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The use of makerspaces in Norwegian compulsory education is growing. However, using makercentred learning to support creativity has yet to be examined extensively in the Norwegian context. Consequently, the aim of this research is to explore Norwegian makerspace teachers' conceptions of the use of maker-centred learning to augment creative capabilities and digital competences. The study focuses on teachers' understandings of creativity and makerspaces along with various aspects of maker-centred learning and how they support creativity. The data was collected via six semi-structured interviews with teachers working in school-based makerspaces. In the interviews, the teachers conceptualised creativity related to makerspaces and reflected on various pedagogical aspects of managing creative makerspace activities. The research indicates that teachers have similar understandings of makerspaces but different interpretations of creativity. As a result, the makerspaces are designed differently, and the teachers use a variety of teaching methods. The findings also indicate that the teacher must be able to change their role from being an instructor to a facilitator and observer while also managing the utilised technology. Digital technology, collaboration, and constraints were also found to be factors that supported students' creativity. [ABSTRACT FROM AUTHOR]

Abstract The study examines students’ disciplinary learning in physics and interdisciplinary science learning opportunities that students encounter during a collaborative invention project. Thirteen student teams (aged 11 to 12, N = 46) designed and constructed a prototype of a technology invention meant to solve one of the challenges students face in daily life. The data was collected from a physics achievement test taken both before and after the invention project and artifacts (student essays and process portfolios) that students constructed during the project. Seven inventions were categorized as physics-intensive and six as non-physics in nature. The change in students’ achievement prior to and after the invention project was rather modest, and the increase was related to the level of physics-intensity of the inventions made during the project. However, the process portfolios revealed various interdisciplinary science learning opportunities and physics learning that could not be identified with the achievement test. Further, the co-occurrence analysis revealed several interdisciplinary learning opportunities that connected physics contents to the interdisciplinary themes. Working with varied materials and technologies and experimenting with them enabled the students to ponder different science topics and perhaps deepen their understanding through creative problem-solving. We conclude that such collaborative invention projects challenge teachers to take an active role in designing invention challenges so as to more explicitly interlink students’ invention processes with science learning. In order to foster students’ science learning opportunities, teachers should intensively evaluate each student-team’s learning throughout the project and use portfolios to reflect on and scaffold their science learning systematically.

The study examines students' disciplinary learning in physics and interdisciplinary science learning opportunities that students encounter during a collaborative invention project. Thirteen student teams (aged 11 to 12, N = 46) designed and constructed a prototype of a technology invention meant to solve one of the challenges students face in daily life. The data was collected from a physics achievement test taken both before and after the invention project and artifacts (student essays and process portfolios) that students constructed during the project. Seven inventions were categorized as physics-intensive and six as non-physics in nature. The change in students' achievement prior to and after the invention project was rather modest, and the increase was related to the level of physics-intensity of the inventions made during the project. However, the process portfolios revealed various interdisciplinary science learning opportunities and physics learning that could not be identified with the achievement test. Further, the co-occurrence analysis revealed several interdisciplinary learning opportunities that connected physics contents to the interdisciplinary themes. Working with varied materials and technologies and experimenting with them enabled the students to ponder different science topics and perhaps deepen their understanding through creative problem-solving. We conclude that such collaborative invention projects challenge teachers to take an active role in designing invention challenges so as to more explicitly interlink students' invention processes with science learning. In order to foster students' science learning opportunities, teachers should intensively evaluate each student-team's learning throughout the project and use portfolios to reflect on and scaffold their science learning systematically. [ABSTRACT FROM AUTHOR]