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The impact of global mobility and technology innovations on urban linguistic diversity poses a key challenge to understand how and to what extent international students are immersed in the target language. Such diversity of languages and modes of communication has pointed to a fundamental transformation in the way that international students interact with both online and offline resources. The translingual practices of Chinese international students presented in this study suggest that, instead of being a language learner in an English-dominant country, these students make use of but go beyond their full repertoires to conduct various online and offline activities when living in a translanguaging space. An evaluation of both online and offline practices demonstrates how their online translingual practices were merged into offline contexts, to create opportunities for learning and social engagement. Understanding international students' experience with both online and offline resources provides useful insights into the translingual practices and processes adopted by them when living and studying in a multilingual city.

Coding is increasingly popular in schools around the world and is often taught by non-specialist teachers as an integrated task with other subject areas. In this article, we explore the relationship between computer science (CS) concepts and students' multimodal expression in a coding animated narrative (CAN) task in the context of an integrated English-Technology unit of learning. Through this collective case study, we explore how CS concepts underpin semiotic elements of an animated narrative, analyse the factors that influence the extent to which students exercise those concepts, and reveal the tensions and opportunities that a CAN task may present for learning computer science concepts in regular, non-specialist, cross-curricular classrooms. The findings suggest that CAN tasks are unique in presenting opportunities for students to learn challenging CS concepts such as synchronisation and parallelism. At the same time, CAN tasks present tensions for teaching CS concepts in non-specialist classrooms, where student projects are often judged on their visual qualities. In such settings, procedural, rather than conceptual knowledge, may be a more efficient route to creative outcomes. It also means that drawing skills need to be prioritised. Role specialisation often led to better quality projects but at the expense of individual students' conceptual development in computer science.

This study explored school principals' and teacher educators' perceptions of STEM education based on how they described STEM as a discipline, their understanding of the nature of teaching and learning of STEM, and the capabilities of a STEM-educated person. Data were generated through the Draw a STEM Learning Environment (D-STEM) instrument comprising drawn and written descriptions where participants drew a picture of a STEM learning environment and completed five prompt statements about what STEM is and how an individual develops personal STEM capability. The Legitimation Code Theory (LCT) specialization codes were used for data analysis (198 individual response items in total) to understand how the participants perceive STEM education. Almost half the participant responses indicated knowledge-code perceptions with a smaller but significant number (approximately a third of responses) indicating knower-code perceptions. The remaining responses showed élite-code perceptions, indicating a small proportion of participants valued the development of both disciplinary knowledge/practices and generic skills/attributes in STEM education. We posit that curriculum structure and reporting requirements influence these perceptions. Further research in relation to the influence of such understandings on enacted curriculum is warranted.

Improving young people's engagement in science, technology, engineering and mathematics (STEM) is being promoted worldwide as a means of addressing projected shortfalls in expertise needed to further nations' economic, social and environmental goals. Responding to this, schools are reforming traditional discipline-based curricula into interdisciplinary approaches based on problem and project-based designs, to make STEM learning more relevant and meaningful for students. This study drew on a dataset of 449 Australian principal and teacher interviews, to identify factors influencing STEM curriculum in their schools. It utilised Ecological Systems Theory to build understanding relating to the influence of activities and outputs originating at macro, exo and meso system levels, on STEM curriculum and practices in classrooms. Results demonstrated how many innovative schools were able to successfully leverage community, business and national resources to enhance their STEM curriculum, while others struggled due to limitations imposed by geographic or socio-economic factors, or limited access to resources, expertise or advice. Central to achieving this was the powerful influence of principals' and teachers' "proximal processes" and "developmental assets" in establishing effective and engaging interdisciplinary STEM curricula, despite constraints imposed by, at best, ambiguous national and state curriculum and policies, rigid assessment regimes and compliance-focused reporting requirements.

Makerspaces are recent additions to schools and have been promoted as a means of developing STEM knowledge and skills. According to literature, the practical nature of making supports deeper engagement with STEM concepts and enhances development of STEM capabilities such as creativity, critical thinking, problem solving and collaboration. However, to date, limited empirical work has been completed investigating STEM learning in school makerspaces. This article reports outcomes from a study of 24 classroom makerspaces, where 5-8-year olds used 3D printing technology to design and develop artefacts responding to different problems, needs and opportunities. Findings were mixed, with evidence supporting makerspaces as effective for STEM skill and disposition development but more limited in their capacity to build STEM knowledge, unless this was explicitly identified and targeted by teachers. This paper questions assumptions about makerspaces as implicitly effective for STEM knowledge-building, arguing that teachers must specifically target conceptual outcomes in planning and teaching if makerspaces are to be effective for this purpose. Also, findings suggest the need to rethink how makerspaces contribute to holistic STEM literacy development, moving beyond current perspectives focused on learning "about" STEM, to one where makerspaces are viewed as "epistemic environments" beneficial to knowledge-building, "of" STEM. Findings will be of value to educators considering makerspaces as a component of STEM curriculum and infrastructure development.

The Principals as STEM Leaders (PASL) project was an Australian Government-funded national research and professional learning programme for principals, aimed at building STEM leadership capacity. The project involved cluster-based delivery of six learning modules and generation of case studies outlining schools' different approaches to STEM education and STEM leadership. This article analyses factors contributing to the development of four contrasting schools' STEM profiles, identifying the unique approaches and leadership strategies each adopted in designing STEM curriculum for meeting the learning needs of their diverse students. It positions these schools' endeavours within the broader PASL professional learning programme, adding to the limited body of empirical work detailing different approaches schools take to the "STEM challenge," which, for most, presents a disruptive innovation to traditional curriculum and structures. The vital role of school leaders in communicating a clear, evidence-based vision for STEM and also "walking the talk" and being highly engaged in STEM programmes, was a common feature across the cases. This built relational trust, and a strong whole-ofschool commitment to and understanding of STEM, to some extent mitigating the challenges of rigid curriculum and external assessment requirements. The study highlights the complex interaction of professional learning, leadership.

Research Findings: This study was undertaken to investigate learning processes and outcomes from using 3D design and printing technologies with children aged 5-8 years, in three schools in a metropolitan city in Australia. Data were collected from five sources (teacher interviews, surveys, journals; student interviews; and iPad screen recordings) and analyzed to identify themes responding to the question: What is the nature of students' learning and learning processes in technology-enhanced Makerspaces? Findings report the perspectives of teachers and students, supplemented by screen recordings from the iPads. Students were found to have significant engagement in learning through involvement in these technology-enhanced Makerspaces, and to have developed skills and understanding in a number of areas including: digital technical proficiency, design thinking, problem solving, critical thinking, collaboration, and communication. Findings are conceptualized using a research-informed Maker Literacies Framework, to better understand the nature of students' learning and work processes while engaged in these environments. Practice or Policy: Findings imply that Makerspaces with 3D design and printing could be used to promote young children's STEM literacies although teachers need to be mindful of the need to explicitly plan for and teach important STEM concepts, if learning in these disciplines is a goal.

Over the years, a variety of frameworks, models and literacies have been developed to guide teacher educators in their efforts to build digital capabilities in their students, that will support them to use new and emerging technologies in their future classrooms. Generally, these focus on advancing students' skills in using 'educational' applications and digitally-sourced information, or understanding effective blends of pedagogical, content and technological knowledge seen as supporting the integration of digital resources into teaching, to enhance subject learning outcomes. Within teacher education institutions courses developing these capabilities are commonly delivered as standalone entities, or there is an assumption that they will be generated by technology's integration in other disciplines or through mandated assessment. However, significant research exists suggesting the current narrow focus on subject-related technical and information skills does not prepare students adequately with the breadth of knowledge and capabilities needed in today's classrooms, and beyond. This article presents a conceptual framework introducing an expanded view of teacher digital competence (TDC). It moves beyond prevailing technical and literacies conceptualisations, arguing for more holistic and broader-based understandings that recognise the increasingly complex knowledge and skills young people need to function ethically, safely and productively in diverse, digitally-mediated environments. The implications of the framework are discussed, with specific reference to its interdisciplinary nature and the requirement of all faculty to engage purposefully and deliberately in delivering its objectives. Practical suggestions on how the framework might be used by faculty, are presented.

In recent years, arguments have signalled the value of STEM education for building discipline knowledge and an array of capabilities, skills and dispositions, aligned with the needs of young people functioning productively and ethically in dynamic, complex and challenging future work, social and political environments. This combination has been termed "STEM literacy" and positioned as a desired outcome from STEM education programs. However, knowledge is limited on ways this can be developed in K-12 schools. This article introduces a framework that conceptualises the integrated nature of the characteristics of STEM education. It identifies and maps key characteristics of STEM education, recognising different entry points, curriculum designs and pedagogical strategies for school programs. The framework provides practical guidance for planning and implementing STEM education in schools.

Research has explored the use of simulations for education and training, and attention is turning to how they might support learning in school subjects such as mathematics and science. However, existing studies have mostly concentrated on older students, and if simulations help build knowledge useful for solving problems "within" the simulation, rather than possible transfer "beyond" the simulation. This paper reports on a study investigating 5 year olds' learning transfer from simulations introducing simple circuit procedures and concepts, to equipment-based tasks. The study explored for evidence of learning transfer, using an analytical framework that aligned transfer strategy indicators with cognitive process dimensions, to identify transfer events and understand the thinking skills students applied during them. Findings supported the learning value of simulations, indicating young students transferred procedural knowledge to the equipment tasks, with some also demonstrating basic conceptual transfer. They also suggested transfer tasks can provide opportunities to exercise higher order thinking, through activating processes including reflection, evaluation, analysis and abstraction. Such capabilities are highly valued, and central to school achievement and development of learner independence and self-direction.

This paper will focus on children's views on their making and design capabilities. There is a paucity of research investigating learning in makerspaces particularly for younger children. Theoretical ideas based on constructionism (Papert), Vygotsky (socio-constructivism) and Dewey's pragmatic, inquiry based and reflective learning underpin this study. Fourteen group interviews were conducted with 34 young children (five to eight years old). Their responses were inductively and thematically analysed. Children provided rich insights into new pedagogical approaches, like makerspaces, and identified challenges with the use of the digital tools (3D App and 3D printers). Children enjoyed directing their own learning and viewed their experiences as creative. This research will advance knowledge on how makerspaces and design thinking skills can be integrated in early childhood and early primary education.

Makerspaces have been heralded as an effective way to support the development of 21st Century and STEM capabilities, yet there is a paucity of systematic, multiple-case analysis to guide educator and researcher practice. This collective case study examined 24 primary school classroom contexts to understand what supports and constrains learning and teaching in technology-oriented makerspaces. Thematic analysis of 24 teacher in-situ reflective journals and focus group interviews of all teacher participants revealed 19 supports and 11 constraints, relating to pedagogy, task design, learner attributes, technological factors, the school environment, and teacher capabilities and beliefs. These were used to form an evidence-based framework for learning and teaching in makerspaces. Findings are discussed in relation to previous research which has tended to be anecdotal and based on single cases. Implications for future teaching, research and policy initiatives are also detailed.

Makerspaces embody a growing movement of educators promoting constructionist learning with physical materials and digital technologies such as 3D design and 3D printing. As it gains traction in K-12 settings, the maker movement represents an interesting context in which to explore how professional ecologies can equip teachers with the knowledge, skills and dispositions needed to implement twenty-first century learning in their school context. This study investigated the roles of different participants from industry, school leadership and colleagues in influencing teachers' confidence, enthusiasm, capabilities and beliefs when teaching in makerspaces. Utilising triangulated observations of activities through online questionnaires at beginning, middle and end points, as well as postproject interviews, the study explored the participation of 27 primary school teachers in a blended professional learning programme, followed by classroom delivery of modules focusing on tablet-based 3D design applications and the use of newly instaled 3D printers. Reporting no prior knowledge or experience with makerspaces, quantitative analyses revealed significant increases in teachers' confidence and enthusiasm. Qualitative analyses of questionnaire and interview data underscored the influence of hands-on and theoretically grounded professional learning providing practical exposure to constructionist ideas, design thinking methodologies and 3D design technologies. Findings reveal the importance of targeted professional learning coupled with a substantial collegially supported implementation phase, as well as support from school leaders and industry partners to promote meaningful pedagogical change in technology-mediated maker-based learning.