Engineering education for primary school students

There have been a number of recent state and national reports noting the reduction in the numbers and calibre of students seeking to enter engineering education. Contributing reasons identified for this include the poor image of the profession generally, and that engineering is poorly understood in schools. The recent review of science and technology in primary schools identifies that primary school science and technology education needs to be improved, and that technology education is given significantly less time than science education in primary schools. It is clear that there are no short-term solutions to increase the number and calibre of engineering undergraduates. Improvements will only come when the community at large is better informed about the nature of engineering, and values more highly the contributions of the profession. This paper reports on a state-wide, Victorian engineering awareness competition organised by the Geelong Group of the IEAust in 1996. The results of the awareness competition are presented and its effectiveness is evaluated. Further consideration is given to factors contributing to career choice and the time at which students begin making this decision.

Teaching and learning about force with a representational focus : pedagogy and teacher change

A large body of research in the conceptual change tradition has shown the difficulty of learning fundamental science concepts, yet conceptual change schemes have failed to convincingly demonstrate improvements in supporting significant student learning. Recent work in cognitive science has challenged this purely conceptual view of learning, emphasising the role of language, and the importance of personal and contextual aspects of understanding science. The research described in this paper is designed around the notion that learning involves the recognition and development of students’ representational resources. In particular, we argue that conceptual difficulties with the concept of force are fundamentally representational in nature. This paper describes a classroom sequence in force that focuses on representations and their negotiation, and reports on the effectiveness of this perspective in guiding teaching, and in providing insight into student learning. Classroom sequences involving three teachers were videotaped using a combined focus on the teacher and groups of students. Video analysis software was used to capture the variety of representations used, and sequences of representational negotiation. Stimulated recall interviews were conducted with teachers and students. The paper reports on the nature of the pedagogies developed as part of this representational focus, its effectiveness in supporting student learning, and on the pedagogical and epistemological challenges negotiated by teachers in implementing this approach.

A curriculum innovation framework for science, technology and mathematics education

There is growing concern about falling levels of student engagement with school science, as evidenced by studies of student attitudes, and decreasing participation at the post compulsory level. One major response to this, the Australian School Innovation in Science, Technology and Mathematics (ASISTM) initiative, involves partnerships between schools and community and industry organisations in developing curriculum projects at the local level. This project fulfils many of the conditions advocated to engage students in learning in the sciences. ASISTM is underpinned by the notion of innovation. This paper describes the findings of case study research in which 16 ASISTM projects were selected as innovation exemplars. A definition of innovation and an innovation framework were developed, through which the case studies were analysed to make sense of the significance of the ideas and practices, participating actors, and outcomes of the projects. Through this analysis we argue that innovation is a powerful idea for framing curriculum development in the sciences at the local level that is generative for students and teachers, and that these ASISTM projects provide valuable models for engaging students, and for teacher professional learning.

Stories of reform in science education : commentary on opp(reg)ressive policies and tempered radicals

This response to the two papers (by Rodriguez and Carlone et al.) on science education reform acknowledges first the coherence of the arguments presented around four reform narratives; that of the process of becoming science-enthusiastic, the nature of beliefs of science reform teachers, the barriers to reform, and the institutional expressions of these barriers. In the commentary I first discuss the reform ‘problem’ in terms of two interacting issues—the purposes of school science and the value placed on it in an elementary school curriculum. The insights produced in these papers are then used to reflect on a range of experiences and current policy debates in Australia. Finally, in this commentary, I point out: (a) the relationship of the papers to the reform issue of opposition to Standards Based Science (SBS) from proponents’ traditional conceptions of science education, discussing how this more specific reform question relates to the two papers; and (b) the singular nature of the I-meanings characterised in the Carlone et al. paper, describing (using Australian examples) how the notions of tempered radicals and I-meanings might also be used to characterise complexities in the processes of school science reform.

Exploring the Australian Science Curriculum : A way forward?

There is considerable international concern about science education based on the number of students engaged with science and mathematics, and research showing student disenchantment with school science curricula. ln this presentation I will trace through a history of concerns with school science, and describe the recommendations and curriculum responses to these concerns internationally and particularly in Australia. The new Australian Science Curriculum is based around ideas related to scientific literacy and inquiry curriculum, and includes science inquiry skills and science as a human endeavour' as major strands. I will describe the features of the course and raise the question - does it represent a productive way forward? The various aspects of the course are related to current directions in science education research, and examples will be given of my own involvement in national curriculum initiatives, into school-community links, and Deakin research into a pedagogy that focuses on student generation of representations, as examples of ways forward for improving student engagement with learning science.

Values in science, environmental education and teacher education

The aim of this chapter is to establish values as a key component of science and environmental education, consistent with the troika framework, and to explore the implications of this for teacher education. In the chapter, we review research that has increasingly placed values at the centre of the process of learning science, and central also in framing students' responses to school science. We then present findings from three projects that explore the relationship of values to teaching and learning science: first, an exploration of the pedagogies of effective teachers of science; second,an environmental education project in which students explore science and sustainability ideas in the context of a community exchange program in Mexico and Alaska; and, third, a teachcr education initiative focused on place-based education. In the chapter, we argue that learning science and engaging with the environment entails pedagogies that link conceptual learning, values and community.

Promoting accomplished science teaching through pedagogical research

In this paper we will examine Shulman’s notion of signature pedagogies for its usefulness extended to school science, to analyse a representation-intensive pedagogy that lays claim to bringing school science closer to the knowledge building practices of science itself. Two case studies of teaching and learning will be presented based on research in primary and secondary schools that involved working closely with teachers to develop and validate the pedagogy. Video images of classrooms, interviews with students and teachers, and documentation of students’ work, were used to construct insights into the teaching and learning process. It is argued that Shulman’s notion of professional practice as involving apprenticeships of knowledge, practice and identity provides a useful lens through which to view this innovation. Shulman’s characterisation of signature pedagogy is used to identify key features of the approach.

Teaching primary science : emotions, identity and the use of practical activities

This paper uses cultural historical activity theory to examine the interactions between the choices primary teachers make in the use of practical activities in their teaching of science and the purposes they attribute to these; their emotions, background and beliefs; and the construction of their identities as teachers of science. It draws on four case studies of science lessons taught over a term by four exemplary teachers of primary science. The data collected includes video recordings of science lessons, interviews with each teacher and some of their students, student work, teachers’ planning documents and observation notes. In this paper, we examine the reflexive relationship between emotion and identity, and the teachers’ objectives for their students’ learning; the purposes (scientific and social) the teachers attributed to practical activities; and the ways in which the teachers incorporated practical activities into their lessons. The findings suggest that it is not enough to address content knowledge, pedagogy and pedagogical content knowledge in teacher education, but that efforts also need to be made to influence prospective primary teachers’ identities as scientific thinkers and their emotional commitment to their students’ learning of science.

Representing and learning in science

In this book we argue for an approach to representational work in school science learning and teaching that engages participants, is epistemologically sound, aligns with knowledge-building practices in the discipline, and draws on extensive classroom study. We review in this chapter current research agendas around student representational work in science learning, including the assumptions, rationale and research practices of these agendas. We do this (a) to clarify precisely what we see as the diversity of current mainstream thinking and practices around representational activity, and (b) to articulate what is distinctive about our own contribution, noting the traditions, influences and prior research we draw on. We begin by noting the current dominant role of image generation and analysis in much contemporary science, and its implications for science in schools.

Expert teachers’ discursive moves in science classroom interactive talk

It is well established that teacher-student interactive talk is critically important in supporting students to reason and learn in science. Teachers’ discursive moves in responding to student input are keys to developing and supporting a rich vein of interactive discussion. While initiation-response-evaluation (IRE) sequences have been shown to dominate science classroom discourse patterns worldwide, teacher ‘prompts’ are important for opening up opportunities for reasoning and higher level learning. This paper describes the analysis of video sequences for five expert elementary teachers across three countries to develop a coding scheme for these teachers’ ‘discursive moves’ to guide and respond to student inputs, that unpacks more completely the strategies they use to develop interactive discussion. The analysis showed varied patterns of knowledge transaction, with teacher discursive moves serving three broad purposes: to elicit and acknowledge student responses, to clarify and to extend student ideas. The patterns of talk were also related to the dialogic-authoritative distinction in analysis of talk, to show that this distinction is only clear for particular types of expert practice. While the particular moves teachers use vary across parts of lessons we argue that they are revealing of teachers’ particular beliefs and of systemic constraints, and that there exist patterns in the use of the discursive categories that capture how expert teachers build deeper level knowledge in classroom interactive talk. We describe ways in which the analysis can inform science teacher education and the professional learning of teachers of science.

Constructing representations to learn science

While there has been considerable research attention paid to ways of supporting students to interpret and apply the multi modal representations that constitute scientific understanding, less has been paid to the active construction of representations as part of a science inquiry process. This chapter describes the development, over a decade, of major Australian research projects involving researchers from five universities exploring a guided inquiry approach to school science involving the construction and negotiation of representations. This program of research is based in pragmatist understandings of the relationship between representations, phenomena and meaning making. It links the pedagogy to the knowledge production processes of science itself, drawing on science study scholars such as Latour and Gooding. The approach has formed the basis of major government sponsored professional learning programs. This chapter describes the development of this ‘representation construction’ approach and provides examples of sequences of representational challenges, with associated student work, to demonstrate the key features of the pedagogy and the quality of learning that ensues. We describe current research working with schools to establish the approach more widely and the professional learning challenges this poses for teachers.

Representing and learning in science

In this book we argue for an approach to representational work in school science learning and teaching that engages participants, is epistemologically sound, aligns with knowledge-building practices in the discipline, and draws on extensive classroom study. We review in this chapter current research agendas around student representational work in science learning, including the assumptions, rationale and research practices of these agendas. We do this (a) to clarify precisely what we see as the diversity of current mainstream thinking and practices around representational activity, and (b) to articulate what is distinctive about our own contribution, noting the traditions, influences and prior research we draw on. We begin by noting the current dominant role of image generation and analysis in much contemporary science, and its implications for science in schools.

Hybridity, globalisation and literacy education in the context of New York City

Although multiliteracies have been well theorised in recent years, few studies have researched the practical aspects of developing a curriculum of multiliteracies. This article examines multiliteracies as a crossdisciplinary curriculum practice, drawing on data from a 3-year study in an urban middle school. The data show possibilities for students to engage in critique and to move toward designing multimodal texts. Using Bourdieusian concepts of social capital and academic field, we explore the struggles around learning to inhabit certain school discourses.

Teaching literacy in the new media age through the arts

Many school literacy practices often ignore youths' creativity in the 'new media age'. School curricula often do not acknowledge the range of skills adolescents acquire outside formal education. Youths' new multi- modal social and cultural practices - as they fashion themselves creatively in multiple modes as different kinds of people in 'New Times' - points to the liberating power of new technologies that embrace their imagination and creativity. In two middle years classes, adolescents' creativity was recognised and validated when they were encouraged to re-represent curricular knowledge through multi-modal design (New London Group 1996). The results suggest the changed classroom habitus produced new and emergent discursive and material practices where creativity emerges as capital in an economy of practice. Recommendations are put forth for schools to recognise adolescents' creativity - that often manifests itself through their cultural and social capital resources - as they integrate and adapt to the new affordances acquired through their out-of-school literacy practices.