In this paper, we offer three examples from our research projects on both technological and pedagogical innovations to illustrate the impact of rapid technology changes on research. Members of our research team both developed and used technology applications in their research projects, utilizing design-based research (DBR). During the experiments, we encountered new challenges by the end of the research cycle due to updates in technologies. Although we had an idea of how to redesign the project for the next cycle based on the analyses of data, we noticed that we needed to not only redesign our approaches based on the research results but the changes in technologies were so rapid that materials and pedagogies needed to be altered as well. In our article, we propose an additional aspect to be considered in DBR while researching technology integration or innovative technologies. Moreover, the rapid change in technology raises further challenges to teachers’ professional development and the integration of those innovative technologies in classrooms. We anticipate our work to contribute to the development of technology resources and related pedagogies as well as the refinement of research methodologies in technology environments. Our contributions for the development of technology resources and refinement of research methods in technology-supported learning environments should, among other things, contribute to a less complex and at the same time more sustainable integration of pedagogical innovations into scientific and school practices.

There is a large amount of research that indicates that the use of 3DMP in STEM education improves students’ knowledge, motivation, and participation in the learning process. Nevertheless, despite the existing attempts to market 3DMP in education, its adoption in schools remains low. A number of studies with teachers in secondary schools and colleges indicate that teachers’ perceptions of 3DMP are one of the key factors for its successful use. However, to our best knowledge, there is no research that examined STEM upper primary school teachers’ perception on 3DMP. Through phenomenographic approach, this study is seeking to address the existing gaps. Four conceptions of 3DMP teaching emerged: (1) 3DMP as tools for classroom modernization; (2) 3DMP technical and software characteristics’ impact on implementation; (3) 3DMP as a tool for learning and improvement in teaching; (4) 3DMP and students’ professional orientation, teachers’ professional development. These four categories are connected by five key aspects of variation: impact on students, impact on teachers, classroom activity management, authenticity, subject-curriculum matters. The results of our study indicate that the mathematics and science teachers have a more sophisticated opinion on 3DMP than teachers of technical education, engineering, and informatics who mostly require additional training when it comes to using 3DMP in STEM education. Comparatively, science and mathematics teachers need support with implementation of software and 3D printers as a technical tool. Considering that this study’s teachers were early adopters of 3DMP, any future research should explore conceptions of experienced users.

Contemporary education adopts various new visualisation techniques for content to be learned. Recently, research on the application of 3D modelling and printing (3DMP) has been expanding. However, as the latest literature reviews indicate, little research is available on the contribution of 3DMP to learning of students with blindness (SWB) and students without disabilities (SWOD). This research aims to fill the gap through an exploratory case study, conducted in an inclusive Biology classroom in a primary school. Eight SWOD and four SWB (12 years old) participated in the study. The focus of the research was on pre-interventional and post-interventional students’ knowledge about cells, and students’ views on using 3DMP in Biology education. The data was analysed using Grounded Theory. The results indicate that 3DMP contributes to students’ learning by improving the ability to enumerate, describe, and visualise the cell and its parts, by remediating some of the students’ misconceptions and by increasing communication within a classroom. In terms of encountered obstacles, SWB noted that the quality of 3D models could cause new misconceptions. Adjusting the ratio, positioning and scaling of printed objects, inaccuracy in printing, and long printing process, are some of the problems which students encounter in 3DMP.

According to the theoretical frameworks and teaching practice, the constructs of the Technology acceptance model - TAM and the Cognitive load theory - CLT are in a close cause-and-effect relationship, and gaining insights into this issue is essential for educators. Our study aimed to examine continuous teaching intention (CTI) with emerging technologies (ET) through perceived usability (PUS), attitudes towards teaching (ATT) and perceived cognitive load (PCL) from the aspect of teachers’ perceptions. A survey research design using a cross-sectional survey technique was applied. The research involved 801 primary and lower secondary school teachers. Results showed that the TAM-CLT scale model is aligned and fits the overall sample well. In addition, teachers’ PUS can be a crucial factor in shaping ATT and CTI of ET because this construct positively influences these variables underlining the importance of designing user-friendly ET. However, our study reveals the lack of a significant negative relationship between teachers’ PCL and PUS, and the absence of mediation between PCL and CTI through PUS. These unexpected findings highlight the complexity of users’ experiences with ET and the need for a more nuanced understanding of the interplay between these constructs. One of the implications of our study refers to further investigation of the underlying mechanisms between PCL, PUS, and CTI. Other recommendations are stated in the discussion.

Societal Impact Statement: Without a robust construct, it is currently difficult for researchers to systematically assess and facilitate a societal shift toward greater plant awareness. Using a Delphi study, we take a first step towards such construct by developing a definition and testable dimensions. This paper proposes a first expert validated definition and three distinct dimensions that allow researchers to assess plant awareness and to identify and compare key influences on the construct across different socio‐cultural groups. With this improved framework, research can support initiatives to promote plant awareness in society, a critical step in addressing challenges such as the climate crisis.Summary: Research on plant blindness, plant awareness disparity, and plant awareness is currently separated using different terminologies. Having different terms for the same construct is disadvantageous for research, as ambiguous constructs can lead to important research being overlooked. In this study, we aim to provide a solution to this challenge by applying a Delphi study to integrate previous concepts into the new comprehensive construct of plant awareness. Delphi is a state‐of‐the‐art method for reaching reliable expert consensus on multidisciplinary issues with its key features of anonymity, iterative questioning and feedback. Focusing on the methodology, we provide a transparent, and detailed, overview of how we applied this method to reach consensus on the plant awareness construct. As an outcome of our Delphi study, we provide an expert validated definition of plant awareness that is based on previous constructs, research, and expert consensus. This definition constitutes three key dimensions: attention, understanding, and attitudes. Experts found consensus on these three dimensions, their definition, and how increased plant awareness is expressed in relation to each of the dimensions. Finally, we identified several factors that are key to raising plant awareness. This validated definition alongside the differentiation of the three dimensions not only assists comprehension of previous research but for the first time opens the possibility of developing a valid and reliable tool to assess an individual's plant awareness. Therefore, this study significantly contributes to promoting research on plant awareness and consequently, towards fostering plant awareness as a common global goal.

This research aimed to determine the effectiveness of applying instructive simulation experiments (SE) to the development of deeper conceptual understanding, retention of static electricity contents, and engagement of 4th-grade students. The correlation between student achievements and engagement was examined. 76 4th graders (10–11 years) were assigned to one of the groups: direct – DI + SE (DSE) and indirect instruction – II + SE (ISE) group. The results indicate that the ISE group showed significantly better achievements on the highest cognitive level compared to the DSE group. The application of SE had a significantly greater impact on the perceived behavioral, cognitive, and agentic engagement of the ISE group compared to the DSE group. A positive correlation was observed between student engagement and achievements.