Problem Statement: We live in an industrialized world that requires effective use of science and technology. Such world demands a labor force that has the capability of identifying, adapting, and utilizing scientific and technological...
moreProblem Statement: We live in an industrialized world that requires effective use of science and technology. Such world demands a labor force that has the capability of identifying, adapting, and utilizing scientific and technological knowledge for developing unique technologies (Kennedy and Odell, 2014). Despite the growing need, the number of people who prefer science, technology, engineering and mathematics (STEM) as a profession in the universities in the United States, Europe and Australia has been decreasing day by day (National Research Council [NRC], 2012). Similar problems are also emerging in Turkey. Therefore, it has gained importance to raise individuals and employees equipped with STEM related knowledge and practices. One and the most agreed upon learning experience is an interdisciplinary approach that incorporates engineering design with the practical applications of science. With this in mind, this study aimed at pre-service chemistry teachers who will teach chemistry in the future. In order to educate experienced and knowledgeable teachers at the point of emphasizing teaching and applying different disciplines and areas together, this study provided a six-week training session on what STEM training is and how it should be done. Purpose of the Study: The purpose of the present study is to investigate pre-service chemistry teachers’ ideas about four activities prepared in light of Science, Technology, Engineering and Mathematics (STEM) integrated approach. Method(s): In this study, a case study research methodology was used. The sample of this study consisted of 13 pre-service chemistry teachers who enrolled in Teaching Method Course II. During the course, pre-service teachers participated four activities based on integrated STEM approach. In the application of the activities, design approach model suggested by Wheeler et al. (2014) was used. Data were collected through reflection papers after each activity by asking participants to write about the contribution of the activity, the most informative part of the activity, and the hardest part of the activity. The data were analyzed through content analysis, descriptive analysis, and constant-comparative method. Findings and Discussions: The findings of the data analysis are summarized under three headings: (1) contribution of STEM activities to pre-service teachers, (2) the most instructive part of the activities and (3) the most difficult part of the activities. Participants stated that activities provided important contributions regarding interdisciplinary view, and recalling chemistry subject matter knowledge and reinforcing them. In addition, the results of this study indicated that most of the activities have positive contributions to the interdisciplinary perspectives of the pre-service teachers, to their ability to relate chemistry subjects to everyday life, and to address the problems they face with an inquiry approach. Therefore, STEM activities can help pre-service teachers earn the basic principles of science education, as activities encourage them to learn through inquiry and research. Moreover, STEM activities are expected to contribute to the cultivation of individuals who are able to solve their daily problems and contribute to the needs of society by providing students with the opportunity to integrate different disciplines and focus on research, design, problem solving and teamwork skills to solve real life problems. These results are in line with other results in the field (Aslan-Tutak, Akaygün & Tezsezen 2017; Eroğlu & Bektaş, 2016). Participants also specified that research for designing and design steps are the most informative steps. Besides, it has been determined that the presentation and evaluation stages of the products presented are also instructive because they allow them to see their own deficiencies and see other ideas. The study conducted by Bozkurt-Altan, Yamak and Buluş-Kırıkkaya (2016) also revealed that these processes were evaluated by pre-service teachers as positive aspects of design-based science education. Finally, regarding the most difficult part of the activities, they mentioned that it was hard to decide the materials used, decide how to design, and research for necessary knowledge. Conclusions and Recommendations: In order for the STEM approach to be implemented in schools, priority should be given to teacher education. As teacher educators, training teachers who understand STEM approach and its importance, and experienced it should be our priorities. At this point, it would be useful to provide elective courses based on design, creativity and engineering to teacher training programs. When previous experiences were considered, participants were forced to not use the acquired knowledge to make product or design. Therefore, these difficulties can be overcome with the presentation of the mentioned courses. In addition, in order to solve the problem of time constraint in general, the application of such activities as after-school program will reduce the concerns of the participants about their grade, and help them design and develop a product without worrying about time.