This article deals with science content “in the making” and in particular the role of the body in producing scientific phenomena. While accounts of scientists’ work have repeatedly demonstrated, how producing phenomena requires immense amounts of time and effort, involving tinkering and manual labor, this is a little empirically studied content in science education. Seeking to shed light on how the body is involved with materiality to produce physics phenomena, and in what terms this is learning physics content, the article (...) first examines how bodily tinkering is a necessary part of knowing physics through reviewing major accounts of science studies and research in science education. Secondly, drawing on phenomenology and pragmatist ideas, the article examines how students’ bodies need to be educated in the transactional process with material and artifacts to produce phenomena in the context of science learning in lower secondary physics education. Demonstrating that embodied phenomena production is an inescapable part of learning scientific inquiry, and that bodies are just as much a part of the subject physics as conceptual knowledge, we suggest that the education of students’ bodies needs to be made an explicit content. This is important not only for making tacit content accessible to all, but also for addressing epistemological understandings of what science and technology is about. (shrink)

This case study explores students’ physics-related personal epistemologies in school science practices. The school science practices of nine eleventh grade students in a physics class were audio-taped over 6 weeks. The students were also interviewed to find out their ideas on the nature of scientific knowledge after each activity. Analysis of transcripts yielded several epistemological resources that students activated in their school science practice. The findings show that there is inconsistency between students’ definitions of scientific theories and their epistemological judgments. (...) Analysis revealed that students used several epistemological resources to decide on the accuracy of their data including accuracy via following the right procedure and accuracy via what the others find. Traditional, formulation-based, physics instruction might have led students to activate naive epistemological resources that prevent them to participate in the practice of science in ways that are more meaningful. Implications for future studies are presented. (shrink)

In this study we examine the development of teachers’ subject-specific knowledge in technology during a design based research project. In the project a researcher collaborated with two primary school teachers in exploring their students’ learning of technology. Throughout the whole project, the teacher-researcher group worked in an iterative and systematic way to explore the students’ learning. The data draws from the groups’ meetings during the whole project. In order to study the potential learning that was taking place among the teacher (...) team during the course of the teaching project, Practical epistemology analysis was used. During the project the teachers’ expanding knowledge was based on needs of relations between their understanding of the object of learning and their previous teaching experiences, technical terms and real life examples. An important factor explaining the development of the teachers’ knowledge base was the discussion in the group focusing on different aspects, starting with formulating an object of learning, constructing the pre-test, identifying critical aspects and planning and revising lessons. Our study shows that it is possible for primary school teachers to significantly increase their knowledge base in technology and technology education through design-based teaching. (shrink)

There is agreement in research about the need to find better ways of teaching chemistry to enhance students’ understanding. This thesis aims to contribute to the understanding of how we better support teaching and learning of undergraduate chemistry to make it meaningful and intelligible for students from the outset. The thesis is concerned with examining the interactions between student, specific content and teacher in the undergraduate chemistry classroom; that is, the processes making up the three relations of the didactic triangle. (...) The data consists of observations of students and tutors during problem-solving activities in an introductory chemistry course and interviews with graduate students. Systematic analyses of the different interactions between the student, the chemistry content, and the tutor are made using the analytical tool of practical epistemology analysis. The main findings of the thesis include detailed insights into how undergraduate chemistry students deal with newly encountered content together with didactic models and concrete suggestions for improved teaching and for supporting continuity and progression in the undergraduate chemistry classroom. Specifically, I show how students deal with the chemistry content through a complex interaction of knowledge, experiences, and purposes on different levels invoked by both students and tutors as they interact with each other. Whether these interactions have a positive or negative effect on students’ learning depends on the nature of knowledge, experiences and purposes that were invoked. Moreover, the tutor sometimes invoked other purposes than the ones related to the task at hand for connecting the activity to the subject matter in general. These purposes were not always made continuous with the activity which resulting in confusion among students. The results from these analyses were used for producing hypotheses and models that could support continuity and progression during the activity. The suggested models aim to make the content more manageable and meaningful to students, enabling connections to other experiences and purposes, and helping teachers and tutors to analyze and reflect on their teaching. Moreover, a purpose- and activity-based progression is suggested that gives attention to purposes in chemistry education other than providing explanations of chemical phenomena. The aim of this ‘progression in action’ is to engage students in activities were they can see the meaning of chemical concepts and ideas through their use to accomplish different chemical tasks. A general conclusion is that detailed knowledge about the processes of teaching and learning is important for providing adequate support to both undergraduate students and university teachers in the chemistry classroom. (shrink)

This thesis considers the role of aesthetic meaning-making in elementary school science learning. Children’s aesthetic experiences are traced through their use of aesthetic judgements, spontaneous metaphors and art activities. The thesis is based on four empirical studies: the first two examining children’s language use, i.e. the role of aesthetic judgements and the significance of spontaneous metaphors while learning science and the latter two dealing with how art activities mediate what elementary school children learn in science and what a variety of (...) art activities with different purposes afford elementary school children to learn in science. The theoretical stance emanates from pragmatist theories and includes Dewey’s definition of an aesthetic experience, Wittgenstein’s later work on language-games, and socio-cultural perspectives. The analytic approach used is a practical epistemology analysis developed by Wickman and Östman. The empirical data consists of audio- and video recordings of elementary school children’s (aged 6–10 years) discussions in pairs or small groups during science lessons and photographs of children’s pictures, sculptures and poems from a total of 14 different elementary school classes. The main findings of the empirical studies show how aesthetic meaning-making is continuous with elementary school children’s scientific learning. The thesis shows how elementary school children’s aesthetic experiences are related to whole activities and are crucial for the direction that learning takes. Aesthetic experience is important in terms of how and what elementary school children learn aesthetically and normatively in science class, which has consequences for cognitive learning, the possibility of participating in science class and learning the genre of science. Moreover, it can be seen how children’s prior experiences are recurrently reconstructed and transformed through imaginative processes. (shrink)

Here we discuss the role of Computational Thinking, Engineering Education Epistemology, Computational Science Education and the integration of Arts with STEM in education and more generally in learning and teaching approaches and learning objectives. We present arguments from research articles and we propose activities that support our model for Computational STEAM Pedagogy. The purpose of the literature review is to outline research studies in the different forms of STEAM integration and to highlight how CT, EEE, CSE and Arts can be (...) used in this integration and what epistemology can support this holistic approach. The main objective is to summarise what is currently known about the STEAM approaches and to add to the existing literature with a primary model which connects EEE with the Computational pedagogical knowledge mode. The bibliography presents materials covering theoretical considerations around Computational Thinking, Engineering Epistemology, STEM Epistemology, Computational Science in Education and Arts in STEAM. Literature review was conducted using several web-based search engine tools like Web of Science, Google Scholar and open Google searches. (shrink)