that educational ICT applications have to offer. This also implies that the effects that these applications are expected to have on student learning are not realized. Different causes for this problem have been described in the literature. One likely cause has been described as so called ‘technological push’ (Ten Brummelhuis, 2006), indicating that the innovations have often started from technological developments and their possible benefits for educational practice in general. As Salomon and Perkins (1996) put it, the innovation may fail because it starts from technological possibilities, rather than from educational ‘desirabilities’. Recently it has been pointed out that types of ICT use that fit the school’s educational concept seem to be more effective in terms of their contribution to students’ learning processes and outcomes (Kulik, 2003; Cox et al., 2004; Ten Brummelhuis, 2006). Others stress that transformation-driven ICT innovation, initiated outside of the school and aimed at transforming educational processes through implementation of ICT, leads to a mismatch between the promoted ICT use and the school’s educational views (Niederhauser & Stoddart, 2001) and to a lack of ownership in teachers whose views are not taken into account in the process. We conclude that to realize the potential of educational technology, the development of ICT use in schools needs to be more strongly linked to the educational practice it is supposed to support, by linking it to the educational views behind this practice. A logical next step is therefore to investigate how this can be done. This descriptive multiple case study therefore focuses on the questions: 1. To what extent does ‘concept-guided’ development of instructional use of ICT in primary schools lead to distinguishable types of ICT use? 2. How can the subsequent ICT use be characterized? At six primary schools, with educational practices based on different educational concepts, teams of teachers were supported for one school yearin designing and integrating ICT-enhanced learning arrangements in line with their educational concepts. The schools’ educational concepts and the ICT use, both as planned and as realized, are described in this study. Three types of educational concepts are represented by the schools that participated in this study, differing mainly on the extent to which the schools adhere to a teacher- or pupil-directed approach and on whether more emphasis is put on either the content or process of learning. On one end of the scale we find two schools that are labelled as ‘traditional’, taking a mainly teacher-directed, content-oriented approach. On the other end we find two ‘highly innovative’ schools that aim at a high level of pupil-directedness and highly emphasise the learning process. The other two schools show a mixture of these extremes. Because of this variation in educational concepts we expected to find a similar variation in the ICT use developed over the course of this school year. In this descriptive multiple case study at these six schools, data were gathered through focus group interviews with the teachers involved in the developing process, questionnaires for teachers measuring their views and practices with regard to education and educational technology, video observations in classrooms, interviews with pupils and teachers, and learner reports. Both differences and similarities were found, both between and within the different school types. The similarities within the school types suggest that the schools were successful in developing ICT use which is linked to their specific educational concept. The ‘traditional’ schools for example both developed relatively straightforward learning arrangements with clearly delineated learning goals focusing on learning content, whereas the moderately to highly innovative schools developed complex ICT-enhanced learning arrangements which aimed at more broadly formulated goals with more focus on the learning process. The similarities between the schools suggest that either the educational concepts represented by the three school types do not differ from each other as much as was expected, or that in the use of ICT the three different approaches are more alike than we expected. For instance, both traditional schools expressed the intention to give their pupils more control over their learning processes through the use of ICT, something that was expected of the more innovative schools but not of the traditional ones. Another similarity we find in the ICT tools that were selected by the schools is that all schools ordered interactive whiteboards to be used in their ICT-enhanced learning arrangements. However, these boards were used in significantly different ways in the different school types. In this presentation we will elaborate on these findings and the factors that may have contributed to them. We will discuss some implications our findings may have for future ICT innovation projects. One important factor found in this study is the support that teachers receive in the development of their own ICT enhanced learning arrangements. Especially the more innovative schools seem to need substantial ICT support – both technical and pedagogical – for developing potentially effective ICT use that fits their educational concepts. References Cox, M., Webb, M., Abbott, C., Blakeley, B., Beauchamp, T., & Rhodes, V. (2004). A review of the research literature relating to ICT and attainment. London: Becta. Kulik, J. (2003). Effects of using technology in elementary and secondary schools: What controlled evaluation studies say. Arlington: SRI. Niederhauser, D.S., & Stoddart, T. (2001). Teachers’ instructional perspectives and use of educational software. Teaching and Teacher Education, 17 (1), 15-31. Salomon, G. & Perkins, D. (1996). Learning in Wonderland: What do computers really offer education? In S.T. Kerr (Ed.). Technology and the future of schooling. 95th yearbook of the National Society for the Study of Education (pp.111-130). London/New York: Routledge/Open University. Ten Brummelhuis (2006). Aansluiting onderwijs en digitale generatie [Connecting education and digital generation]. |
| Keywords | Computer supported Learning Environments Educational Technology Teacher thinking |
| Appendices | |
| Authors | ||||||
|---|---|---|---|---|---|---|
| Name | Surname | Institution | Country | EARLI Number | Presenting | |
| Sandra | de Koster | VU University Amsterdam | Netherlands | s.de.koster@psy.vu.nl | * | |
| Monique | Volman | VU University Amsterdam | Netherlands | mll.volman@psy.vu.nl | ||
| Els | Kuiper | VU University Amsterdam | Netherlands | ej.kuiper@psy.vu.nl | ||
| Paper type | Empirical |
|---|---|
| Title | The relationship between teachers' educational beliefs profiles and classroom use of computers |
| Abstract | The purpose of the study was to explore the relationship between teachers’ educational beliefs and their classroom use of computers. Therefore, a survey of 574 primary school teachers was conducted that focused both on teachers’ educational beliefs and on different types of computer use: “computers as an information tool”, “computers as a learning tool” and “basic computer skills”. Cluster analysis resulted in four distinct teacher profiles, reflecting relatively homogeneous scale scores, based on varying levels of traditional and constructivist beliefs teachers hold about education. Overall results indicate that teachers with relatively strong constructivist beliefs who also have strong traditional beliefs report a higher frequency of computer use. In addition, results point to a specific relationship between teachers’ beliefs profiles and how computers are used in the classroom. For example, teachers with a mainly traditional teaching profile are less likely to use “computers as an information tool” where the emphasis lies on the autonomous interaction between the pupil and the subject domain content. |
| Summary | In order to gain insight into educational changes related to technology, it is necessary to understand teachers’ educational beliefs and their relationship with the use of ICT in the classroom. Many studies with a focus on ICT integration are limited to the impact of technology-related factors.However, there is a growing consensus that the adoption of educational innovations can only be understood taking teachers’ educational beliefs into account (Ertmer, 2005). Teachers’ educational beliefs can be described as teachers’ understandings, premises or propositions about education (Pajares, 1992). Teachers’ beliefs are considered relatively stable and act as a filter through which new knowledge and experiences are screened for meaning (Kagan, 1992). According to Pajares (1992), teachers interpret innovations according to their personal beliefs. Turning our attention to computer use, it can be stated that classroom use of computers does not embody one single pedagogical orientation. In effect, it includes a spectrum of approaches to teaching and learning. For example, Niederhauser and Stoddart (2001) argue that teachers select applications of computers in line with their selection of other curricular variables and processes that fit into their existing educational beliefs. Therefore, it could be argued that ICT integration in education is unlikely to succeed unless we understand teachers’ educational beliefs. To main purposes are related to the present study. A first purpose of the study was the delineation of teacher profiles based on the extent to which they possess traditional and constructivist teaching beliefs. A second purpose was to examine how the different teacher profiles are relate to different types of computer use: “basic computer skills”, “the use of computers as an information tool” and “the use of computers as a learning tool”. Research methods A questionnaire was developed in order to gather information from primary school teachers (N=574) about their educational beliefs and about their use of computers in the classroom. In this study, teachers’ education beliefs were measured by the subdimensions: “traditional teaching” (a = .74) and “constructivist teaching” (a = .68). Both subdimensions are derived from Woolley, Benjamin, and Woolley’s ‘Teachers Beliefs Survey’ (2004). To verify whether profiles in teacher beliefs are related to different types of computer use, an additional instrument (Tondeur et al., 2007) was included in the questionnaire. This instrument synthesises types of computer use in primary education: “basic computer skills” (a = .81), “computers as an information tool” (a = .83) and “computers as learning tools” (a = .77). First, a cluster analysis was performed to identify profiles in the teacher educational beliefs (k-mains clustering procedure). Second, the differential impact of the profiles on types of educational computer use was studied by computing one-way ANOVAs. Scheffe’s post-hoc tests were computed to study specific contrasts between teacher profiles. Results Based on cluster analysis, respondents were distributed among four clusters: 180 were classified as cluster 1 (34%), 140 were grouped in cluster 2 (27%), 171 teachers belonged to cluster 3 (33%), and 32 could be found in cluster 4 (6%). Figure 1 presents the mean scores of the two classification measures of each cluster. Figure 1. Mean scores of the clusters on three types of computer use. In the next step, we included MANOVA to test the differences in computer use statistically. Based on the Wilks’ lambda criterion, the multivariate test shows a significant cluster effect (F(3, 507) = 5.284; p < 0.001). The corresponding ANOVA’s also reveal significant cluster effects: “computer skills” (F(3, 507) = 3.676; p = 0.012), “information tool” (F(3, 510) = 13.535; p =0.000) and “learning tool” (F(3, 510) = 13.535; p =0.000). Figure 2 shows the cluster mean for three types of computer use in the classroom. Figure 2. Mean scores of the clusters on three types of computer use. Discussion Results of the present study indicate a consistent relationship between teacher profiles, based on their educational beliefs, and the frequency of class use of computers. A teacher profile with relatively high constructivist beliefs tends to show a high frequency of educational computer use. This finding is in accordance with earlier research (eg. Becker, 2001). Interestingly, a teacher profile with relatively high constructivist beliefs and also high traditionalist beliefs leads to the most frequent adoption of all types of computer uses. One possible explanation is that, since teachers use computers in ways that are consistent with their personal beliefs, a broader spectrum of educational beliefs might result in a more diverse use of ICT. Furthermore, teacher belief profiles tend to be associated with different types of computer use. This result confirms the importance of examining different types of computer use (Tondeur et al., 2007). Teachers with a traditional teaching profile are less likely to use “computers as an information tool” where pupils are given more degrees of freedom when the computer is used to research and processing information when compared to the two other types of computer use. In addition, teachers with a traditional teaching profile are much more likely to use “computers as a learning tool” as compared to using “computers as an information tool”. For this group of teachers, drill-and-practice activities are more common. It can be suggested that teachers are likely to adopt practices with computers that are in line with their teaching beliefs. Considering this finding, how do we support teachers to integrate ICT in their classroom? It might be useful to design professional development approaches that at least take educational beliefs into account. How to facilitate and support this in a pre- or in-service training approach is less clear, especially for staff developers who are familiar with the development of technical ICT skills. Although some argue that the optimal use of ICT demands a new learning paradigm, we think that staff developers might consider introducing ICT to accomplish that which is already valued. The belief-action relationship must be seen as bi-directional: beliefs lead to actions, which, in turn, lead to the creation of new, reconstructed or reaffirmed beliefs (Haney et al., 2002). In this way, teachers’ practices and belief profiles are continually shaped by their ongoing experience. |
| Keywords | Computer supported Learning Environments Educational Technology Teacher thinking |
| Appendices | |
| Authors | ||||||
|---|---|---|---|---|---|---|
| Name | Surname | Institution | Country | EARLI Number | Presenting | |
| Jo | Tondeur | Ghent University | Belgium | jo.tondeur@ugent.be | * | |
| Ruben | Hermans | Ghent University | Belgium | ruben.hermans@ugent.be | ||
| Johan | van Braak | Ghent University | Belgium | johan.vanbraak@ugent.be | ||
| Martin | Valcke | Ghent University | Belgium | martin.valcke@ugent.be | ||
| Paper type | Empirical |
|---|---|
| Title | Changing teachers' beliefs towards classroom technology use: The potential of problem-based learning |
| Abstract | Pedagogical beliefs are thought to play a significant role in whether/how technology is adopted and implemented by classroom teachers. Furthermore, because of the relative tenacity of these beliefs, it is generally agreed that it is also difficult to influence or change classroom behaviors that are based on these beliefs. This study used a quasi-experimental research design to investigate the impact of problem-based learning (PBL) on teachers’ beliefs regarding technology use (as measured by pre- and post-surveys) and on their intended teaching practices (as measured by pre- and post lesson plans). Participants included 48 preservice teachers enrolled in a 1-credit introductory educational technology course. As expected, survey results measuring teachers’ beliefs showed no significant changes in pedagogical beliefs regarding technology use. However, participants in the treatment group, as compared to the control group, significantly shifted their intended teaching practices from teacher-directed learning to student-centered learning, as demonstrated in four categories: 1) students’ role, 2) curriculum characteristics, 3) learning goals, and 4) types of technology use. Comments from preservice teachers suggested that the instructors’ modeling of PBL influenced the strategies they used in designing their final lesson plans. |
| Summary | Empirical evidence has established the significance of beliefs for understanding teacher behavior (Kagan, 1992). Specific to technology, Niederhauser and Stoddart (2001) described patterns of technology use that were consistent with teachers’ beliefs about curriculum and instructional practice. According to Miller and colleagues (2003), teachers’ beliefs about technology are comprised of three related, but independent components: pedagogical beliefs about teaching and learning, self-efficacy beliefs about technology use, and beliefs about the perceived value of computers for student learning. In a study by Russell, Bebell, O’Dwyer, and O’Connor (2004) these three components were the main predictors of teachers’ classroom technology use. Literature suggests that teachers’ beliefs can be changed through practices that emphasize reflection on one’ personal beliefs, hands-on experiences, and engagement in authentic problems (Ertmer, 2005). As one example of an authentic, hands-on teaching approach, problem-based learning (PBL) offers a potentially effective means for impacting preservice teachers’ beliefs (Derry, Siegel, Stampen, & the STEP team, 2002). PBL enables preservice teachers to recognize different perspectives and encourages them to articulate, defend, or change their current beliefs about classroom practice (Lundberg & Levin, 2003). Purpose The purpose of this study was to examine the impact of problem-based learning on preservice teachers’ beliefs regarding technology use. Specifically, we asked: 1. What is the impact of problem-based learning on preservice teachers’ beliefs regarding technology use? 2. How do preservice teachers’ intended teaching practices change after participating in a technology integration course using a PBL approach? Methods We employed a quasi-experimental research design, using pre- and post-surveys, to investigate the impact of problem-based learning on preservice teachers’ beliefs regarding technology use. Additionally, pre-and post-course lesson plans were used to investigate changes in preservice teachers’ intended teaching practices. Participants and Setting Of the 50 preservice students enrolled in three sections of a one-credit educational technology course, 48 students completed the pre- and post-surveys and 46 completed pre-and post-lesson plans. The course met once a week, for 2 hours, over 8 weeks. Of the three intact sections, two were assigned to the PBL condition and one to the control condition. For the PBL condition, two video clips featuring a middle school principal and school superintendent introduced the authentic PBL task: the administrators wanted to hire new teachers who could integrate technology into their classrooms. Preservice teachers formed groups according to their disciplines and developed artifacts to demonstrate their skills, knowledge, and attitudes towards technology integration. Participants in the control group evaluated instructional multimedia K-12 programs and using a software evaluation form. Data Collection and Analysis Strategies Pre- and post-beliefs were examined via a 54-item survey measuring 1) pedagogical beliefs, 2) self-efficacy beliefs about computer use, and 3) beliefs about the perceived value of computers for instructional purposes. Students rated their levels of agreement (from 1- completely disagree to 7- completely agree) on statements related to these three components. Pre-and post-course lesson plans were analyzed with a rubric to measure changes in intended teaching practices. The rubric addressed 7 categories: 1) teachers’ roles, 2) students’ roles, 3) curricular characteristics, 4) learning goals, 5) types of activities, 6) assessment strategies, and 7) types of technology. Each lesson plan was scored on each category using a 4-point scale (1 = teacher-centered learning, 4 = student-centered learning). The seven category scores were added; possible scores ranged from 7 to 28. Graders were blind to both the experimental condition and the timing of the lesson plan. Results and Discussion Beliefs regarding technology use Results of the survey showed no significant differences between treatment groups on the beliefs survey. This result is not completely unexpected given the relatively short duration of the course. To change preservice teachers’ beliefs regarding technology use, we may need to incorporate student-centered learning approaches throughout the teacher education program. However, it also may be possible that our survey was unable to adequately capture changes in teachers’ beliefs. As Tatto and Coupland (2003) suggested, more than one measurement may be needed over time and across different courses, allowing for triangulation. Intended teaching practices Data from the pre- and post-course lesson plans were analyzed using the rubric developed. First, an ANCOVA was conducted, using total scores from the pre-course lesson plans as a covariate. Results showed a significant difference between groups in the amount of change measured, F(1, 43) = 8.80, p = 0.004, h2 = .67. Overall, participants in the PBL group showed greater change than participants in the control group, moving from a teacher-centered to a student-centered approach. Second, changes in participants’ intended teaching practices were examined for each subcategory using a one-way multivariate analysis of variance (MANOVA). An overall effect of treatment on subcategories was noted: Hotelling-Lawley Trace = .64, associated F(7, 38) = 3.50, p = .0054, h2 = .36. Follow-up ANOVAs indicated significantly more student-centered approaches for PBL students on four subcategories: 1) students’ role (F(1, 44) = 11.37, p = .0016, h2 = .21), 2) curriculum characteristics (F(1, 44) = 14.76, p = .0004, h2 = ..25), 3) learning goals (F(1, 44) = 12.67, p = .0009, h2 = ..22), and 4) types of technology use (F(1, 44) = 23.29, p < .0001, h2 = .35). These results suggest that hands-on activities with a variety of examples, group work, and PBL modeling activities, have the potential to change preservice teachers’ intended practices toward student-centered learning approaches. This is similar to findings by Derry et al. (2002), which demonstrated changes in preservice teachers’ beliefs after participation in authentic hands-on experiences. It is possible that personal involvement in PBL activities enables preservice teachers to gain a clearer understanding of how they might implement student-centered technology use in a classroom setting. This, then, might be the first step toward changing their future practice as well as their beliefs about effective technology use. By helping teachers adopt new practices that are successful, the beliefs associated with these practices may also change. |
| Keywords | Educational Technology Initial Teacher Education (Pre service) Teacher thinking |
| Appendices | |
| Authors | ||||||
|---|---|---|---|---|---|---|
| Name | Surname | Institution | Country | EARLI Number | Presenting | |
| Peg | Ertmer | Purdue University | United States | pertmer@purdue.edu | * | |
| Sung Hee | Park | Ewha Womans University | Korea, Republic of | pertmer@purdue.edu | ||

